TABLE OF CONTENTS - Indonesia Infrastructure Finance
Transcription
TABLE OF CONTENTS - Indonesia Infrastructure Finance
TABLE OF CONTENTS TABLE OF CONTENTS ...................................................................................................... i LIST OF TABLES .............................................................................................................. iii LIST OF FIGURES ........................................................................................................... vii CHAPTER I 1.1 BACKGROUND ...................................................................................... I-1 1.2 Objective and Benefit of The Project ...................................................... I-2 1.3 LAW AND REGULATION ....................................................................... I-2 1.4 POLICY ON IMPLEMENTATION OF ENVIRONMENTAL MANAGEMENT ...................................................... I-7 CHAPTER II PROJECT PLAN ................................................................................... II-1 2.1 Identity of Initiator and Author................................................................ II-1 2.1.1 Identity of Initiator ..................................................................... II-1 2.1.2 Identity of Author/Consultant .................................................... II-1 2.2 DESCRIPTION OF PROJECT PLAN .................................................... II-2 2.2.1 Suitability of the Project with Its Surrounding Land .................. II-2 2.2.2 Description of project................................................................ II-2 2.2.2.1 Technical Plan of the project................................... II-2 2.2.2.2 Stages of Development .......................................... II-8 2.3 LINKAGE OF THE PROJECT WITH OTHER PROJECTS IN SURROUNDING AREAS............................................ II-32 CHAPTER III EIA INTRODUCTION .................................................................................... I-1 DESCRIPTION OF ENVIRONMENTAL CONDITIONS ....................... III-1 3.1 PHYSICAL AND CHEMICAL COMPONENTS ..................................... III-1 3.1.1 Climate .................................................................................... III-1 3.1.2 Physiography and Geology ..................................................... III-9 3.1.3 Hydrology .............................................................................. III-22 3.1.4 Hydrogeology ........................................................................ III-28 3.1.5 Space, Land and Soil ............................................................ III-35 3.2 BIOLOGICAL COMPONENTS ........................................................... III-45 3.2.1 Land Flora ............................................................................. III-45 3.2.2 Land Fauna ........................................................................... III-47 3.2.3 Water Biota............................................................................ III-56 3.3 ECONOMIC SOCIAL AND CULTURAL COMPONENT..................... III-61 3.3.1 Population.............................................................................. III-61 3.3.2 Social Economy..................................................................... III-74 3.3.3 Problems in the Area around the planned Toll Road............. III-82 3.4 CONDITION OF FACILITIES AND INFRASTRUCTURE......................................................................... III-100 3.5 COMPONENTS OF PUBLIC HEALTH............................................. III-115 3.6 SUMMARY ....................................................................................... III-118 i CHAPTER IV 4.1 SCOPING RESULT ..............................................................................IV-1 4.2 SCOPE OF STUDY AREA ...................................................................IV-2 CHAPTER V EIA SCOPE OF STUDY ..............................................................................IV-1 FORECASTING IMPORTANT IMPACTS .............................................V-1 5.1 IMPACT FORECASTING ......................................................................V-1 5.1.1 Pre-Construction Phase ...........................................................V-1 5.2 Construction Phase ...............................................................................V-5 5.2.1 Impacts on Physical-Chemical Components ............................V-5 5.2.2 Biological Environment Components......................................V-29 5.2.3 Components of Public Health .................................................V-42 5.2.4 Post-Construction Stage.........................................................V-43 5.2.4.1 Components of Physical-Chemical Environment..V-43 5.2.4.2 Component of Social Environment, Economy and Culture ...........................................................V-57 5.3 SUMMARY ..........................................................................................V-61 ii LIST OF TABLES Table II.1 Table II.2 Table II.3 Table II.4 Table II.5 Table II.6 Table II.7 Table II.8 Table II.9 Table II.10 Table II.11 Table II.12 Table II.13 Table II.14 Table II.15 Table II.16 Table II.17 Table II.18 Table II.19 Table II.20 Table II.21 Table II.22 Table II.23 Table II.24 Table II.25 Table II.26 Table II.27 Table II.28 Table III.1 Table III.2 Table III.3 Table III.4 Table III.5 Table III.6 Table III.7 Table III.8 Table III.9 Table III.10 Table III.11 EIA EIA Team.......................................................................................... II-1 Administrative Boundaries of the Project.......................................... II-2 Technical Data of the Project............................................................ II-5 Development Schedule of Cikampek-Palimanan Toll Road ............. II-9 Land Use of Acquisitioned Land ..................................................... II-10 Estimated number of workers for the Cikampek-Palimanan Toll Road Development .................................................................. II-12 Equipment Needs for Base Camp Construction ............................. II-13 Material Requirements.................................................................... II-14 Excavation and Embankment Work................................................ II-15 Location of Quarry, Borrow Pit and Disposal Area ......................... II-16 List of Crossing Drainage on Section I Kab. Purwakarta................ II-14 List of Crossing Drainage on Section I Kab. Subang...................... II-15 List of Crossing Drainage on Section II Kab. Subang..................... II-16 List of Crossing Drainage on Section III Kab. Subang.................... II-17 List of Crossing Drainage on Section III Kab. Indramayu ............... II-18 List of Crossing Drainage on Section IV Kab. Indramayu............... II-19 List of Crossing Drainage on Section IV Kab. Majalengka ............. II-19 List of Crossing Drainage on Section V Kab. Majalengka .............. II-20 List of Crossing Drainage on Section VI Kab. Majalengka ............. II-21 List of Crossing Drainage on Section VI Kab. Cirebon ................... II-22 Location of Bridges ......................................................................... II-23 Location and Type of Crossing Road Construction ........................ II-25 Location and Type of Crossing Road Construction ........................ II-25 Location and Type of Crossing Road Construction ........................ II-26 Location and Type of Crossing Road Construction ........................ II-26 Location and Type of Crossing Road Construction ........................ II-27 Location of People Crossing Bridge (JPO) ..................................... II-28 Location of Rest Area ..................................................................... II-29 Result of Air Quality Measurement in the Project Location ............. III-3 Noise Measurement Result in the Project Location......................... III-5 Measurement Result of Surface Water/ River in the Project Location ........................................................................................... III-6 Measurement of Clean Water in the Project Location ..................... III-8 Mophology along the planned Toll Road ......................................... III-9 Geolofical Formation Age Surrounding the Project Location......... III-12 Rivers Cut by TheToll Road Project .............................................. III-25 Key Regions (Prominent Regions) in West java Province............. III-37 Existing Land Use in the Regency Surrounding Project Plan........ III-40 Existing Land Use Along The Project Plan .................................... III-40 Types of Cultivated Plants ............................................................. III-47 iii Table III.12 Table III.13 Table III.14 Table III.15 Table III.16 Table III.17 Table III.18 Table III.19 Table III.20 Table III.21 Table III.22 Table III.23 Table III.24 Table III.25 Table III.26 Table III.27 Table III.28 Table III.29 Table III.30 Table III.31 Table III.32 Table III.33 Table III.34 Table III.35 Table III.36 Table III.37 Table III.38 Table III.39 Table III.40 Table III.41 Table III.42 Table III.43 Table III.44 Table III.45 Table III.46 Table III.47 Table III.48 Table III.49 Table III.50 EIA Trees and Shrubs in the Project Location Area ............................. III-50 Fauna Composition in the Project Area ......................................... III-54 Plankton and Bentos In the Project Area....................................... III-57 Demography Conditions of Subang Regency Surrounding Project Area ................................................................................... III-63 Demography Conditions of Purwakarta Regency Surrounding Project Area .............................................................. III-64 Demography Conditions of Indramayu Regency Surrounding Project Area ................................................................................... III-65 Demography Conditions of Cirebon Regency Surrounding Project Area ................................................................................... III-65 Demography Conditions of Majalengka Regency Surrounding Project Area .............................................................. III-66 Job Seeker Based on Its Education in 2006.................................. III-68 Paddy Field in Cirebon .................................................................. III-75 Paddy Field in Subang................................................................... III-76 Paddy Field in Purwakarta............................................................. III-78 Aquaculture and Fisheries in Cirebon............................................ III-79 Fishery Production in Majalengka (Ton) ........................................ III-80 Type of Job of Respondent............................................................ III-87 Respondent’s Monthly Income ...................................................... III-88 Respondent’s Education................................................................ III-88 Land Ownership Status ................................................................. III-89 Access to the Workplace ............................................................... III-89 Housing Status .............................................................................. III-90 Type of Housing............................................................................. III-90 Source of Lighting.......................................................................... III-90 Source of Clean Water .................................................................. III-90 Toilet .............................................................................................. III-91 Safety and Security........................................................................ III-91 Land Conflicts ................................................................................ III-92 Knowledge of Toll Road Development .......................................... III-92 Suitable Media for Socialization of the Project .............................. III-94 Perception towards Toll Road Development Plan ......................... III-94 Perception towards Land Acquisition for Toll Road Development.................................................................................. III-95 Kinds of Compensation.................................................................. III-97 Process of Compensation.............................................................. III-97 Perception on the Impact of the Project to the Livelihood ............. III-98 Perception on the Impact of The Project to the Employment Opportunities ................................................................................. III-99 Perception on the Impact of The Project to the Environment ........ III-99 Bus Routes Around The Project Location.................................... III-102 Type of Road in West Java and Central Java ............................. III-104 Traffic Volume.............................................................................. III-105 Analysis of V/C Ratio in West Java Province Roads ................... III-106 iv Table III.51 Table III.52 Table III.53 Table III.54 Table III.55 Table III.56 Table III.57 Table III.58 Table IV.1 Table V.1 Table V.2 Table V.3 Table V.4 Table V.5 Table V.6 Table V.7 Table V.8 Table V.9 Table V.10 Table V.11 Table V.12 Table V.13 Table V.14 Table V.15 Table V.16 Table V.17 Table V.18 Table V.19 Table V.20 Table V.21 Table V.22 Table V.23 Table V.24 Table V.25 Table V.26 EIA Travel Time and Delay (TTD) ...................................................... III-107 Analysis of Traffic Count in Existing Road in Cikampek Palimanan.................................................................................... III-108 EMP Value on Each Surveyed Road........................................... III-109 Toll Road Potential Based on ADT .............................................. III-109 LHR and Percentage of Through Traffic, from and to Palimanan.................................................................................... III-110 Public Utilities .............................................................................. III-111 Locations of Gas Pipelines that Cross the Toll Road .................. III-115 Summary of Enviornmental Conditions of each Section of the Toll Road ............................................................................... III-120 Administration Boundaries of The Project .......................................IV-3 Estimated Maximum Concentration (ug/m3) Due to Mobilization Activities At 77 m distance............................................V-6 Estimated Maximum Concentration (ug/m3) Due to Basecamp Operation Activities At 77 m distance .............................V-7 Estimated Maximum Concentration (ug/m3) Due to Subgrade Preparation Activities At 77 m distance............................V-7 Estimated Maximum Concentration (ug/m3) Due to Excavation and Embankment Activities At 77 m distance ................V-8 Estimated Maximum Concentration (ug/m3) Due to Road Works Activities At 77 m distance.....................................................V-9 Estimated Maximum Concentration (ug/m3) Due to Bridge Works Activities At 77 m distance...................................................V-10 Impacts of Air Pollution ...................................................................V-12 Estimated Noise of Heavy Equipment at 15m Distance .................V-19 Measurement Result From Each River...........................................V-22 TSS level Produced (C3) on each water bodies.............................V-23 Estimated Additional Volume of Vehicle Trip..................................V-39 Air Quality Improvement in .............................................................V-48 Air Quality Improvement in .............................................................V-49 Air Quality Improvement in .............................................................V-49 Air Quality Improvement in .............................................................V-50 Air Quality Improvement in .............................................................V-50 Air Quality Improvement in .............................................................V-51 Improvement of Noise Cikampek-Kalijati Section...........................V-53 Improvement of Noise Kalijati-Subang Section ..............................V-54 Improvement of Noise Subang-Cikedung Section..........................V-54 Improvement of Noise Cikedung-Kertajati Section .........................V-54 Improvement of Noise Kertajati-Sumberjaya Section .....................V-54 Improvement of Noise Sumberjaya-Palimanan Section .................V-55 Traffic Volume Projection................................................................V-60 Summary of Impact Occurred During Pre-Construction Stage For Each Section ............................................................................V-64 Summary of Impact Occurred During Construction Stage For Each Section...................................................................................V-65 v Table V.27 EIA Ringkasan Jenis Dampak Yang Timbul Pada Tahap Pasca Konstruksi Di Setiap Section Sepanjang Trase Jalan Tol .............V-71 vi LIST OF FIGURES Figure II.1 Figure II.2 Figure II.3 Figure II.4 Figure II.5 Figure II.6 Figure III.1 Figure III.2 Figure III.3 Figure III.4 Figure V.1 Figure V.2 Figure V.3 Figure V.4 Figure V.5 Figure V.6 Figure V.7 EIA Typical Cross Sectional Cut of Cikampek – Palimanan Toll Road ................................................................................................. II-6 Portal for protection of gas pipeline .................................................. II-7 Bore Pile Construction Method .......................................................... 24 Footing / Foundation Method .............................................................. 25 Installation of Scaffolding Column and Pier Head ................................ 26 Girder Beam Installation Method ......................................................... 27 Topographical Conditions in the Project Location ......................... III-10 Flood Embankment in The Vicinity of the project .......................... III-21 Map of River Basin Around The Project Location.............................. 24 Hidrogeology Map Along The Project Location ............................. III-36 Estimated Air Qualities in Sadang-Kalijati Section 2015 ................V-44 Estimated Air Qualities in Kalijati-Subang Section 2015 ................V-45 Estimated Air Qualities in Subang-Cikedung Section 2015............V-45 Estimated Air Qualities in Cikedung-Kertajati 2015 ........................V-46 Estimated Air Qualities in Kertajati-Sumberjaya 2015 ....................V-46 Estimated Air Qualities in Sumberjaya-Palimanan 2015 ................V-47 Estimated Noise During Operational Stage ....................................V-53 vii CHAPTER I INTRODUCTION 1.1 BACKGROUND Cikampek-Palimanan Toll Road is an alternative way to provide an efficient highway transportation system with a high level of service to support national economic growth, while supporting the realization of the Trans-Java road network. Externally, the road network in the Pantura region is part of the planned Trans-Java road network connecting Sumatra, Java and Bali, which serves to accommodate the flow of goods and people between the islands. In the intra-region context, the existence of the northern road network which is supported by the provincial road network indicates the spatial relationship between the city and the growth of existing centers. So according to the physical condition of this territory, expanding the road network patterns will affect the development of towns along the northern coast region. Therefore, to support the accessibility of goods and people an alternative to the construction of the highway is needed. The Government of the Republic of Indonesia through the Toll Road Regulatory Body (BPJT) and Department of Public Works in collaboration with investor PT. Lintas Marga Sedaya, seeks the realization of Cikampek-Palimanan toll road - which connects Purwakarta, Subang, Majalengka, Cirebon, and Indramayu along ± 116.4 km. Realizing that any construction activities will not only have positive effect impacts on the growth and development of national and regional economic development, but also will have negative influences (impacts) on the conservation of nature and the environment, and in accordance with environmentally sound development policies as regulated by Law no. 23, 1997 on Natural Environmental Management and Government Regulation no. 27 of 1999 concerning Environmental Impact Assessment, environmental management is necessary to be completed. Based on the Decree of the Minister of Environment No. 11 of 2006 on Types of Business Plan and / or Activity which must be Equipped With an Environmental EIA I-1 Impact Analysis, which for this type is highway infrastructure activities, the CikampekPalimanan Toll Road Development plan along +116 km must be accompanied by an Environmental Impact Assessment Study (EIA). In addition to the abovementioned, Environmental Impact Assessment Study (EIA) also refers to the decisions of the Minister of Environment No. 8 Year 2006 on Guidelines for Preparing Environmental Impact Assessment, which includes the Terms of Reference for Environmental Impact Analysis (KA-ANDAL), Environmental Impact Assessment (EIA), Environmental Management Plan (RKL), Environmental Monitoring Plan (RPL), and Executive Summary. 1.2 OBJECTIVE AND BENEFIT OF THE PROJECT The objective of the Cikampek-Palimanan Toll Road Development Project is as an alternative to providing an efficient transport system to support national economic growth. The Benefit of the project is to facilitate the movement of traffic and goods as well as residents from Java to Sumatra and support functions of the external road network of the northern region in order to accommodate the movement of goods and services across the provinces, as well as to support the development of cities in West Java Province. 1.3 LAW AND REGULATION Legislation used in the EIA Study include : a. Law 1. Law of the Republic of Indonesia No. 5 of 1960, about Agrarian Affairs. As a reference to determine the type of land for land acquisition. 2. Law of the Republic of Indonesia No. 1 of 1970 on Labor. As a reference in the recruitment of labor. 3. Law of the Republic of Indonesia No. 5 of 1990, about the conservation of Natural Resources and Ecosystems. As a benchmark for environmental management. 4. Law of the Republic of Indonesia Number 23 of 1997 on Environmental Management. As a benchmark for environmental management. EIA I-2 5. Law of the Republic of Indonesia No. 25 of 1999 on Financial Balance between Central and Local Government. As a benchmark for environmental management according to their respective responsibilities. 6. Law of the Republic of Indonesia Number 17 of 2004, on Water Resources. As a reference for water resource conservation. 7. Law of the Republic of Indonesia Number 32 of 2004 on Regional Government. As a benchmark for environmental management according to their respective responsibilities. 8. Law of the Republic of Indonesia Number 36 of 2004, on Roads. As a benchmark for environmental management relating to the geometric design of the road. 9. Law of the Republic of Indonesia No. 26 of 2007 on Spatial Planning. As a reference in the implementation of environmentally sound development. b. Government Regulation 1. Indonesian Government Regulation No. 6 of 1988, on Vertical Coordination Agency Activities in the Region. As a reference in the implementation of land acquisition. 2. Indonesian Government Regulation No. 35 of 1991, on Rivers. As a reference for the management of surface water environments. 3. Indonesian Government Regulation No. 69 of 1996, on the Implementation of the Rights and Obligations and Forms and Procedures for Public Participation in Spatial Planning. As a reference for development by involving the community. 4. Indonesian Government Regulation Number 18 of 1999, regarding Management of Hazardous and Toxic Wastes. As a reference in environmental management. 5. Indonesian Government Regulation No. 27 of 1999, concerning Environmental Impact Analysis. As a reference in the preparation of EIA documents. 6. Indonesian Government Regulation No. 41 of 1999, concerning Control of Air Pollution. As a national reference for air quality management. 7. Indonesian Government Regulation No. 25 of 2000, the Government Authority and Provincial Authority as Autonomous Regions. As a rule EIA I-3 for authorities in West Java Provincial Government. 8. Indonesian Government Regulation No. 82 of 2001, regarding Management of Water Quality and Water Pollution Control. As a rule for the National Water Quality Management. 9. Indonesian Government Regulation Number 16 of 2004, regarding Land Stewardship. As a rule for determining the type of land. 10. Indonesian Government Regulation No. 15 of 2005, on Toll Roads. As a reference for the implementation of toll road development. c. Presidential Decree 1. Decree of the President of the Republic of Indonesia Number 32 of 1990, on the Management of Protected Areas. As a rule for conservation management of protected areas. 2. Decree of the President of the Republic of Indonesia No. 05 year 1992 concerning Land Acquisition. As a reference in land acquisition. 3. Decree of the President of the Republic of Indonesia No. 75 of 1993, on the coordination of National Spatial Management. As a reference for implementation of environmentally sound development. 4. Decree of the President of the Republic of Indonesia No. 36 Jo. No. 65, 2006 on Land Procurement for Implementation of Development for Public Interest. As a reference in land acquisition. d. Ministerial Regulation 1. Regulation of the Minister of Health Republic of Indonesia Number: 4167 MENKES / PER / IX / 1990, on Terms of Water Quality Monitoring. As a rule of Water Management. 2. Public Works Ministerial Decree No. 779/KPTS/1990 Rl, on Technical Guidelines for EIA Field Road and Bridge. As a reference for preparation of environmental impact documents. 3. Decision of the National Land Agency Number: 02 of 1990, concerning Permit Location. As a reference for implementation of the development. 4. Head of Bapedal Decision No. 056 of 1994, on Guidelines Regarding Impacts Size Importance. As a reference for preparation of EIA documents. 5. Decree of the Minister of Public Works Rl Number: 56/KPTS/1995, the EIA I-4 EIA Procedure Guide Department of Public Works. As a reference for preparation of EIA documents. 6. Decree of the Minister of Environment / Head of Bapedal Number: KM-48/MENLH/11/1996, about Raw Noise Level. As a reference in environmental management of noise. 7. Decree of the Minister of Environment Number: KEP-299/11 / 1996. Technical Guidelines Review Social Aspects In the preparation of Environmental Impact Assessment. As a reference preparation of environmental impact of social aspects. 8. Decree of the Minister of Environment Number Kep-45/MENLH / 10/1997, regarding Air Pollution Standard Index. As a national reference for air quality management. 9. Decree of the Minister of Environment Number: KEP-124/11 / 1997. Technical Guidelines Review of Public Health Aspects of the Preparation of Environmental Impact Assessment. As reference for the preparation of the EIA documents for societal health aspects. 10. Decree of the Head of Environmental Impact Management Agency Number Kep-107/KABAPEDAL/11/1997, Technical Guidelines for Calculation and Reporting and Information Air Pollution Standards Index. As a benchmark for environmental management. 11. Decree of the Minister of Environment Number. 41/1999 on Air Pollution Control. 12. Decree of the Minister of Environment No. 2 of 2000, the EIA Document Assessment Guide. As a reference for preparation of EIA documents. 13. Decree of the Head of Environmental Impact Management Agency: Number 08 of 2000, regarding Community Involvement and Information Disclosure in Environmental Impact Analysis Process. As a reference in execution of socialization. 14. Decree of the Head of Environmental Impact Management Agency No. 40 of 2000, concerning Guidelines for Administration of EIA Appraisal Commission. As a reference for environmental impact assessment document. 15. Decree of the Minister of Environment No. 41 year 2000, on Guidelines for Establishment of Commission for EIA Appraisal District. As a reference for the Assessment Team. 16. Decree of the Minister of Environment Number. 45/2005 on Guidelines EIA I-5 for Preparation of Consolidated RKL and RPL. 17. Decree of the Minister of Public Works 295/PRT/M Rl No. 2005, on the Toll Road. As a reference preparation of the EIA document. 18. Decision of the Minister of Public Works no. 369/KPTS/M/2005, General Plan of the National Road Network. As a benchmark to determine the classification of the road. 19. Regulation of the Minister of State for Environment, No: 8 of 2006, concerning Guidelines for Preparation of Environmental Impact Assessment. As a reference for preparation of EIA documents. 20. Regulation of the Minister of State for Environment, No: 11 of 2006, concerning Types of Business and / or activities, which are to be equipped with a Mandatory Environmental Impact Assessment. As reference for the preparation of EIA documents. e. Provincial and Local Regulation 1. West Java Provincial Regulation No. 3 of 1988 on Taking Control of Ground Water, Surface Water and Sewerage. As a benchmark for environmental management. 2. West Java Provincial Regulation No. 12 of 1989 on the Procedure of Setting Water. As a benchmark for environmental management. 3. Local Regulation of the Province of West Java No.1 of 1990 on Environmental Management in the Province of West Java. As a benchmark for environmental management. 4. Governor Decree No level I West Java. 38 of 1991 on Water Appropriation and Water Quality on Water Resources in West Java. As a benchmark for environmental management. 5. West Java Governor Decree No. 38 of 1993 on Regulation of the Use of Roads. As a reference in execution of development. 6. West Java Governor Decree No. 17 of 1993 on Attraction and traffic generation. As a reference pattern of traffic movement. 7. West Java Governor Decree Number: 620/Kep.184-Sarek/2008, concerning Amendment to Decree No. 620/Kep.538-Sarek/2006 Governor of West Java, on determiniation of Cikopo - Palimanan Toll Road Construction Location (SP2LP) 8. West Java Governor Decree No. 18 Year 1993 on Implementation of Traffic Control Equipment. As a reference for traffic regulation. EIA I-6 9. West Java Provincial Regulation No. 15 of 1994 Concerning the Regional Road Traffic in West Java Province. As a rule of traffic planning. 10. West Java Governor Decree No. 21 of 2001 on Road Use Regulation. As a guideline for traffic planning. 11. West Java Provincial Regulation No.2 of 2003 on spatial planning in West Java 2010. As a guideline for construction in the province of West Java. 12. West Java Provincial Regulation No. 8 year 2005 concerning Border Water Resources. As a reference for the environmental management of rivers. 13. West Java Provincial Regulation No.2 of 2006 on the Management of Protected Areas. As a rule for protected area management. 14. Decision of Head of BPN (National Land Agency) Regulation. 3 / 2007 concerning Land Procurement for Implementation of Public Development. 1.4 POLICY ON IMPLEMENTATION OF ENVIRONMENTAL MANAGEMENT The Development Policy of the Palimanan-Cikampek toll road is based on environmentally-sound principles, to achieve sustainability and provide guarantees for present and future. This is contained in PROPERNAS and the Law of Environmental Management, which among others states that the Indonesian people want harmonious relationship between man and God, between human beings, and with the surrounding environment. Based on spatial planning (RTRW) in West Java Province, it has been confirmed that the construction / development of the region around the northern highways and roads must take into account that the growth of the road must not interfere with: • The smooth flow of goods and services • Aesthetics (beauty) and architecture • Environment. EIA I-7 CHAPTER II PROJECT PLAN 2.1 IDENTITY OF INITIATOR AND AUTHOR 2.1.1 Identity of Initiator Company Name : PT. LINTAS MARGA SEDAYA Person In-charge : CEO of PT. Lintas Marga Sedaya Address : Jalan Cibitung III No. 34 Kebayoran Baru, Jakarta Selatan, Telp. 021-7245870 Fax. 021-7222436 2.1.2 Identity of Author/Consultant Author/consultant of the Environmental Impact Assessment for the Cikampek-Palimanan Toll Road Development is as follows: Company Name : PT. Perentjana Djaja Person In-Charge : CEO of PT. Perentjana Djaja Address : Wisma Pede Lantai 4 Jl. MT. Haryono Kav. 17, Jakarta Selatan Telp. 021-8290442 Fax. 021-8297124 The composition of the complete team in this EIA Study of the Cikampek-Palimanan Toll Road Development is given in Table II.1. Table II.1 No. EIA Team Position Name Expertise 1 Team Leader, Environment Expert Ir. M. Waladi Road Network Expert, Amdal-B 2 Transportation Expert Ir. Dwi Endro BW Road Network Planning Expert 3 Urban and regional Planning Expert Ir. Maskur Urban and Regional Expert 4 Socioeconomic Expert-1 Drs. Edwir Irfan, Msi Socioeconomic analyst, Amdal-A 5 Socioeconomic Expert-1 Ir. Witono Socioeconomic analyst, Amdal-A 6 Chemistry-Physics Expert Ir. Sri Sukaeni Chemical-Physical Analyst, Amdal -B 7 Biology Expert Dra. Yuli Hastuti Biology Analyst, Amdal-B 8 Hydrology and Drainage Expert Ir. Bambang HS Hydrology Expert 9. Geology Expert Ir. Wisoko Geology Expert EIA II-1 10. Public Health Expert dr. Rina Kurniasri, Mkes Public Health Expert 2.2 DESCRIPTION OF PROJECT PLAN 2.2.1 Suitability of the Project with Its Surrounding Land Based on the West Java Governor Decree Number: 620/Kep.184-Sarek / 2008, on Amendment to the West Java Governor Decree No. 620/Kep.538-Sarek/2006, concerning Determination of Cikopo - Palimanan Highway Construction Site (SP2LP), the plan for the Cikampek-Palimanan toll road alignment location is in accordance with the 2003 - 2010 spatial planning of West Java province and revised master plan for West Java province (Perda no.3 of 1994). The route of this highway will go through several diverse land types, namely: rice irrigation (27.7%), plantation (4.41%), forest (17.64%), shrubs (15.39%), vacant land (15.18%), rain-fed rice fields (8.79%), fields (5.86%) and housing (4.96%). Areas of Perhutani-owned forest and plantation areas can be seen in the appendix. Location of the Palimanan Cikampek Toll Road alignment based on its administration area can be seen in Table II.2, while the Cikampek Palimanan Toll Road Plan Location Map is in Figure 2.1. 2.2.2 Description of project 2.2.2.1 Technical Plan of the project 1. Technical Specification of the Project Technical data based on data and detailed project engineering design (DED) can be seen in Table II.3, while the cross section of the highway is presented in Figure 2.2. Table II.2 No. Administrative Boundaries of the Project Regency Sub-district Bungursari 1. Purwakarta Cempaka Cibatu EIA Village Cikopo Cinangka Cimahi Cisaat Kertamukti Karyamekar Section Division Section 1 to Section 6 STA 91+350 II-2 No. Regency Sub-district Pabuaran Cipeundeuy Kalijati Purwadadi Pagaden 2. Subang Subang Cipunagara Cibogo Gantar 3. Indramayu Trisi Village Cipasungsari Karangmukti Wantilan Sawangan Marangemang Batusari Kaliangsana Wanakerta Balingbing Sumurgintung Gembor Jabong Sukamelang Cisaga Wanasari Cibogo Pada Asih Sumur Barang Bantar Waru Sanca Cikedung/Cikawung Section Division Section 1 to Section 6 Section I Length 27.05 km STA 118+400 Section II Length 11.200 K STA 129+600 Section III Length 28.700 Km STA 158+300 Kertajati Dawuan Jatiwangi 4. Majalengka Lingung Palasah Mekarjaya Palasah Sukawana Kertawinangun Pasir Malati Balida Mandapa Jatiwangi Surawangi Jatisura Ciborelang Beusi Tegal Aren Cisambeng Sumberjaya/Majasuka Section IV Length 18.900 Km STA 177+200 Section V Length 16.100 Km STA 193+300 Sumberjaya Ciwaringin 5. Cirebon Gempol Palimanan Bongas Kulon Bongas Wetan Panjalin Lor Panjalin Kidul Budursora Babakan Ciwaringin Galagamba Kedung Bunder Kempek Pegagan Section VI Length 14.450 Km STA 207+350 Source: Measurement of FED team, 2007 EIA II-3 Table II.3 No. Technical Data of the Project Component Technical Data The length of Cikampek-Palimanan Toll Road is ± 116,4 Km which consists of : Section I, STA 91+350 s/d STA118+400 a. Main Road : ROW : 60 m Length of road : 27.05 km Width of lanes : 2 x (2 x 3.60) m Outer shoulder width : 2 x 3.00 m Inner shoulder width : 2 x 1.50 m Median width : 13 m Transversal slope : 2.0% Shoulder slope : 4.0% Planned Speed : 100-120 km/hour b. Ramp : Width of lanes : 1 x 4.0 m Outer shoulder width : 3.00 m Transversal slope : 2.0 % Shoulder slope : 2.0 % Planned Speed : 4.0 km/hour Section II, STA 118+400 s/d STA 129+600 a. Main Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Transversal slope Shoulder slope Planned Speed b. Access Road ROW Length of road Width of lanes Outer shoulder width Transversal slope Shoulder slope Planned Speed c. Ramp : Width of lanes Outer shoulder width Transversal slope Shoulder slope Planned Speed Section III, STA 129+600 s/d 158+300 a. Main Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Transversal slope Shoulder slope Planned Speed b. Access Road ROW Length of road Width of lanes EIA : : : : : : : : : 60 m 11.20 Km 2 x (2 x 3.60) m 2 x 3.00 m 2 x 1.50 m 13 m 2.0 % 2.0 % 100-120 km/hour : : : : : : : 40 m 1.0 Km 2 x 3.60 m 2 x 2.75 m 2.0% 2.0% 40 km/hour : : : : : 1 x 4.00 m 3.00 m 2.0 % 2.0 % 40 km/hour : : : : : : : : : 60 m 28.70 Km 2 x (2 x 3.60) m 2 x 3.00 m 2 x 1.50 m 13 m 2.0 % 7.0 % 100-120 km/hour : : : 40 m 0.9 Km 2 x 3.60 m II-5 No. Component Outer shoulder width Transversal slope Shoulder slope Planned Speed c. Ramp : Width of lanes Outer shoulder width Transversal slope Shoulder slope Planned Speed Section IV, STA 158+300 s/d STA 177+200 a. Main Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Transversal slope Shoulder slope Planned Speed b. Access Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Planned Speed c. Ramp : Width of lanes Outer shoulder width Transversal slope Shoulder slope Planned Speed Section V, STA 177+200 s/d STA 193+600 a. Main Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Transversal slope Shoulder slope Planned Speed b. Access Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Planned Speed c. Ramp : EIA Technical Data : : : : 2 x 2.75 m 2.0% 4.0% 50 km/hour : : : : : 1 x 4.00 m 3.00 m 2.0 % 2.0 % 40 km/hour : : : : : : : : : 60 m 18.90 Km 2 x (2 x 3.60) m 2 x 3.00 m 2 x 1.50 m 13 m 2.0 % 4.0 % 100-120 km/hour : : : : : : : 40 m 1.6 Km 2 x 3.60 m 2 x 2.75 m 2.0% 4.0% 50 km/hour : : : : : 1 x 4.00 m 3.00 m 2.0 % 2.0 % 40 km/hour : : : : : : : : : 60 m 18.90 Km 2 x (2 x 3.60) m 2 x 3.00 m 2 x 1.50 m 13 m 2.0 % 4.0 % 100-120 km/hour : : : : : : : 40 m 1.7 Km 2 x 3.60 m 2 x 2.75 m 2.0% 4.0% 50 km/hour II-6 No. Component Width of lanes Outer shoulder width Transversal slope Shoulder slope Planned Speed Section VI, STA 193+300 s/d STA 207+350 a. Main Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Transversal slope Shoulder slope Planned Speed b. Access Road ROW Length of road Width of lanes Outer shoulder width Inner shoulder width Median width Planned Speed c. Ramp : Width of lanes Outer shoulder width Transversal slope Shoulder slope Planned Speed Toll Road Facilities Inter change On & off ramp Overpass Underpass Bridge Box Culvert Drainage Tunnel Crossing Bridge Toll Gate Toll Plaza Barrier Gate Rest Area Source: FED Consultant Team, 2007 2. Technical Data : : : : : 1 x 4.00 m 3.00 m 2.0 % 2.0 % 40 km/hour : : : : : : : : : 60 m 14.45 Km 2 x (2 x 3.60) m 2 x 3.00 m 2 x 1.50 m 13 m 2.0 % 4.0 % 100-120 km/hour : : : : : : : 40 m 1,6 Km 2 x 3.60 m 2 x 2/75 m 2/0% 4/0% 50 km/hour : : : : : 1 x 4.00 m 3.00 m 2.0 % 2.0 % 40 km/hour : : : : : : : : : : : : 7 28 65 20 17 127 130 20 28 1 2 8 unit unit unit unit unit unit unit unit unit unit unit unit Schedule of Development The concession agreement between the Toll Road Regulatory Body (BPJT) - Dep. PU and PT. Lintas Marga Sedaya (investor) was established in July 2006. Implementation of land acquisition was planned to run from August 2007 to July 2008, starting in the east (section VI). The time provided for implementation of physical development of the Palimanan Cikampek toll road is 30 calendar months EIA II-7 from July 2008 until December 2010. More details can be viewed in the construction schedule presented in Table II.4. 2.2.2.2 Stages of Development 1. Pre-construction Stage 1). Survey and measurement location situation This work is preceded, among others, by collecting primary data, including an inventory of the land to be used for RUMIJA toll, and the carrying capacity of the soil investigation. At this stage this aims to determine the location of the road alignment to be constructed and the measurement of land area required for detailed design. Some of these surveys include: topographical surveys, road surveys, geological surveys, hydrological surveys, environmental surveys and surveys of land ownership. 2). Land acquisition Land acquisition as part of the Toll Road project plans to transfer the land rights of the people/residents to the government, the estates of the Ministry of SOEs and forest land from the Ministry of Forestry to the Government (Ministry of Public Works.) Land that will be acquired is ± 765.6 ha; the current land use of this land is shown in Table II.5. Included in these activities is the transfer of land acquisition and / or elevation of Tower SUIT at some point that is; SUTT 150 kV Cikumpay Pabuaran between tower-A24-D25, 70 kV Arjawinangun SUTT Duchy between tower-D62-A63, 70 kV Arjowinangun SUTT-Duchy of tower D60-D61, 70 kV Arjawinangun SUTT Cement Palimanan between tower-D14-A15, and SUTT Mandirancan 150 kV towerJatibarang between D59-D60. In the implementation of the elevation and transfer towers, the project will follow the procedure established by PLN, so as not to cause disruption to customers and surrounding communities. Location crosses with SUTT can be seen in the appendix. In addition to land acquisition, in the area there are gas pipelines owned by Pertamina and private companies; these pipes will be protected with the portal construction so as not to cause interference in both construction and operation phase. More details can be seen in Figure 2.3. EIA II-8 Figure II.1 Typical Cross Sectional Cut of Cikampek – Palimanan Toll Road Source: Consultant Planner / MCI EIA II-6 Figure II.2 EIA Portal for protection of gas pipeline II-7 EIA II-8 Table II.4 Development Schedule of Cikampek-Palimanan Toll Road 2007 2008 2009 2010 2011 9 10 11 12 1 2 KETERANGAN NO Work Description 1 Consession agreement between BPJT and PT. Lintas Marga Sedaya July 2006 Land Acquisition Starting from 2. Section I (Cikampek-Kalijati) 27,05 Km 1 2 3 4 5 6 1 2 3 4 5 8 7 8 9 10 11 12 1 2 3 4 5 8 7 8 9 10 11 12 1 2 3 4 5 8 7 8 Section IV Section II (Kalijati-Subang) 11,2 Km Section III (Subang-Cikedung) 28,7 Km Section IV (Cikedung-Kertajati) 18,9 Km Section V (Kertajati Sumber Jaya) 16,1 Km Section VI (Sumberjaya-Palimanan) 14, 45 Km Physical Construction Stage 3. 1 Preparation Stage : - Heavy Equipment mobilization - Labor Mobilization - Basecamp Construction 2 4. Construction : - Land & Soil Preparation Cleaning - Transportation of Land & Materials - Heap Work - Road & Pavement Works Agency - Drainage Works - Bridge Works - OP & UP Work - Interchanges Work - Construction of Highway Facilities Toll Road Operation EIA II-9 Table II.5 No 1 Land Use of Acquisitioned Land Land Use Paddy Field (Irrigated) (Ha) 212.52 (%) 27.7 2 Forest 135.03 17.64 3 Plantation 33.76 4.41 4 Unproductive Land 117.85 15.39 5 Vacant Land 116.29 15.18 6 Rain-fed Rice Field 67.32 8.79 7 Field 44.88 5.86 8 Settlement 37.95 4.96 TOTAL 765.6 100 Source: FED Consultant Team, 2007 Based on Presidential Regulation No. 36 Jo. No. 65 Year 2006 on Land Procurement for Implementation of Development for Public Interest, the land acquisition process and the building and determining of the Amount of compensation must be made by consensus. The land acquisition process will begin with the application and approval of the location, until SP2LP issued by the Governor. Prior to land acquisition, the Department of Public Works, in this case represented by the Land Acquisition Team (TPT), will conduct an intensive socialization several times to capture the aspirations of the community. Furthermore, the amount of compensation is to be determined by deliberation and consensus which considers inputs / recommendations from the Land Price Assessment Team, and determination of a normative list and a list of payments. Payments are to be made in cash directly through a bank account to the people whose land is acquired, while granting a waiver letter. If there is a difference in land acquisition and the land owners do not agree on the amount of compensation set by the P2T, then compensation will be settled by the court and there will be revocation of land rights by the Government. For more details, a flow chart of land acquisition mechanisms for the purposes of this toll road can be seen in the appendix. 2. Construction Stage 1). Mobilization of Heavy Equipment EIA II-10 Heavy equipment is a tool that cannot be avoided, especially in completing the construction of highway. The dominant tools are driven by engines and can usually be used for various types of work, while the other tools in this project are tools that are not driven by an engine, and these are used according to their needs (such as hoes and others). The main tools to be used in this project from section 1 to 6, include among others: 1. 2. 3. 4. 5. 6. 2. 3. 4. 5. 6. 7. 8. 9. 10. 11. 12. 13. 14. 15. 16. 17. 18. Bulldozer Excavator Stake pole Dump truck Pick Up Compressor Concrete mixer Concrete pump Cutting machine Generating set Crane Concrete breaker Hoes Wheel loader Motor grader Stamper Concrete vibrator Prime mover Tire roller Tandem Roller Asphalt mixing plan Asphalt finisher Water/full tank truck : : : : : : : : : : : : : : : : : : : : : : : 4 4 2 15 2 2 4 2 1 2 2 1 2 3 2 4 4 2 2 2 1 1 1 unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit unit 2). Labor Mobilization Mobilization of labor is the labor recruitment activities for the project site; labor will be local or from outside the project for. Qualification and number of workers for each of the elements required in the physical implementation of the Cikampek – Palimanan toll road development are estimated as follows: • Elements of the project / owner, consisting of experts (10%), • Element of supervisor / supervisors, consisting of experts and medium labor (10%), • Elements of implementers / contractors, consisting of experts and high labor and manual labor (80%). The dominant labor forces will be the executors / contractors, who will remain at base EIA II-11 camp. Estimated number of workers for the construction of the Cikampek-Palimanan toll roads in each section can be seen in Table II.6. Labor that does not require special expertise, as much as possible will be taken from the local workforce. Looking at the composition of labor mentioned above, it can be concluded that the local workforce can be absorbed at the commencement of construction by the contractor in accordance with the needs of contractors and the ability of its workforce. Table II.6 No Estimated number of workers for the Cikampek-Palimanan Toll Road Development Location STA Labor 1 Section I Cikampek – Kalijati 91+350 to 118+400 (± 27.05 Km) 2 Section II Kalijati - Subang (± 11.2 Km) 3 Section III Cikedung (± 28.7 Km) Subang - 129+600 to 158+300 Consisting of 250 people; Owner 25 people (10%), Supervisor 25 people (10%), Contractors 200 people (80%), from 80% contractor personnel are divided into 40'orang core (20%) and labor force 160 people (80%) which can be filled by local workers, according to the needs 4 Section IV Kertajati (± 18.9 Km) Cikedung – 158+300 to 177+200 Consisting of 225 persons; Owner 23 people (10%), Supervisor 23 people (10%), Contractors 179 people (80%), from 80% of contractors are divided into 36 core workers (20%) and labor force 143 people (80 %) which can be filled by local workers, according to the needs and expertise. 5 Section V Kertajati – Sumberjaya (± 16.1 Km) 177+200 to 193+300 200 people consisting of; Owner 20 people (10%), Supervisor 20 People (10%), Contractors 160 people (80%), from 80% of contractors are EIA Consisting of 250 people; Owner 25 people (10%), Supervisor 25 people (10%), Contractors 200 people (80%); from 80% contractor personnel divided into 40 core (20%) and labor force 160 people (80 %) which can be filled by local workers, according to the needs and expertise 118+400 to 129+600 Consisting of 150 people; Owner 15 people (10%), Supervisor 15 people (10%), Contractors 120 people (80%), from 80% contractor divided into 24 core workers (20%) and labor force 96 people (80 %) which can be filled by local workers, according to the needs II-12 No Location STA Labor divided into 32 core workers (20%) and the 128 labor force (80 %) which can be filled by local workers, according to the needs and expertise. 6 Section VI Sumberjaya – Palimanan (± 14.05 Km) 193+300 to 207+350 150 people consisting of; Owner 15 people (10%), Supervisor 15 people (10%), Contractors 120 people (80%), from 80% contractor divided into 24 core workers (20%) and labor force 96 people (80 %) which can be filled by personnel lok £ l, according to the needs and expertise. Source: FED Consultant Team, 2007 3). Construction / Operation of Base Camp Development / operation of the base camp is intended as a central work settings (office), temporary shelter for workers and field workers during the work in progress, and also as a maintenance area for vehicle and heavy equipment used in carrying out the work, including manufacturing and warehousing. Equipment needed in this activity can be seen in Table II.7 below. Table II.7 No. Equipment Needs for Base Camp Construction Location Equipment 4 unit pick up 4 unit dump truck 2 unit pick up 2 Section II 2 unit dump truck 4 unit pick up 3 Section III 4 unit dump truck 2 unit pick up 4 Section IV 2 unit dump truck 2 unit pick up 5 Section V 2 unit dump truck 2 unit pick up 6 Section VI 2 unit dump truck Source: FED Consultant Team, 2007 1 Section I 4). Land Clearing and Soil Preparation Land clearing work includes land clearing / stripping in the work area along the highway alignment approximately 116.4 km and its road works. Overall volume of stripping is estimated to be approximately 2.088 million m3. Soil stripping results will not be discarded but will be used as a layer of humus soil on the outside bodies of EIA II-13 the RUMIJA road. While the Basic Soil Preparation works include the preparation of the toll road agency basis in accordance with the specifications that have been defined. 5). Transportation of Soil, Materials and Building Materials Minerals / materials will be obtained from the slope cutting. Material requirements for the Cikampek-Palimanan Toll Road project are shown in Table II.8 below: Table II.8 No. 1 2 3 4 5 6 Material Requirements Unit Type of Material Sand Cement Aggregate / Stones Iron Concrete Asphalt 3 m m3 m3 Ton m3 Ton Volume 334.004 66.658 613.587 53.224 1.230.487 140.792 Source: FED Consultant Team, 2007 Supporting materials such as cement and steel / iron will be imported from the local city or other locations. Transportation of the aggregate / crushed stone and sand to site will take advantage of village roads / local roads that exist along the planned Cikampek – Palimanan toll road. In the implementation of transportation, it is planned to conduct periodic road watering 2 times a day so as not to cause dust pollution due to tire friction with the ground. To bring the above materials, the commonly used mean will be transport dump trucks with capacity of 10 tons (MST). The route that is used is estimated via the National road / street provinces such as northern roads, Cikampek-Purwakarta-Subang streets Sadang-Majalengka road, Cirebon - Bandung road. For district roads that pass between the other-way kalijati-Pamanukan Subang, Subang-Pagaden road, road-Cikawung Cikamurang, Jatisura road to the village, the road to Sumberjaya, the road to Pesantren Babakan, and others who could pass the truck. 6). Quarry and Embankment Work Quarry and Embankment work covers all activities including ground work necessary for the establishment of toll roads. To align the condition of the highway in accordance with planning criteria, in some places excavation work is required, and elsewhere will be required heaping. Soil EIA II-14 excavation, which technically qualifies as a material, will be used immediately after cleaning and piling of topsoil and residual vegetation. Based on geological data on the condition of the soil layer below the surface shows that building materials can be obtained at various locations along the alignment of the Cikampek - Palimanan Toll road. For this project, only the aggregate with good or fairly good quality can be calculated. Aggregate with good quality is strong and free of material damage and is of good enough quality to be used in asphalt mixtures, the surface layer, base layer for roads, and structural concrete. Good quality aggregate is strong and can be used for base layer with a lower specification and for with no structural concrete. In general, all materials will be source from an embankment located 20 km from the planned alignment. Local sources of this material can generally be achieved with four-wheel vehicle or a truck loaded with 10 tons, and can usually be obtained by way of purchase from the quarry businesses. Table II.9 displays the quantity of excavation and embankment works, while quantity for the Quarry site, borrow pit and disposal area are shown in Table II.10 and Figure 2.4. Table II.9 No. Section 1 2 3 4 5 6 Cikampek-Kalijati Kalijati-Subang Subang-Cikedung Cikedung-Kertajati Kertajati-Sumberjaya Jumberjaya-Palimanai Total Excavation and Embankment Work Length (Km) Volume of excavation (m3) 27.05 2,611,500.00 11.20 2,705,000.00 911,000.00 28.70 990,000.00 18.90 _ 16.10 – 14.45 116.40 7,217,500.00 Excavated material (m3) Embankment Imported Requirement Embankment (m3) (m3) 1,512,900.00 2,453,500.00 573,300.00 891,000.00 – – 2,320,900.00 2,202,000.00 3,012,000.00 2,449,000.00 1,891,000.00 1,584,000.00 Disposal (m3) _ _ 2,438,700.00 1,558,000.00 1,891,000.00 1,584,000.00 290,600.00 503,000.00 91,100.00 99,000.00 5,430,700.00 13,458,900.00 7,471,700.00 983,700.00 Percentage of Disposal (%) 11.13 18.60 10.00 10.00 Source: FED Consultant Team, 2007 EIA II-15 Table II.10 No. 1 2 3 4 5 6 7 8 9 10 11 12 13 Location of Quarry, Borrow Pit and Disposal Area Quarry Sukatani, Cipinang, Cihuni Cibodas Cileuleuy Cimalingping Cikandang Sanca Tonjong Gn. Tempuk Weraganti S. Cikeruh Leuwimunding Borrow Pit Cipinang Cibodas Cikandang Sanca Leuwimunding Disposal Area Ds. Kertamukti, Purwakarta Ds. Karangmukti, Subang Ds. Batusari, Subang Ds. Sumurbarang, Subang Ds. Cikawung, Indramayu Ds. Palasah, majalengka Ds. Sukawangi, Majalengka Ds. Ciwaringin, Cirebon Source: FED Consultant Team, 2007 Category C type minerals that exist include among others: - Coarse Aggregate Coarse aggregate materials often found in the district, in Purwakarta, Subang, Majalengka and Cirebon. In general, these aggregates have a good quality. Stone-breaking machines are found in many locations, except in Cihuni, Cimalingping, Cikandang, Gn. Tempuk, Tonjong and Weragati where it is dug by hand. - Fine Aggregate Similar with course aggregates, fine aggregate are also encountered in 4 districts. Most of the fine aggregate processing uses machines, except in Cihuni, Cimalingping, Cikandang, Gn. Tempuk, Tonjong and Weragati where it is dug by hand. - Soil Embankment This material is mostly located in areas close to Cirawat Palimanan and Subang (approximately 5 million m3). It is also available in the area of Subang namely Cibodas, Cileuleuy, Cikandang and Python (about 3.45 million m3), and near Purwakarta namely Cipinang (about 250,000 m3). EIA II-16 7). Construction Works for Roads and Pavement Layer Pavement type specified in Palimanan Cikampek toll road can be explained as follows: a. The main road, ramp and access is rigid pavement and flexible pavement. For rigid pavement, the road is planned to consist of: • Base Course / Aggregate A: 25 cm • Lean Concrete layer: 10 cm • Concrete layer: 30 cm For flexible pavement, the road is planned as follows: • Sub Base: 40 cm • Base Course / Aggregate A: 20 cm • ATB Layer: 15 cm • Asphalt Binder Course Layer: 5 cm • Asphalt Concrete layer: 5 cm b. Shoulder of the main road, ramp and access is a flexible pavement (flexible pavement) which is planned to consist of: • Base Course / Aggregate A: 55 cm • Layer ATB: 10cm Implementation of pavement layers work will be as follows: a. Preparation of base course Covers the implementation of a special foundation layer with or without a binder. Before overlaying concrete, the subgrade or sub base and cross-sectional shape density shall be checked. Layer beneath the concrete should always be free from foreign objects, remnants of concrete and other debris. b. Pavement layers Work, including: - Installation of longitudinal and transverse connection - Installation of spokes (dowel) and coating trellis (dowel coating) - Installation of reinforcement - Stirring the transport of concrete and concrete mixture - Casting - Overlaying - Solidified - Completion end, forming a surface texture of the fire edge. EIA II-17 c. Care and Maintenance After the final settlement is completed and the final layer evaporates from the surface or immediately after sticking with the concrete does not happen, then the entire surface of the concrete should be immediately closed and maintained. The period of treatment will be carried out for 28 days, but this time can be shortened if the 70% compressive strength or flexural concrete can be achieved by adding substances earlier. d. Protection of finished pavement Pavement that has been completed and its equipment must be protected from general traffic through traffic enforcement. This protection includes the provision of personnel to regulate traffic and to install and maintain warning signs, lights, barriers, and so forth. 8). Drainage Works • Crossings with rivers and creeks to flood return periods calculated 50s. In the existing flow is maintained wet cross-sectional shape of the existing flow with the following criteria: • River / tributary width greater than or equal to 25 m made the bridge construction. • River / tributary width of less than 25 m is made box culvert. • For irrigation canal culverts created a customized with existing capacity. • Inundation caused by road construction will be made to flow toward the side channel of the river nearby. EIA II-18 EIA II-14 Making of the drainage channels on the Cikampek-Palimanan toll road includes: 1. Cross drain installed every 500 m distance, with the construction of the sewer diameter of 1:00 m. 2. Side channel of the soil material with a trapezoidal geometry. For the steep terrain made construction of stone masonry and waterfall times when needed. 3. Median tract of land covered with grass material with curved geometry parabola fitted with culverts he 0.60m towards the side channel. These channels are made in the area superelevation. As a whole list of security also includes the drainage crossing irrigation channels for each section can be seen in Table II.11 until 2:20 the following Table. Table II.11 List of Crossing Drainage on Section I Kab. Purwakarta No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Name Drain Canal Drain Canal Drain Canal Ciherang River Drain Canal Drain Canal Drain Canal Drain Canal Cilandak River Drain Canal Drain Canal Drain Canal Drain Canal Drain Canal Cilamaya River Station (STA) Crossing 91 + 805 93 + 512 94 + 285 95 + 006 95 + 258 96 + 180 97 + 175 98 + 040 99 + 030 99 + 650 100 + 431 100 + 634 100 + 879 101 + 494 101 + 902 Type Pipe Culvert Pipe Culvert Box Culvert Bridge Box Culvert Box Culvert Box Culvert Box Culvert Bridge Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Bridge Source: Planning Consultant (PT.MCI) 2007 EIA II-14 Table II.12 No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 List of Crossing Drainage on Section I Kab. Subang Name Drain Canal Irr.+Village road Cisiluman River Drain Canal Kalijati River Drain Canal Pakuharja River Drain Canal Cicadas River Drain Canal Drain Canal Cibeunying River Cijengkol River Cibeuleutok River Drain Canal Drain Canal Drain Canal Drain Canal Drain Canal Cibuang River Cibuang River Drain Canal Drain Canal Ciburangrang River Drain Canal Drain Canal Drain Canal Drain Canal+Ped.Acces Drain Canal Ciracas River Drain Canal Irr+Ped.Acces Kalijambe Pembawa Kalijambe Pembuang Drain Canal Station (STA) Crossing 102 + 658 103 + 389 104 + 304 104 + 673 105 + 009 105 + 292 106 + 073 106 + 290 106 + 652 107 + 125 107 + 382 107 + 575 107 + 779 107 + 905 108 + 708 108 + 735 109 + 120 109 + 161 109 + 890 109 + 950 110 + 175 111 + 015 111 + 630 111 + 665 111 + 742 113 + 010 113 + 068 114 + 013 114 + 360 114 + 432 115 + 275 115 + 314 116 + 350 116 + 714 117 + 667 Type Pipe Culvert Box Culvert Box Culvert Box Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Pipe Culvert Bridge Bridge Box Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Source: Planning Consultant (PT.MCI) 2007 EIA II-15 Table II.13 No. 1 2 3 4 5 6 7 8 g 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 EIA List of Crossing Drainage on Section II Kab. Subang Nama Sungai /Alur Drainase/ Irigasi Station (STA) Crossing Irr. canal 118 + 541 Cicongek River 118 + 579 Drainage+Ped. Access 120 + 108 Cilarangan River 120 + 224 Cibodas River 120 + 624 Irr. canal 120 + 854 Cigintung River 120 + 912 Aquaduct Irr. 121 + 160 Drain Canal 121 + 464 Drain Canal 122 + 402 Cibening River 122 + 745 Irr.canal + insp.road 123 + 250 Ciasem River 123 + 458 Irr. Canal 123 + 696 Sampan River 124 + 227 Drain Canal 124 + 542 Irr. canal 124 + 813 Drain Canal 124 + 930 Irr. canal 125 + 134 Drain Canal 125 + 373 Irr. canal 125 + 584 Drain Canal 125 + 666 Irr. canal 125 + 712 Irr. canal 125 + 840 Cidahu River 126 + 021 Cipicung River 126 + 313 Irr. canal 126 + 716 Drain Canal 127 + 065 Drain Canal 127 + 140 Irr. canal 127 + 324 Cipejeuh River 127 + 510 Cigaduh River 127 + 740 Irr. canal 128 + 040 Irr. canal 128 + 253 Drain Canal 128 + 459 Irr. canal 128 + 785 Drain Canal 128 + 876 Irr. Canal 129 + 046 Source: Planning Consultant (PT.MCI) 2007 Type Bangunan Pipe Culvert Box Culvert Box Culvert Box Culvert Bridge Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Bridge Pipe Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert II-16 Table II.14 List of Crossing Drainage on Section III Kab. Subang Name No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 24A 25 26 27 28 28A Station (STA) Crossing Cigede River Drain Canal trr.+Canal Irr.+Canal Irr.+Canal Irr.+Canal Drain Canal Cikadeuplak R+Ped.Acc Irr.+Canal Handiwung R+Ped.Acc Drain Canal Drain Canal Drain Canal Irr.+Canal Drain Canal Drain Canal Cipucung R+Ped.Acc Irr.+Canal Cibeureum River Irr.+Canal Cibogo River Irr.+Canal Drain Canal Drain Canal Cilamatan River Drain Canal Drain Canal Drain Canal Cibalakuya River Cipunegara River 129 + 675 129 + 887 130 + 059 130 + 085 130 + 231 130 + 261 130 + 429 130 + 551 130 + 756 130 + 904 131 + 357 131 + 830 132 + 265 132 + 346 133 + 034 133 + 270 134 + 472 134 + 522 135 + 016 135 + 154 136 + 278 136 + 983 138 + 043 138 + 236 138 + 810 139 + 285 140 + 163 140 + 467 141 + 654 142 + 350 Type Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Bridge Box Culvert Pipe Culvert Pipe Culvert Box Culvert Bridge Source: Planning Consultant (PT.MCI) 2007 EIA II-17 Table II.15 No. 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 EIA List of Crossing Drainage on Section III Kab. Indramayu Name Station (STA) Crossing Cipapan River 143 + 716 Cikole River 144 + 059 Drain Canal 144 + 588 Cicadas River 144 + 985 Drain Canal 145 + 331 Cibubuan River 145 + 932 Drain Canal 146 + 021 Cikandung River 146 + 350 River 146 + 826 Cibiuk River 148 + 130 Drain Canal 150 + 440 Ciburial River 150 + 558 Drain Canal 151 + 098 Cipancu River 152 + 500 Drain Canal 152 + 676 Cipahit River 154 + 091 Drain Canal 154 + 401 Drain Canal 154 + 598 Drain Canal 154 + 871 Drain Canal 155 + 070 Drain Canal 155 + 260 Cilalanang River 155 + 702 Cikole River 156 + 280 Drain Canal 156 + 488 Drain Canal 157 + 735 Drain Canal 157 + 950 Drain Canal 158 + 209 Source: Planning Consultant (PT.MCI) 2007 Type Box Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Bridge Box Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Box Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert 3 ipe Culvert Box Culvert Pipe Culvert Box Culvert II-18 Table II.16 List of Crossing Drainage on Section IV Kab. Indramayu Name No. 1 2 3 4 5 6 7 8 9 10 11 12 13 Drain Canal Drain Canal Drain Canal Drain Canal Drain Canal Drain Canal Cipondoh River Drain Canal Drain Canal Drain Canal Drain Canal Ciluncat River Drain Canal Station (STA) Crossing 158 + 500 158 + 691 158 + 967 159 + 015 159 + 188 159 + 430 159 + 500 159 + 707 159 + 930 160 + 225 160 * 425 160 + 578 161 + 132 Type Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Source: Planning Consultant (PT.MCI) 2007 Table II.17 No. 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 EIA List of Crossing Drainage on Section IV Kab. Majalengka Name Cipanas River Drain Canal Drain Canal Drain Canal Drain Canal River Drain Canal Drain Canal Drain Canal Drain Canal Drain Canal Kepuh River Drain Canal Drain Canal Drain Canal River Drain Canal Cuyu River 1 Cuyu River 2 Cuyu River 3 Cidudut River Drain Canal Drain Canal Drain Canal Drain Canal Station (STA) Crossing 161 + 500 162 + 183 162 + 660 162 + 886 163 + 186 164 + 140 164 + 425 164 + 600 165 + 480 166 + 188 166 + 600 167 + 062 167 + 400 170 + 245 170 + 600 171 + 610 172 + 932 173 + 857 173 + 992 174 + 334 175 + 165 175 + 355 176 + 290 176 + 495 176 + 697 Type Bridge Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Culvert Bridge Box Culvert Box Culvert Box Culvert Box Culvert II-19 Source: Planning Consultant (PT.MCI) 2007 Table II.18 No. List of Crossing Drainage on Section V Kab. Majalengka Name Station (STA) Crossing 1 Cilamaning River + Ped. Acces 177 + 890 2 Irrigation Canal 178 + 159 3 Lebak River+Ped. Acces 178 + 229 4 Irrigation Canal Cilutung 179 + 064 5 River+Ped. Acces 179 + 692 6 Irrigation Canal 179 + 930 7 Irrigation Canal 180 + 260 8 Cimanuk River 180 + 700 9 Drain Canal 180 + 925 10 Cicadas River 181 + 652 11 Irrigation Canal 182 + 180 12 Drain Canal 182 + 710 13 Cibuluh River 183 + 235 14 Cilutung Canal+lns. Road 184 + 802 15 Irrigation Canal 185 + 345 16 Irrigation Canal 185 + 672 17 Irrigation Canal 185 + 800 18 Irrigation Canal 186 + 180 19 Irrigation Canal 186 + 478 20 Irrigation Canal 186 + 715 21 Irr. Canal+Ped. Acces 186 + 975 22 Cibogor River 187 + 075 23 Irrigation Canal 187 + 345 24 Ciranggon River 187 + 750 25 Irrigation Canal 188 + 385 26 Irrigation Canal 188 + 480 27 Irrigation Canal 189 + 020 28 Irrigation Canal 189 + 345 29 Cibunut River 190 + 226 30 Drain Canal 190 + 820 31 Cikeruh River 191 + 060 32 Drain Canal 191 + 910 33 Drain Canal 191 + 960 34 Irrigation Canal 192 + 111 35 Irrigation Canal 192 + 355 35A Drain Canal 192 + 570 36 Irrigation Canal 192 + 680 37 Irrigation Canal 193 + 050 Source: Planning Consultant (PT.MCI) 2007 EIA Type Box Culvert Box Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Bridge Box Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Bridge Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Box Culvert Bridge Box Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Bridge Box Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Pipe Culvert II-20 Table II.19 No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 17A 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 List of Crossing Drainage on Section VI Kab. Majalengka Name Irr.Tertiary canal S.Cibayawak Irr.Teriary canal Irr.Primary canal Ireng+ped. Drain canal S. Cikawangi Irr.canal Irr.canal Irr.canal Irr.canal Ciporang Kecil Cibugang Irr.Teriary canal BLK1.KI.2 Irr.Teriary canal BLK1.KI.1 Irr.Primary canal Lojikobong Drainage canal Irr.canal Swampy /rawa Irr.canal Drainage canal Irr.canal Irr.canal S. Ciranggon Irr.Secondary canal Muncang Irr.Supply canal Cidenok Irr.Secondary canal Walini S. Cikawung S. Cikadondong Irr.Teriary canal JS.2.Ki.A1 Irr.Kwarter canal Irr.Teriary canal JS.2.Ki.A2 Irr.Teriary canal JS.2.Ka Irr.Primary canal Jasem Station (STA) Crossing 193 193 194 194 194 194 194 195 195 195 195 195 195 195 195 196 196 196 196 196 196 197 197 197 197 197 198 198 199 199 199 199 199 + 333 + 542 + 066 + 125 + 682 + 852 + 903 + 047 + 163 + 216 + 402 + 536 + 655 + 848 + 942 + 144 + 304 + 465 + 586 + 648 + 827 + 208 + 575 + 729 + 844 + 982 + 389 + 758 + 408 + 556 + 561 + 782 + 928 Type Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Bridge Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Bridge Source: Planning Consultant (PT.MCI) 2007 EIA II-21 Table II.20 No. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 List of Crossing Drainage on Section VI Kab. Cirebon Name Rawa Rawa S. Ciwaringin Irr.canal Tersier Irr.canal Tersier S. Cikaranti Irr.canal Tersier KM.6 Irr.canal Tersier KM.7 Irr.canal Tersier KM.2 Irr.Sec. canal Kembang Irr.canal Tersier S. Ciseng S. Winong Drain canal Irr.canal Irr.canal Irr.canal Tersier Irr.canal Tersier S. Caplek Drainage canal Irr.canal Irr.canal Tersier S. Wadas Irr.canal Drain canal (As.Wadas) Irr.canal Station (STA) Crossing 200 + 200 + 201 + 201 + 202 + 202 + 202 + 203 + 203 + 203 + 204 + 204 + 205 + 205 + 205 + 205 + 205 + 205 + 206 + 206 + 206 + 206 + 206 + 206 + 206 + 207 + 300 450 200 881 363 526 809 120 525 833 253 454 237 384 472 596 744 806 038 257 387 449 658 743 867 012 Type Box Culvert Box Culvert Bridge Box Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Box Culvert Box Culvert Bridge Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Box Culvert Pipe Culvert Pipe Culvert Pipe Culvert Source: Planning Consultant (PT.MCI) 2007 9) Bridge Construction Work The number of bridges crossing the river and canal is 17 pieces, and there will be only one railroad crossing at STA 1992 +258. Short bridge spanning 25 m across the river and Cidudut Cilandak, while the longest 360 m across the river CIPUNAGARA. All girder bridge will use a beam of concrete with a maximum span length of 30 m, except the bridge on the river Ciasem which will use steel with 70m length. The location of the bridge can be seen in Table II:21 below. EIA II-22 Table II.21 No. Sta. Location of Bridges River 1 95+006 Ciherang 2 99+030 Cilandak 3 107+902 Cil maya 4 120+624 Cibodas 5 123+375 Ciasem 6 138+810 Cilamatan 7 142+350 Cipunagara 8 146+350 Cikandung 9 161+500 Cipanas 10 175+165 Cidudut 11 180+700 Cimanuk 12 184+802 Kanal Cibitung 13 187+750 Ciranggon 14 191+062 Cikeruh 15 199+925 Kanal Cikadondong 16 201+134 Ciwaringin 17 205+257 Winong Source: Planning Consultant (PT.MCI) 2007 Width 90 25 90 100 250 90 360 90 125 25 315 25 50 75 25 150 30 The types of work to be performed within the framework of the construction of bridges, will include among others: a. Foundation Foundations to be used for the overpass and underpass bridges on this project are pile foundation and pillar drill, while for the box culvert foundation directly elected. Selection of foundation types such as subgrade under buildings that are planned to be built Overbridge / Underbridge has no bearing capacity is sufficient to bear the burden upon it, while the location of land which had hardware capable of supporting capacity building and carrying heavy weights will work on it lies very deep. Round pile diameter φ 0.40, φ 0.50, and φ 0.60 and φ pole Drill diameter 0.8, φ 1.0. The number of piles under the columns / abutment that will be used to load previously planned permanent and temporary expenses. To join the pile bearing capacity obtained from each pile / Drilling requires a footing which covers the entire pole-piling / Drill under the column / abutment. The thickness of the footing is calculated based on the load received and distributed to each pile. b. Column The column serves as a buffer from the building above. The diameter of the column is adjusted with the load carried by the column. EIA II-23 Method of manufacturing operational column is as follows: • Making the framework of helpers to ironing column • Ironing column • Installation of formwork • Casting by using a concrete pump • Vibrating with a vibrator • Demolition formwork c. Pier head Pier head is located above the column, served as a pile of beams overpass / underpass. Long pier head tailored to the needs of the width of the highway. Method of manufacturing operations pier head is as follows: • Installation of scaffolding (scaffolding) • Installation of basic formwork scaffolding that supported • Installation of the side of the formwork • Casting pier head done with the help of concrete pump • Demolition formwork d. Girder Girder is a longitudinal girder which rested on the pierhead. Girder is made of concrete pre-tense. Size of girder is adjusted to the distance between as pierhead. Material to consist of concrete girder and stand with established specifications. Method of manufacturing operations girder outline is as follows: • Base form mounted on the floor • Pembesian • Installation strand • Installation of side and end forms Form • Casting • Tension strand • Unloading the base form Girder that was ready then transported to the project site. Girder was raised to the pierhead with previous crane mounted on the pierhead bearings as bearing placement. EIA II-24 e. RC Plate and Slab RC Plate as a tool for casting concrete floors overbridge / underbridge (slab). Order slab work as follows: • Installation of RC plate • Skeletoning/Ironing • Casting After the concrete dries concrete surface smoothed by using a concrete finisher. f. Abutment Abutment is part the bridge head over bridge / under bridge. Absolute structural stability should be reviewed in order to know and it is believed that the structure will be strong and do not move because of work load on the structure. Especially in the Palimanan Cikampek toll bridge at the intersection with Railway Jakarta-Bandung around Sta.1992 +258 (between km 88 +300 and Km 88 +400 Jakarta-Cikampek Toll road), methods to be used in the implementation are as follows: - Bore pile foundation work, installation of bore pile is done by adjusting train schedules (see Figure 2.5). - Work foundation (footing), before digging the soil for footing on the edge (circumference excavation) installed sheet pile for protection against landslides during the work carried out (see Figure 2.6). - Work column and pier head, installation of scaffolding done outside the free zone which is determined by the requirements of PT. KAI (see Figure 2.7). - Beam girder installation work: - Installation of beam girder done on time for rail is not crossed by the train. - Method of installation there are 2 kinds (see Figure 2.8), namely: o Launching Method, pulling girder from the opposite side by using rails and cranes. o Erection method directly uses 2 cranes on two opposite sides. 10). Underpass / Overpass (UP / OP) Work This toll road alignment plan will cut the public road a lot, so that needed overpass underpass are 65 pieces 20 pieces. Work includes: a. Development underpass structure / overpass b. Type, length and number of foundation / pile which will be used in the structure of underpass / overpass, EIA II-25 c. The type, capacity and number of equipment used. d. Method of execution of work underpass / overpass. Detail for the crossing of roads, both national roads, district roads more are presented in Table II:22 to 2:26. EIA II-26 Figure II.3 Bore Pile Construction Method EIA EIA 24 II - 37 Figure II.4 Footing / Foundation Method Source: FED Consultant Team, 2007 ANDAL EIA 25 II - 38 Figure II.5 Installation of Scaffolding Column and Pier Head Source: FED Consultant Team, 2007 EIA ANDAL 26 II - 39 Figure II.6 Girder Beam Installation Method Source: FED Consultant Team, 2007 EIA EIA 27 II - 40 Table II.22 Location and Type of Crossing Road Construction In Kab. Purwakarta No. Station Road Status Type of Construction 1 92+920 National Road OB 2 94+670 Village Road OB-3 3 95+975 Village Road OB-3 4 97+689 Municipality Road OB-2 a 5 98+500 Village Road 6 100+000 Village Road 7 101+100 Village Road OB-3 Source: Planning Consultant (PT.MCI) 2007 Table II.23 EIA Location and Type of Crossing Road Construction In Kab. Subang No. Station 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 103+418 104+044 106+205 107+325 109+518 113+625 114+805 116+116 116+950 117+532 118+425 119+070 121+100 121+825 122+585 123+855 124+831 126+180 127+350 128+286 128+550 129+122 130+012 Road Status Village Road Municipality Road Village Road Municipality Road Municipality Road Municipality Road Village Road Village Road Municipality Road Interchange Village Road Municipality Road Village Road Village Road Village Road Municipality Road Village Road Municipality Road Village Road Municipality Road Village Road Interchange Municipality Road Type of Construction BC OB2A OB-3 OB-2 OB-2 OB-2 OB-3 OB-3 OB-2A OB-5 OB-3 OB-2 OB-3 OB-4 OB-4 OB-2 UB OB-2 OB-4 OB-2A BC OB-5 OB-2A II-25 Type of Constructi No. Station Road Status on 24 131+575 Village Road OB-3 25 133+100 Village Road BC 26 133+566 Village Road OB-3 27 134+735 Village Road OB-3 28 136+135 Municipality Road OB-2A 29 136+870 Village Road BC 30 138+433 Village Road OB-3 31 139+389 Village Road OB-3 32 139+806 Municipality Road OB-2 33 140+860 Village Road OB-3 Source: Planning Consultant (PT.MCI) 2007 Table II.24 Table II.25 EIA Location and Type of Crossing Road Construction In Kab. Indramayu No. Station 1 2 3 4 5 6 7 8 9 142+736 144+800 147+863 149+711 153+453 154+250 155+480 158+888 160+845 Road Status National Road Village Road Village Road National Road Village Road Village Road Village Road National Road Village Road Type of Constructi on OB-1 OB-4 OB-3 OB-1 OB-3 OB-3 OB-3 OB-1 OB-4 Location and Type of Crossing Road Construction In Kab. Majalengka No. Station Road Status 1 2 3 4 5 6 7 8 163+536 164+651 165+975 167+675 169+600 171+060 172+021 172+851 Village Road Village Road Village Road Village Road Municipality Road Village Road Village Road Type of Construction OB3 OB3 OB-3 OB-3 OB-2 OB-3 OB-3 Frontage from Sta II-26 No. Station 9 10 11 12 13 14 15 16 17 18 19 20 21 22 173+612 176+655 177+488 179+002 182+500 184+802 187+281 188+250 189+070 190+673 191+550 192+712 0+640 0+850 23 1+465 24 25 26 27 28 29 30 31 194+698 195+289 195+938 196+425 197+289 198+191 199+446 200+030 Table II.26 No. Road Status Municipality road Village Road Village Road National road Municipality road Canal+inspection road National road Village road Municipality road Municipality road Village road Municipality road Pathway (Interchange Kertajati) Village road (Interchange Kertajati) Village road Municipality road Village road Village road Village road Village road Village road Municipality road Type of Construction 172+850 - Sta 173+000 OB-2 BC BC UB UB UB UB OB-3 OB-2 UB BC OB-2 BC (village road) OB-3 BC OB-2 BC OB-3 OB-3 OB-3 OB-3 UB Location and Type of Crossing Road Construction In Kab. Cirebon Station 1 200+030 2 200+716 3 201+535 4 202+123 5 205+776 6 206+418 11) Inter Change (IC) Work Road Status Municipality road Municipality road Municipality road Municipality road Village road Municipality road Type of Construction UB BC UB UB OB3 OB-2 Interchanges to be built on Palimanan Cikampek toll road are 7 pieces: 1C. Cikopo, kalijati 1C, 1C Subang, 1C Cikedung, 1C Kertajati, 1C Sumberjaya, 1C, Palimanan. EIA II-27 Work includes: - The type of construction that will be used. - Construction materials and dimensions of construction elements. - The type, capacity and number of equipment used. - Method of construction work. 12). Making highway facilities, such as: a. Making People Crossing Bridge (JPO) Suitable placement is required JPO every 1 km of the fruit outside the crossing road (OP / UP and BC). The number of JPO to be built are 20 pieces and placed in a spread in locations such as in Table II:27 below. Table II.27 Location of People Crossing Bridge (JPO) No Sta. 1 98+000 2 103+150 3 108+075 4 113+750 5 119+850 6 122+300 7 126+400 8 127+900 9 132+000 10 169+750 11 172+300 EIA Sub-district/Village Sub-district Campaka Village Cisaat/Cimahi Sub-district Campaka Village Karangmukti/Sukamukti Sub-district Cipeundeuy Village Sukasari Sub-district Kalijati Marangmang Sub-district Purwadadi Village Ciruluk Sub-district Purwadadi Village Batusari Sub-district Pagaden Village Sumurgintung Sub-district Pagaden Village Jabong Sub-district Pagaden Village Gembor/Mayasari Sub-district Kertajati Village Palasah Sub-district Kertajati Village Palasan II-28 No Sta. 12 191+050 13 196+050 14 197+400 15 198+350 16 201+300 17 203+300 Sub-district/Village Sub-district Palasah Village Cisambeng Sub-district Sumberjaya Village Bagaswetan Sub-district Sumberjaya Village Bagaswetan Sub-district Sumberjaya Village Panjalunlor Sub-district Ciwaringin Village Ciwaringin Sub-district Ciwaringin Village Galagamba Source: Planning Consultant (PT.MCI) 2007 b. Construction of tollgates of 28 units. Tollgates will be built at each site entrance or exit of the motorway while office buildings will be built in Cikampek c. Installation of security fencing along the highway right-left d. Toll Barrier Installation of 2 pieces (in Cikampek and Palimanan) e. Construction of Rest Area To give the user convenience, there will be provided 8 rest area units consisting of 4 pieces of Type A and 4 pieces of Type B. The location of each place of rest can be seen in Table II:28 below. Table II.28 No Location of Rest Area Location Area (Ha) Type Description 1 112 + 400NortSide 200x100 = 2 ha 110 + 900 South Side 201x100 = 2ha B Cutting area (± 4m) Cutting area (± 4m) 2 143 + 000 Nort Side 250 x 160 = 4 ha 139 + 600 South Side 251x160 = 4 ha A Cutting area (± 4m) Cutting area (± 5m) 3 160 + 200 Nort Side 200 x 100 = 2 ha 153 + 000 South Side 201 x 100 = 2 ha B Cutting area (± 4m) Cutting area (± 3m) 4 186 + 000 Nort Side 250x160 = 4 ha 184 + 000 South Side 251x160 = 4 ha A Fill area (< 0.5 m) Fill area (< 1 m) Source: Planning Consultant (PT.MCI) 2007 EIA f. II-29 Construction of Toll Plaza (including the Office of Cikampek-Palimanan toll road) will be in Purwakarta. g. Installation of road markings and traffic signs. h. Installation of street lighting including the making of fence, and landscaping. 3. Post-construction Stage 1). Operation of Toll Road With the operation of Palimanan Cikampek toll road, it is estimated to be traversed by vehicles whose numbers continue to rise. It also will operate rest areas and amenities such as parking lot, toilets, canteens, shops, vehicle service areas, and so forth, including the operation of the Palimanan Cikampek toll road Office. At the time of operation the toll road workers will include computer operator, for the withdrawal of a ticket out of the highway, crane officers, ambulance teams, technical staff, security patrols and security and hygiene staff members. These numbers will increase with the improved highway service. 2) Toll Road Maintenance These activities include maintenance of the highway pavement layers, by overlay, as well as maintenance of the structure of the bridge, overpass / underpass, interchange and auxiliary buildings (facilities) such as drainage, safety fencing and plants and landscape, and the RUMIJA. Highway maintenance activities include: 1. Routine Maintenance Road maintenance carried out every day / week / month and non-structural nature. (A) Field pavement - Patching holes / patching asphalt roads - Closure of cracked concrete roads. (B) Area bridges - Maintenance and repair of tunnels or bridges. - Maintenance and repair connection expansion. - Maintenance and repair of beams, slabs, walls, and bridge safety fence. (C) Field roads - Maintenance and repair of concrete barrier. - Maintenance and repair guide post, peg kilometers, traffic signs and retaining glare. EIA II-30 - Maintenance and repair RUMIJA fences. (D) Field Drainage - Maintenance and cleaning line (E) Environment Field - Cutting grass at RUMIJA - Striping Shoulder - Maintenance and repair of roads - Cleaning road tot - Maintenance of plants in RUMIJA - Sweeping and trash collection (F) Field Equipment and PJU - Maintenance and repair of work equipment - Maintenance of mechanical and electrical installation - Maintenance and repair PJU 2. Periodic Maintenance Maintenance is carried out to restore the structural strength of the road back to the steady state due to expiration of the life after a predictable time (A) Field Road Pavement - Coating the road again - Scrapping and filling (B) Field Bridge - Replacement of expansion connection - Leveling of the pit bridge (C) Field roads - Painting road markings - Replacement of traffic signs (D) Environmental Affairs - The arrangement of plants in RUMIJA (E) Field equipment and PJU - Replacement of equipment components - Replacement of components PJU EIA II-31 2.3 LINKAGE OF THE PROJECT WITH OTHER PROJECTS IN SURROUNDING AREAS The planed toll road development activities are linked with other activities such as: 1. The presence of Mining Material Type C / Quarry In the vicinity of the study sites, there are some mining activities, quarrying C / quarry, located about 20 Km away. This quarry is also visible in numerous of the surrounding areas. For more details, location of quarry can be seen in Figure 2.4. Given the location of the planned toll road through flat areas and rice fields, the volume of material would require a fairly large pile. To meet this it is required that the source-quarry is operated by other business entities that have a business license. In fulfillment of this material requirement, the project should consider the transport of material from the quarry site to the project site. 2. International Airport Development Plan in Kertajati, Majalengka. An area in Majalengka Kertajati is now established and has received permission from the Minister of Transportation as the location for the construction of the International Airport of West Java (BUB). Determination of this area is through research, both from the aspect of technical feasibility study of aviation operational safety and technical aspects of airport operation study. In terms of physiography, the area that will be used as the airport is at a height of 40 meters above sea level and flat surface is ideal for drainage purposes and the power of the runway. While the wind speed in the last 6 years in the Sub-district Kertajati showed an average of 10 knots, so the landing process can be performed safely throughout the year. Development in Kertajati locations is also in accordance with regional spatial planning and the District of West Java Province Majalengka, including integration with transportation arrangements. For access to transportation to the airport location is supported by the construction of toll roads Cisumdawu (Cileunyi-Sumedang Dawuan) that can connect to the highway Cikacir (Cikampek-Cirebon) on the northern coastline. Construction of two-lane highway segment is expected to be completed before the EIA II-32 development of the airport is finished: As such, Bub later located about 15 km north of the capital district. Duchy, can be reached in just 30 to 45 minutes from Bandung. The city of Cirebon is even closer, so that people and businessmen from the western part of Central Java such as Brebes cab legally use BUB Kertajati for the traffic of people and goods. 3. Islamic School Activities in Babakan Ciwaringin There is a Pesantren (School of Integrated Islamic Education) in the area. EIA II-33 CHAPTER III DESCRIPTION OF ENVIRONMENTAL CONDITIONS 3.1 PHYSICAL AND CHEMICAL COMPONENTS 3.1.1 Climate The Study area is located in the tropical climate with two seasons, dry season and rainy season. Based on the data series for the last 10 years, the climatic parameters in the study area are as follows: the highest monthly rainfall for 10 years in Purwakarta region occurred in January (369 mm) with 16 days of rain and the lowest in July and August (43 mm) with 3 and 1 day of rain. The highest rainfall in Subang area occurred in January with 15 days of rain at 325 mm, and the lowest occurred in August with 26 mm to 1 day of rain. In Indramayu the highest rainfall (288 mm) occurred in March with 24 days of rain and lowest in August (51 mm) with 5 days of rain. In Cirebon the highest rainfall was in January (348 mm) with 19 rainy days and the lowest at 50 mm with 3-day rainfall in August. In Majalengka the highest rainfall of 351 mm with 17 rainy days is in January and lowest in August by 58 mm by 5 days of rain. Indonesian climate is classified based on the number of wet and dry months, where the wet months is the month with a total rainfall of more than 100 mm, while the dry months is the month with a total rainfall of less than 60 mm. From the number of wet and dry months it is given the symbol Q ratio which is the ratio between dry and wet months. From the analysis results obtained by Q to Purwakarta regency for 0.20 including zone B with wet climate conditions, in areas including Subang Q 0.33 zone B with a wet climate, Indramayu Regency with Q 0.30 including zone B with a wet climate, Majalengka regency with a Q value of 0.09 considered Zone A with a very wet climate, Cirebon regency Q value of 0.09 classified as zone A with a very wet climate. Temperature, Wind Direction and Speed Average maximum temperature in the study area ranged between 6.28-30.9oC, while the average minimum temperature ranged between 19.2-21.8oC. Average wind speed in the study area ranged from 3.4-4.6 km / hour with general wind direction EIA III-1 relative to the West, East, Northwest, and Southeast. a. Air Quality To determine the air quality in the area around the planned Palimanan Cikampek toll road site in the Andal study, direct measurements were taken at 10 locations on 20 September to 3 October 2007, which in general show air quality parameters are still below standard compared with Government Regulations (PP) No. Rl. 41 of 1999. The measurement results are presented in Table III.1. Table III.1 shows where at certain points such as at the point of sampling locations in Palimanan U10 that is already quite high levels of CO, where the figure had reached 1030 ug/m3, as well as sampling location U8 and U9 is the location of district and subdistrict Ligun Ciwaringin has reached 916 ug/m3. Dust levels are high enough at the sampling point U1 and U9, which reached 90 and 154 ug/m3; this is the case given the sampling locations were in urban areas. b. Noise Table III.2 shows the results of data measuring of air quality sampling at several points along the highway; these sampling activities were carried out to determine the level of noise in the environment around the location of the Palimanan-Cikampek toll road alignment along ± 116.4 km, measured directly in 10 locations. The measurement results appear to in general still be below the standard quality of PP No.41/1999. EIA III-2 Table III.1 Result of Air Quality Measurement in the Project Location No Component Result Unit U1 U2 U3 U4 U5 U6 U7 U8 U9 Quality Standard U10 1 SO2 µg/m3 <26 <26 <26 <26 <26 <26 <26 <26 <26 <26 900 2 CO µg/m3 458 687 458 801 343 572 456 916 916 1030 2.600 3 NO2 µg/m3 130 140 71 78 93 94 36 72 0.1 93 400 4 O3 µg/m3 <7 <7 <7 <7 <7 <7 <7 <7 <7 <7 200 5 HC µg/m3 35 25 33 25 39 <5 <5 <5 35 57 160 6 Debu µg/m3 90 85 46 45 28 23 51 6 51 154 230 7 Pb µg/m3 <0.1 <0.1 <0.1 <0.1 <0.1 <0.1 <0.1 <0.1 <0.1 <0.1 2 Source: Lab. Analysis of Sucofindo, 2007 < = Less than the detection limit indicated Temperature Pressure Humidity Wind Speed Wind Direction Weather EIA : 29 °C : 759mmHg : 61 % : 1 - m/s : East : Bright Notes: U1 = Village Cinangka, Sub-district. Bungursari Regency. Purwakart U2 = Village Cimahi, Sub-district. Cempaka Regency. Purwakarta U3 = Village Wanakerta, Sub-district. Purwadadi Regency. Subang U4 = Village Wanasari, Sub-district. Cipunegara Regency. Subang U5 = Village Cikawung, Sub-district. Trisi Regency. Indramayu U6 = Village Kertawinangun, Sub-district. Kertajati Regency. Majalengka U7 = Village Jatisuro, Sub-district. Jatiwangi Regency. Majalengka U8 = Village legal Aren, Sub-district. Ligun Regency. Majalengka U9 = Village Babakan, Sub-district. Ciwaringin Regency. Cirebon U10 = Village Pegagan, Sub-district. Palimanan Regency. Cirebon III-3 But the location is above the village of Cinangka standard of quality of 55.9 dB (A) and at locations Wanakerta Village, District Purwadadi, Subang regency (STA 117 +000) of 76.3 dB (A) compared with PP Rl No.41 / 1999 with the allotment of residential areas by 55 dB (A). This is due at the time of measurement is affected by the activities of motor vehicles. c. Surface/ River Water Quality The quality of surface water was observed in river water quality around the site of the planned Palimanan-Cikampek toll road. Measurement of surface water quality conducted on 10 locations is shown in Table III.3. Then the results were compared with quality standards according to Government Regulation No. 82/2001. In general, surface water quality parameters are still below standard PP No.82/2001. Overall quality of river water is still in good condition, when compared with quality standard, but some rivers such as Cipanas river and Cipunegara river, have a value of chloride and total density that is quite high. Likewise with coli bacterial contamination, almost every river in the sampling is contaminated with coli bacteria, such as Cibodas river where coli contamination this as high as 42.000/100 ml; 25.000/100 ml in Cilmaya river, 1.300/100 ml in Ciherang river. This condition indicates that the aquatic environment, particularly surface water, has been polluted by domestic waste, especially waste of human excrement, so that the possibility of spread of disease through the medium of water is probable. EIA III-4 Table III.2 Noise Measurement Result in the Project Location Result No 1 Unit dB(A) K1 K2 K3 K4 K5 K6 K7 K8 K9 K10 55.9 54.2 76.3 53.6 54.6 57.7 54.3 46.1 44.2 50.2 Quality Standard 55 Source: Analysis of Sucofindo, 2007 Notes: K1 = Village Cinangka, Sub-district. Bungursari Regency. Purwakarta K2 = Village Cimahi, Sub-district. Cempaka Regency. Purwakarta K3 = Village Wanakerta, Sub-district. Purwadadi Regency. Subang K4 = Village Wanasari, Sub-district. Cipunegara Regency. Subang K5 = Village Cikawung, Sub-district. Trisi Regency. Indramayu K6 = Village Kertawinangun, Sub-district. Kertajati Regency. Majalengka K7 = Village Jatisuro, Sub-district. Jatiwangi Regency. Majalengka K8 = Village legal Aren, Sub-district. Ligun Regency. Majalengka K9 = Village Babakan, Sub-district. Ciwaringin Regency. Cirebon K10 = Village Pegagan, Sub-district. Palimanan Regency. Cirebon EIA III-5 Table III.3 Measurement Result of Surface Water/ River in the Project Location No Parameter 2 Physical: Temperature at lab Dissolved Solid 3 Suspend Solid 1 Unit Measurement Result for Each River SI 82 S3 S4 S5 S6 S7 S8 S9 S10 29.9 30.1 29.5 30.5 30.1 28.2 30.2 29.6 30.5 29.8 mg/L 218 292 98 123 257 151 749 289 497 216 mg/L 15 18 73 21 10 61 14 0 13 3 o C Quality Standard 50 Notes: *) Standard Methods, 21st Edition 2006, APHA-AWWA-WEF N/T = Not tested as per client request #) Requirement means = Threshold limit value of parameter as tested comply with Government Regulation of Republic Indonesia No. 82/2001 Water quality classification specified as 4 (four) class i.e First class (I) : Raw water which can be used for raw drinking water, and / or similar usage Second class (II) : Raw water which can be used for recreation infrastructure, river fishery cultivation, Animal husbandry, irrigation and / or similar usage Third class (III) : Raw water which can be used for river fishery cultivation, animal husbandry, irrigation and / or similar usage Fourth class (IV) : Raw water which can be used for irrigation and / or similar usage ϕ) Based on radioactivity analysis result by National Nuclear Energy Agency / BAT AN - sub contracting. S1 = River Ciherang S2 = River Cilamaya S3 = River Cibodas S4 = River Ciasem S5 = River Cilamatan EIA S6 = River Cipunegara S7 = River Cipanas S8 = River Cimanuk S9 = Kanal Ciliwung S10 = River Ciwaringin III-6 d. Shallow Ground Water Quality The observed groundwater quality is the quality of ground water in residential wells around the planned Cikampek-Palimanan toll road; indicator of the quality of ground water that is feared will occur changes in groundwater quality due to construction activities and operations. Measurement of surface water quality was conducted at 10 locations. Results of analysis of ground water quality are shown in Table III.4, and compared with quality standard by the Minister of Health Regulation No. 4167 Menkes / Per / IX / 1990; the results look in general still below standard. From the results compared with the quality standards, the L10 location in the village of Centella asiatica, District Palimanan, it can be seen that the shallow ground water is already visible in color, thus indicating the water has begun to be polluted. Sampling location, L6 in Kertawinangun Village, has dissolved solids that exceed the threshold of 2284 mg / l which is the quality standard of 1.500 mg / lt, so that there is an excess of 784 mg / lt. Levels of nitrate in 5 (five) locations already exceed the threshold, as in L1. L2, L4, L8 and L10, which are found in the largest village location Cikopo-Purwakarta and Palimanan respectively 24.8 mg / l and 31 mg / l, this shows that the region has already started contaminating the water source with domestic waste results from human activity. EIA III-7 Table III.4 No Measurement of Clean Water in the Project Location Parameter Unit L1 L2 L3 L4 L5 Test Result L6 L7 L8 L9 L10 Threshold Limit Value 1 2 Physical : Colour Odour R Co scale 0 6 0 0 0 0 0 0 0 45 50 Odourless Odourless Odourless Odourless Odourless Odourless Odourless Odourless Odourless Odourless Odourles 3 4 5 Taste Turbidity Dissolved Solid NTU mg/L Tasteless 0 96 Tasteless 1.8 204 Tasteless Tasteless Tasteless 0 2.7 0 23 156 305 Tasteless Tasteless Tasteless Tasteless Tasteless Tasteless 0 0 0.23 0 24.0 25 2.284 511 206 234 369 1.500 < = Less than the detection limit indicated Notes: L1 = Deep-Well in Village Cinangka L2 = Deep-Well in Village Cimahi L3 = Deep-Well in Village Wanakerta L4 = Deep-Well in Village Wanasari L5 = Deep-Well in Village Cikawung L6 = Deep-Well in Village Kertawinangun L7 = Deep-Well in Village Jatisuro L8 = Deep-Well in Village Tegal Aren L9 = Deep-Well in Village Babakan L10 = Deep-Well in Village Pegagan EIA III-8 note 3.1.2 Physiography and Geology A. Physiography Broadly speaking, geomorphology and surrounding areas along the CikampekPalimanan Toll Road plan can be divided into the following geomorphological units (see Table III.5): 1) Unit morphology lowlands and river plains, in the form of alluvium with a slope of 0-3%. 2) Unit wavy morphology, formed by young volcanic rocks with a slope of 3-5%. 3) Unit morphology hills and mountains with fine reliefs, formed by young volcanic rocks and sandstone with a slope of 5-15%. 4) Unit morphology hills and mountains with a relief of moderate, formed by tuff, sandy tuff and breccia with a slope of 15-30%. 5) Unit morphology hills and mountains with high relief, formed by sandy tuff, breccia and andesite with a slope of 30-70%. Table III.5 No. Mophology along the planned Toll Road Slope % Morphology Elevation Above Sea Level (m) Litology % of Length Note 1 Lowlands and river 0-3 plains 27.50-95.50 Aluvium, tuf, tufan, breksi volcano 86,94 On the east side, generally as paddy field and plantations 2 Countoured area 3-5 38.50-82.00 Tuf, tufaan and aluvium 7,72 On the east side, as rubber plantations 3 Hill and mountainous w/ low reliefs 5-15 45.50-68.00 Tuf, pasir tufaan dan breksi 3,75 On the west and middle part of the project location 4 Hill and mountainous w/ medium reliefs 15-30 70.00-70.50 Sand rock, tuf and tufaan 1,27 On the west and middle part of the project location 5 Hill and mountainous w/ high reliefs 30-70 90.00100.00 tufaan, breksi and andesit 0,32 On the west side, in the form of protected forest. Source: Geology and Environment Agency of Bandung The average profile for the existing ground conditions along the toll road plan can be seen in Figure 3.1 Overall, the profit is quite bumpy path. The variation of the depth EIA III-9 differences along the path about 80 meters and a maximum of 100 meters above sea level, generally in the northern town of Subang (± Sta. 116 +000) to 20 meters in the eastern coastal plain town of this experiment. For low-lying areas like the Sta. 102 +000, 138 +000 -143 +000, and Sta. 181 +000 including the valleys of the river-river, like River Cimalaya, Cilamatan, Cipunagara, and on the plains of the Cimanuk river reservoirs from the mountains to the south. This river flows on alluvial flood plains reservoir. Cimanuk valley is in the eastern region, the surface elevation rises again and finally fell on the plains east coast city of this experiment. Highlands can be correlated with each of the mountain peaks to the south and forming a lowland that stretches to the north. Figure III.1 Topographical Conditions in the Project Location In the plains area designation in the dominance of residential land and rice fields. While in the residential area there are choppy, paddies, fields and bushes. Overall the location of this toll road plan along 57.900 km (49.91%) is in the area choppy and 58.100 km (50.09%) are in plain blood. EIA III-10 The geology in the area occupied by the flat alluvial river deposits consisting of clay, silt, sand and gravel that are still loose. While the wavy region also occupied other than alluvium deposits tufa stone and clay that had rotted. Coarse-grained rocks are at distances ranging from 10 to 40 km south of the highway alignment. These rocks are highly potential for use as building materials in highway construction. Coarse aggregate exists in some Plered Purwakarta, around town and slightly in Tanjungsiang Brass. Fine aggregate (sand) is located at around Plered Purwakarta, Subang area south of the city and around the city Majalengka. Land urug (for subgrade) located in the south of the town of Subang, about the city and around the city Sumedang Majalengka. Morphological conditions along this highway project consists of five different locations, can be seen in Table III.6. The above table shows that low-lying areas and river banks covering 86.94% of the total length of the highway. At these locations are generally composed of layers of alluvium, tuff, sand tuffaan, breccia, and the rest of widespread volcano. On the other hand, there is only the hill and mountain areas as much as 0.32% and is generally located below the timber area and rejuvenation of forests / plantations. B. Geology In 5 (five) regions to be traversed Cikampek-Palimanan toll road there are several types of rocks (geology), namely: gabbro, Pliocene sedimentary facies, Miocene limestone facies, Pleistocene sedimentary facies, Pleistocene volcanic facies, the old quarter volcano, alluvium volcanic facies, facies Miocene sediments, andesite and alluvium. The geology along the lane toll road plan Cikampek - Palimanan formed by younger rocks to the old rock as follows: 1. River sediment (Qa) consists of clay, silt, sand, mud and gravel, a river sediment composition of Holocene 2. Young volcanic rocks are the result of irreducibly (Qyu): breccia, andesite and basalt lavas, tuffaceous sand, originating from Mount Tampomas lapili (in Bandung LBR) and Mount Cireme. Usually these rocks form the plains or low hills with soil that is gray and reddish yellow. 3. Tuffaceous sandstone, clay and conglomerates (Qv) EIA III-11 Table III.6 Geolofical Formation Age Surrounding the Project Location Geological Age Formation Description Kuarter Aluvium (Qa) Clay, silt, sand and gravel Result of volcano (Qyu) Breccia, andesite, basalt, tuffaceous sand from mountain Ceremai. Holosen Cilamaya (Qv) Plistosen Kaliwangi (Tpk) Pliosen Tersier Subang (Tms) Miosen Tuffaceous sandstone, tuffaceous silt, clay, konglomeret, breccias and fine-grained sand Claystone with tuffaceous sandstone, conglomerate, limestone, and some layers of lignite and lignite. Claystone with marble stones and marble stones are generally dark gray in color Source: Geology Research and Development Center Bandung 4. Formation Kaliwangu (TPK): claystone with tuffaceous sandstone, conglomerate, found local layers of calcareous sandstone and limestone. 5. Subang Formation (TMS): Stone clay with marble inset and marble stones are generally dark gray in color hard, in some places inserted glauconite sandstone is gray. Each type of rock through which the road to) and surrounding area can be seen in Figure III-2 Geological Map Along the Toll Road Plan. The details of the spread of any type of rock along and around Cikampek toll road plan - Palimanan are as follows: Rock Types Along the Toll Road Plan 1. Alignment Cikampek - Cikopo (Sta. 91 + 50-94 + 00): Stone tuffaceous sand, clay and conglomerates (Qav), derived from lava deposits Qob. This unit occupies most of the plains Plered and land in the northeast Purwakarta table. Tuffaceous sandstones sometimes contain pumice; clay containing the remains of plants; conglomerates, breccias and fine sand, layered horizontal / virtually flat. 2. Alignment Cikopo (Bungursari) - Cimahi (Campaka) (Sta.94 + 300 EIA III-12 96 +100), Along the valley Ciherang: Represent Subang Formation (TMS), which consists of limestone with marble inset and marble stones are generally dark gray in color hard, some places inserted glauconite sandstone is gray. 3. Alignment Cimahi (Campaka) - River CIPUNAGARA (Sta.96 + 100 -142 + 50): Form of tuffaceous sandstone, clay and conglomerates (Qav) • alignment of cilamaya River (Sta. 101 + 902) Sub-district. Campaka Purwakarta: Form of Deposition River (Qa) consists of clay, silt, sand, mud and gravel, in the form of the composition of Holocene river sediments. River is tipped from G. Tangkuban Perahu. • alignment of Ciasem River (Sta. 123 + 458) Sub-district. Pagaden Subang: Form of Deposition River (Qa) consists of clay, silt, sand, mud and gravel, Holocene river deposits in the form of composition. River is tipped from G. Tangkuban Perahu. • alignment of Cipicung River (Sta. 126 + 313) Sub-district. Pagaden Subang, and CIPUNAGARA River (Sta. 142 + 350) Sub-district. Campaka Purwakarta: Form of river sediments (Qa) consists of clay, silt, sand, mud and gravel, in the form of the composition of Holocene river sediments. River is tipped from Buligir and G. G. Tampomas. 4. Alignment CIPUNAGARA River (Sta. 142 +350) district. CIPUNAGARA Subang (Sta. 152 + 850) Compiled by tuffaceous sandstones, clays and conglomerates (Qav), derived from lava deposits Qob. This unit occupies most of the terrain and soil Plered table in Northeast Purwakarta. Tuffaceous sandstones sometimes contain pumice; clay containing the remains of plants; conglomerates, breccias and fine sand, breccia and sand smooth. Layered flat / almost flat. 5. Alignment Kertajati - The intersection of the road. Kertajati - Teak Seven (Sta. 178 + 000 - Sta. 179 + 002) of River Sediment (Qa) clay, silt, sand, mud and hook, a composition of Holocene river sediments. 6. Alignment Jatitujuh - Cimanuk River - River Cikeruh (Sta. 179 + 002 - Sta. 191 + 060) Sub-district. Cisambeng Majalengka of Alluvium (Qa): clay, silt, sand, gravel, especially Holocene river sediments. EIA III-13 7. River alignment Cikeruh - Sta. 193 + 960: Form of results Young Volcano irreducibly (Qyu): breccia, andesite and basalt lavas, tuffaceous sand, originating from Mount Tampomas lapili (in Bandung LBR) and Mount Cireme. Usually these rocks formed plains or low hills with soil that is gray and reddish yellow. 8. Alignment Sta. 193 + 960 sd Sta. 195 + 960: Form of Formation Kaliwangu (TPK): claystone with tuffaceous sandstone, conglomerate, found local layer - a layer of calcareous sandstones and limestones. 9. Alignment Sta. 195 + 960 - Sta. 198 + 460: Form of the volcano irreducibly Young (Qyu) consisting of breccias, lavas are andesite and basalt, tuffaceous sand, originating from Mount Tampomas lapili (in Bandung LBR) and Mount Cireme. Usually these rocks form the plains or low hills with soil that is gray and reddish yellow. 10. Alignment Sta. 198 + 460 - Sta. 203 + 960: Form of Formation Kaliwangu (TPK): claystone with tuffaceous sandstone, conglomerate, found local layer - a layer of calcareous sandstones and limestones. 11. Alignment Sta. 203 + 960 - Palimanan containing results irreducibly Young Volcano (Qyu): breccia, lavas are andesite and basalt, tuffaceous sand, originating from Mount Tampomas lapili (in Bandung LBR) and Mount Cireme. Usually these rocks form the plains or the hills redah with soil is gray and reddish yellow. Throughout the Toll Road plan of Cikampek - Palimanan starting from Purwakarta Regency, Subang regency, Indramayu Regency, Majalengka and Cirebon, there is no direct intersecting geological structures. Only in Ciwaringin shear fault which almost cut off the Gaza plan for toll roads, namely fault trending north - south on the southern slope of Mount Kromong exactly south of the toll road plan. This fault was found in the rocks of the Formation Kaliwangu compiled by claystone with tuffaceous sandstones and conglomerates. This fault zone is a weak zone that potentially threatens the movement of soil in this region, and along the fault lines found in the location of oil seepage and hot springs. The other sections along the toll road plan is not interrupted by geological structure, where existing structures are found in areas south of Highway route plan with the nearest distance of 8-9 km. This geological structure in the Geological Map is indicated by red lines. EIA III-14 Other potential impacts are on "alert area of the eruption of Mount Tangkuban Perahu" which flows along the River Cidahu Subang Regency exact intersection with River Road Toll Cidahu in Cidahu and Batununggal. So, that the flow of material in the form of vomit Mount Tangkuban Perahu lava lava and should be anticipated. Another potential impact is an area that included "the possibility of potentially flow of debris flow hazard eruption of Mount Cereme" namely the river - river that cut the toll in the Gaza plan Dawuan, Jatiwangi, Source Jaya and Plumbon. Technical Geology Technical Geology is concerned with the nature of the discussion on the physical / mechanical soil and rock. While the details of the discussion are represented by the Technical Geology Map (see attachment). The details of each unit of engineering geology along the Toll Road plan outline are as follows: • Sandy clay and clay sand [As (sc)]: Endaparr natural levee / embankment river, between 1-10 meters thick, brownish gray to gray-black, very fine to coarse grained, rounded to angular, graded bad, high permeability, density off until solid. Allowable soil bearing capacity low to moderate, easily excavated with non-mechanical equipment. The depth of the shallow ground water freely until luktuasi in and influenced by river water. Engineering Geology Unit of the potential local flooding and potential mudslides on river cliff lateral river erosion. • Sandy clayey silt and silt [R (me) (cm)]: Soil residue is a hash weathering tuffaceous sandstone, tuff, conglomerate, agglomerate, and breccia lapili, between 2-20 meters thick. In the center and south of this unit contains a lot of gravel and boulders of igneous rocks, reddish brown, medium plasticity high, low permeability, firm to stiff, the allowable soil bearing capacity of low moderate, easy-digging a bit difficult if you use non equipment mechanics, the depth of ground water is free - within. • Clay [Re]: Soil residual weathering product of claystone, between 1-3 meters thick, brown to blackish brown color, containing local shale and sandstone fragments, plasticity and low permeability, firm consistency. Allowable soil bearing capacity low - moderate, easy to dig a little difficult if you use non- EIA III-15 mechanical equipment. The depth of ground water in till there is not free. In this technique the local geology unit-local potential ground movement. • Sandstone, conglomerate and tuffaceous sandstone [SS, CG]: It is a Quaternary volcanic sediment deposition and deposition of the Tertiary Formation Citalang. Subang Formation sandstone member. Blackish brown conglomerate with component consists of andesite, basalt, sandstone and other rock, measuring 1-5 meters, rounded to angular, high porosity, cementation low and low hardness. Sandstone and tuffaceous sandstone of yellowish brown, fine to coarse grained, angular to rounded sole, composed of feldspar composition, volcanic ash and a little black minerals, moderate to high porosity, cementation is, rather loudly. Carrying capacity of a high rock, digging a little difficult to difficult if you use non-mechanical equipment. The depth of ground water freely, in some places is not found at all. • Claystone [Cs]: It is a tertiary sedimentary deposits of the Formation and Kaliwangu Earring, gray-green, bedding is not clear, containing local iron concretion, molluscs and pieces of gypsum, low violence, low bearing capacity of rock, digging a bit difficult when using non-mechanical equipment. In engineering geology unit is free ground water is difficult to obtain, the slope is less stable and potentially high landslide. Breccia and Lava [BX, LH]: local interspersed agglomerate, lapili and lava, a volcanic deposits Tangkuban Perahu Mountain and. Tampomas. Generally blackish brown, the component consists of andesite basalt, pumice-sized gravel to boulders, sand tufa base period, until rounded angled hearted, low to moderate porosity, low to moderate hardness. Carrying capacity of a high rock. Excavation is difficult when using non-mechanical equipment. Free ground water hard to come by, except at the foot of the mountain. In this technique the local geological units inclu Geological Hazards: 1. Settlement Vulnerability Land subsidence is a decrease vertically from a structure that influenced the addition of surface loading or the influence of rock / soil. This potential occurs in the backfilled clay lithology. So the threat of settlement could occur at the landfill over the clay, which is found in the local distribution of clay- interspersed with local tuffaceous EIA III-16 sandstone and conglomerate, Cikampek – Palimanan planned Toll Road Line, namely on: 1. Heap on the alignment Cikampek (Sta. 91 500) to River CIPUNAGARA (Sta. 142 + 350) Sub-district. CIPUNAGARA Subang: tuffaceous sandstones, clays and conglomerates (Qav) 2. Embankment at Sta. 152 + 850 near Kamerang until Sta. 178 +000 near Kertajati, a tuffaceous sandstones, clays and conglomerates (Qav) 3. The possibility occurred in embankment at Sta. 193 + 960 sd Sta. 195 + 960 Represent Kaliwangu Formation (TPK): claystone with tuffaceous sandstone, conglomerate, found local layer - a layer of calcareous sandstone and limestone. 4. Embankment at i on Sta. 198 + 460 sd Sta. 203 + 960 form Kaliwangu Formation (TPK): claystone with tuffaceous sandstone, conglomerate, found local layers of calcareous sandstones and limestones. 5. The possibility of the pile in alignment Cikampek (Sta. 91 500 Ciherang-River (Sta. 95 + 006) Sub-district. Campaka Purwakarta until CIPUNAGARA River (Sta. 142 + 350) Sub-district. CIPUNAGARA Subang: tuffaceous sandstones, clays and conglomerates (Qav) 6. Embankment at Sta. 152 + 850 Kamerang sd near Sta. 178 +000 near Kertajati, a tuffaceous sandstones, clays and conglomerates (Qav) 7. The possibility of the Heap in Sta. 193 + 960 sd Sta. 195 + 960: Form of Formation Kaliwangu (TPK): claystone with tuffaceous sandstone, conglomerate, found local layer - a layer of calcareous sandstone and limestone. 8. Embankment at Sta. 198 + 460 sd Sta. 203 + 960 form Kaliwangu Formation (TPK): claystone with tuffaceous sandstone, conglomerate, found local layers of calcareous sandstones and limestones. While the dangers of land subsidence "little possibility of happening", and if there is a result of soil degradation in vast areas that declined together or not. The main factor is as a result of drawdown which occurred drastically; its compressibility is generally on high ground. 2. Landslide Hazards In Subang claystone Formation Landslide Hazards could potentially occur in the claystone with blackish gray, easy to inflate when the hit the water, brittle and fragile when dry. As events in Sta. 91 Toll Cipularang was worsened by the presence of conglomerate above factors in the wet EIA III-17 clay so that ground water entering the conglomerate accumulated in the boundary clay (clay water-resistant and easy to inflate), so the limit is a field of slip and clay expands causing vanish at these toll roads. A type of clay found in the Gaza planned Toll Road Cikampek - Palimanan, namely in: Valley Ciherang at a location between the Village District Cikopo Bungursari up to the Village Campaka District Cimahi Purwakarta Regency, precisely in the segment Station 94 + 350 to +100 with 96 stations. 3. Liquefaction Hazard From the distribution of rock types that have been outlined above there is no potential "liquefaction" caused by the vibration of pile installation time or an earthquake. As a result of this vibration potential land subsidence of fine-grained sand soils, uniform, with low density and under ground water, and this did not occur along the toll roads. 4. Seismicity Level of seismicity in the Toll Road plan sepanjarig Cikampek - Palimanan along 116.4 km passing through administrative regions Purwakarta Regency, Subang, Indramayu, Majalengka and Cirebon through the Quaternary and Tertiary rocks. Toll Road as a whole is in the region 4 and the basic seismic coefficient between 0.15 g to 0.1 g and soft soil to hard soil. Seismic forces in this region are not great and the planned structure as the structure of type B or C as classified BMS7-K art. 1.8.3.Titik - a potential point of earthquake affected the region that will be passed toll road plan will not be teriepas of seismotectonic patterns in Indonesia, especially Java seismotectonic pattern of the West. From the seism tectonic map issued by the Indonesian Geological Research and Development Centre in Bandung for 100 year earthquake, the seismic point of having the most potential impact as much as 29 points with the following details: 1. An earthquake with Greatness (Magnitude) 5-6 with shallow depth (00-90 km) there are 7 points along the northern plains begin Depok - Karawang until Cirebon-Pemalang. 2. An earthquake with Greatness (Magnitude) 5-6 with a depth of medium (90150 km) there are 7 points along the northern plains begin Tangerang Depok to Indramayu - Cirebon - Pemalang. EIA III-18 3. An earthquake with Greatness (Magnitude) 5-6 with shallow depth (00-90 km) there are 4 points in the Java Sea with 1 point off the coast of Serang and 3 points Indramayu offshore. 4. An earthquake with Greatness (Magnitude) 5-6 with medium depth (90-150 km) there are 3 points in the Java Sea with 1 point off the coast of Bekasi and 2 points off the coast of Cirebon - Pemalang. 5. An earthquake with Greatness (Magnitude)> 6 with a shallow depth (00-90 km) is located at 2 points in the Java Sea off the coast of Jakarta far at sea or in the middle between Jakarta and the island of Belitung. 6. An earthquake with Greatness (Magnitude) 5-6 with depth in (150-650 km) there are 5 points away in the Java Sea off the coast of Jakarta - Karawang and Indramayu. 7. An earthquake with Greatness (Magnitude)> 6 with depth in (150-650 km) is located at a distant point in the Java Sea off the coast of Karawang. While the point - the point of another quake less potential impact on the Toll Road plan Cikampek - Palimanan Mountains Region is located at the southern part of Java and in the Indian Ocean off the coast of Pandeglang - Suregencyumi to Garut Cilacap. For more details can be seen in Figure 3.3 seism tectonic map of Java. 5. Floodplains Based on the "Cimanuk River Flood Control Project (1995)", the project was concerned with flooding under the weir crossing in Cimanuk Range, the downstream section of the trajectory map of the highway. Area - the area is lower than Cimanuk ditanggul: levees - levees that crossed into the upstream of the bendung rentang and include sub river of Cuyu Cisambeng. Because of the dike - the low embankment is incomplete; it only gives a little flood protection. Existing levee flood designed to withstand high 25 annual surveillance with 1.00m, but the insufficiency of the protection seen when the floods in 1993 which have a large enough pool of flooding. Learn more about the wide puddles in waterplains are presented in Figure 3.4. EIA III-19 EIA III-20 EXTENT OF FLOODING IN 1993 IN CIMANUK BASIN UPSTREAM OF RENTANG WEIR SOURCE : CIMANUK RIVER FLOOD CONTROL SUB-PROJECT : DESIGN REPORT 1995 DIRECTION OF OVERLAND FLOW (decuded) SCALE 1 : 100,000 FLOOD EMBANKMENT IN VICINITY OF CPTR Source : Evaluation of Assessment, 1996. Figure III.2 EIA Flood Embankment in The Vicinity of the project III-21 3.1.3 Hydrology In the area along and around Cikampek toll road plan - Palimanan water catchment areas as well as a region upstream from the river that cut the toll road can be divided into two catchment areas, namely: 1. Absorption peak area (recharge area), characterized by the order into a river that grew into order to 2 and a region upstream from the river - river. With a very tight contours. 30-45% slope. Irregular ridge pattern, shape and morphology of the valley V cone, for example in the vicinity of Mount Tangkuban Perahu, Mt Sanggabuana, Mount Tampomas and in the Mountains Kromong. 1. Water recharge area (downslope), are areas that serve as catchment areas in the middle of the river flow, characterized by river order 1, 2 and 3. Density contours rarely, slope between 5-15%. In this area many springs that are found upstream of many children river. Flow pattern river near dendritic - subdendritic. This area is also part of the upstream river Cisiluman children, Cicadas, Cibuang, Cibodas, Cipicung, Cipapan, Ciluncat, Cubunut, Cibugang and Cikaranti. While that is a hilly morphology with fine reliefs, such as Pagaden, Kroja and Jatiwangi. Based on studies conducted by IWACO, Annual Recharge groundwater (Agr) in Purwakarta district amounted to 276 million m3/year. Districts that have the highest Agr Wanayasa District is 67 million m3/year, while those with the smallest Agr Tegalwaru contained in the District in the amount of 13 million m3/year. a. Rivers In the five districts that will be passed Cikampek-Palimanan toll road plan, there are 7 pieces River Basin (DAS) of the watershed Ciherang / cilamaya in Purwakarta district, watershed and watershed Ciasem CIPUNAGARA in Subang regency, Indramayu District Cipancuh watershed, watershed and catchment Cipanas Cimanuk in Majalengka, and watershed Ciwaringin in Cirebon District (see Figure 3.5). All are divided into 73 main river, from River Cilandak in Purwakarta Regency Cisiluman and River to River Cibalakuya in Subang Regency, also of River and River Cipahit Cipapan Indramayu District and River to River Cipanas Cikadongdong in Majalengka, and continue from River Cikaranti until Wadas River in Cirebon. Rivers generally has a dendritic stream pattern with the flow direction from south to north, EIA III-22 from the region with a series of Mount Tangkuban Perahu, Mt Burangrang, Mount Sunda, Mount Tampomas until Mountains Kromong continue to flow into the region known as the northern coast and empties into the Java Sea. In Table III.7 can be seen the list of rivers which cut off the toll road plan. EIA III-23 Figure III.3 EIA Map of River Basin Around The Project Location 24 Table III.7 Rivers Cut by TheToll Road Project No. RIVER STASION Sta. ke 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 CIHERANG CILANDAK CILAMAYA CISILUMAN KALIJATI PAKUHARJA CICADAS CIBEUNYING CIJENGKOL CIBEULEUTOK CIBUANG CIBUANG CIBURANGRANG CIRACAS KALIJAMBE PEMBAWA *) KALIJAMBE PEMBUANG CICONGOK CILARANGAN CIBODAS CIGINTUNG CIBENING CIASEM SAMPAN CIDAHU CIRCLING CIPEJEUH CIGADUH CIGEDE CIKADEUPLAK + PED HANDIWUNG + PED ACC CIPULUNG + PED ACC CIBEUREUM CIBOGO CILAMATAN JDIBALAKUYA CIPUNEGARA CIPAPAN CIKALE CICADAS CIBUAN RIVER CIKANDUNG CIBIUK CIBURLAL CIPANCU CIPAHIT CIPONDOH 95 + 006 99 + 030 101 + 902 104 + 304 105 + 009 106 + 073 106 + 652 107 + 575 107 + 779 107 + 905 109 + 950 110 + 175 111+ 114 + 432 116 + 350 116 + 714 118 + 579 120 + 224 120 + 624 120 + 912 122 + 745 123 + 458 124 + 227 126 + 021 126 + 313 127 + 510 127 + 740 129 + 675 130 + 551 130 + 904 134 + 472 135 + 016 136 + 278 138 + 810 141 +654 142 + 350 143 + 716 144+ 159 144 + 985 145 + 932 146 + 826 148+ 130 1 50 + 558 152 + 500 154 + 091 159 + 500 EIA LENGTH River (m) 212 187 223 73 64 43 64 46 34 46 52 64 97 54 52 48 49 62 100 46 71 240 49 72 54 77 76 58 60 34 53 42 40 90 82 360 56 47 58 56 44 41 34 42 37 50 DEBIT ( m3/sec ) LOCATION Cimahi/Campaka PURWAKARTA Cisaat/Campaka PURWAKARTA Cipusungsari/Campaka Karangmukti/Pabuaran SUBANG Karangmukti/Paburuan SUBANG Wantilan/Cipeundeuy SUBANG Wantilan/Cipeundeuy SUBANG Wantilan/Cipeundeuy SUBANG Wantilan/Cipeundeuy SUBANG Wantilan/Cipeundeuy SUBANG Sdwaiga/Cipeundeuy SUBANG Wantilan/Cipeundeuy SUBANG Marengmang/Kalijati SUBANG Marengmang/Kalijati SUBANG Wanakerta/Purwadadi Wanakerta/Purwadadi Kalingsana/Purwadadi Kalingsana/Purwadadi SUBANG Cirulule/Purwadadi SUBANG Batusari/Pagaden SUBANG Batusari/Pagaden SUBANG Batusari/Pagaden SUBANG Batusari/Pagaden SUBANG Balimbing/Pagaden SUBANG Cidahu/Pagaden SUBANG Cidahu/Pagaden SUBANG Cisaga/Subang SUBANG Cisaga/Subang SUBANG Cisaga/Subang SUBANG Cisaga/Subang SUBANG Majasari/Cipunagara Padaasih/Cipunagara Padaasih/Cipunagara Padaasih/Cipunagara Sumurbarang/Cipunagara SUBANG Sumurbarang/Cipunagara SUBANG INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU Trisi/Cikawung INDRAMAYU III-25 344.92 242.12 508.21 2.35 4.36 32.67 73.86 71.55 25.02 16.5 54.67 16.43 42.72 - No. RIVER STASION Sta. ke 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 CILUNCAT CIPANAS SALURAN ALAMI SALURAN ALAMI CUYU 1 CUYU 2 CIDUDUT CILAMANING + RED ACC LEBAK + RED ACC SALURAN ALAMI+ RED CIMANUK CICADAS CIBULUH CILUTUNG CANAL + INS CIBOGOR CIBUNUT CIBAYAWAK CIKAWANGI CIPORONG SMALL CIBUGANG RAWA*) CIRANGGON CIKAWUNG CIKADONGDONG RAWA*) RAWA*) CIWARINGIN CIKARANTI CISEENG WINONG CAPLEK WADAS 160 + 518 161 + 500 164 + 140 171 +610 173 + 857 173 + 992 175 + 165 177 + 890 178 + 229 179 + 692 180 + 700 181 +652 183 + 235 184 + 802 187 + 075 190 + 226 193 + 542 194 + 852 195 + 402 195 + 536 196 + 455 197 + 575 198 + 389 198 + 758 200 + 300 200 + 450 201 + 200 202 + 526 204 + 452 205 + 237 206 + 038 206 + 658 BENTANG River (m) 43 120 56 41 54 40 25 44 37 46 315 50 49 25 70 66 42.5 39 45 38 50 44 47.5 52.7 38 38 180 67 66 30 51 43 DEBIT ( m3/sec) LOKASI Trisi/Cikawung INDRAMAYU Kertajati/Merkajaya MAJALENGKA Kertajati/Merkajaya MAJALENGKA Kertajati/Palasal MAJALENGKA Kerajati/Palasal MAJALENGKA Kertajati/Palasal MAJALENGKA Kartajati/Kertawinangun Kertajati/Kertawinangun Kertajati/Kertawinangun Kertajati/Sukawana MAJALENGKA Kertajati/Sukawana MAJALENGKA Dawuan/Pasirmelati MAJALENGKA Dawuan/Pasirmelati MAJALENGKA Jatiwangi/Jaliwangi MAJALENGKA Jatiwangi/Jaliwangi MAJALENGKA Ligug/Tegal area MAJALENGKA Majasuka/MAJALENGKA Bongas kulon/ MAJALENGKA Bongas wetan/.MAJALENGKA Bongas wetan/MAJALENGKA Bongas wetan/.MAJALENGKA Bongas wetan/MAJALENGKA Pajalin lor/MAJALENGKA Pajalin lor/MAJALENGKA Budur/CIREBON Budur/CIREBON Ciwaringin/CIREBON Balangamba/CIREBON Kempek/CIREBON Kempek/CIREBON Kempek/CIREBON legal karang/CIREBON Source: FED, Study, 2007 b. Rainfall Rainfall data obtained from Purwakarta Regency Jasa Tirta Public Corporation II, which carry out monitoring in 9 locations Rain Station located in 9 districts. In the year 2006, the average precipitation occurs in January, February and March, which respectively reached 453 mm, 563 mm and 649 mm. Rainfall in Ciracas station location is an area of highest rainfall during 2006, which is about 5329 mm. Figures for rainfall is higher when compared with rainfall rates in 2004 and in 2003 reached 4114 mm and 3353 mm. It was raining most rainfall recorded at the station location Wanayasa namely 189 days, where the state is higher than the state in 2004 is 141 days. Rainfall areas of other districts are not much different from the large rainfall in EIA III-26 43.2 44.7 17.2 18.3 53.9 8 78.8 242.9 18.9 8.1 159 14.5 23.1 Purwakarta Regency. For the highest rainfall Subang area of 325 mm occurred in January with 15 days of rain and the lowest occurred in August by 26 mm to 1 day of rain. In District Indramayu highest rainfall (288 mm) occurred in March with 24 days of rain and lowest in August (51 mm) with 5 days of rain. Referring to the data from Majalengka in Figures Year 2002, in which this region has a tropical climate with temperature ranges from 21.9 to 35.4 oC, the amount of rainfall annual average 2016 mm and rainy days on average 11 days per month. Rainfall conditions are not much different when compared with rainfall at rainfall stations Jatiwangi showing large average rainfall 397.8 mm with the dry months between July and September. To Cirebon highest rainfall in January (348 mm) dengan19 rainy days and the lowest at 50 mm with 3-day rainfall occurs in August. c. River and River Basin River-river intersected by the highway plan Cikampek-Palimanan included in cilamaya River basin, River CIPUNAGARA, Cimanuk River, with the flow direction generally trending south - north, which is tipped from the Mountains series Tangkuban Perahu, Sundanese, and Kromong Tampomas continue to flow to the coastal plain in the north. Under the direction of flow is then along the Toll Road plan can be divided into 7 river basin, from north to south, as follows: • Watershed Ciherang in Purwakarta Regency, include: Children and River Cilandak cilamaya river cut by alinemen in the middle of the river basin. This zone occupies the plains region (-1%), but sometimes undulating (1-4%) in the upstream watershed. Land used as. rice fields, the fields or plantation on clay soil. • Watershed Ciasem in Subang Regency, among others, with children Cijengkol River, River Cibenying, River and River Cibuang Cibodas. • Topography in this area is hilly, with intensive dry land crops at or near flood plains. • Watershed CIPUNAGARA in Subang Regency, with a child Cipicung river, River and River Cilamatan Cikandun. EIA III-27 • Watershed Cipancuh Regencyupoaten Indramayu, this river basin there are little sub river that flows into the River Cipancuh. • Watershed Area Cipanas Majalengka, in this river basin flows, among others, River Ciluncat and billowing River which empties into the River Cipanas. • Watershed Cimanuk contained in Majalengka, to this river basin flows among other Cipari River, River Cipelang, Cisambeng River, River Ciranggon, Cikeruh River, River and River Cibayawak Cikemanggi. • Ciwaringin watershed located in the region Palimanan Cirebun District, where this river empties into the Mountains Kromong. 3.1.4 Hydrogeology The main aquifer lithology in the shallow aquifer system in coastal plain region in the past the toll roads are sand and gravel that filled the ancient river and delta deposits, which generally has been used to meet the demand for clean water everyday people. Configuring the aquifer and aquifer productivity in the aquifer system in coastal plain area is characterized by delta sediment characteristics, with the characteristic vertical and horizontal distribution of the random between layers of rock with a layer of water passed in relative clay is water-resistant. In the aquifer system in, there are indications that with time running, static ground water level will decrease and the capacity of type wells will also be reduced, which is expected because of the deteriorating borehole construction. Indicative of this was found by Pramod (1981), where several wells are drilled to tap the most productive aquifers at depths between 60-100 m before 1980 to produce discharge 50-70 l / min with high pisometril - 1.3 m.aml, and in the last decade the average discharge decreased to 10-30 l / min with a height of 0.75 pisometri m.aml. Aquifer productivity in hilly areas is low, water-soil with a significant number are found only locally, exploration drilling has ever done for sugar cane plantations in Forest Jatitujuh and pan (the Northern Duchy) which resulted in discharge 5 I / sec to support the statement. EIA III-28 Areas classified as ground water scarce regions is the culmination G. Tangkuban Perahu and G. Tampomas, and the hills are formed by marl, claystone, and other solid rock. In volcanic regions strata, aquifer productivity rises naturally toward the foot of the volcano. The details of each unit of the aquifer and its type will be specified in detail hydrogeological below. 1. Alignment Sta. 91 + .500 s / d Sta. 101 + 902 (River cilamaya) district. Campaka Purwakarta: the form of aquifer (slotted or nest) with low productivity (D1); of the aquifer with low productivity. 2. Alignment Sta. 101 + 902 (River cilamaya) s / d Sta. 138 + (810 River Cilamatan) district. CIPUNAGARA Subang: the form of aquifer (slotted or nest) with low productivity (D1); of the aquifer with low productivity. Discharge Area (Sta. 91 +500 s / d 158 + 810) Potential ground water content is affected by road construction. Toll Cikampek Palimanan is in the region north of the road plan, because from the perspective of the region is the regional hydrogeology of groundwater discharge (discharge area) where local recharge (recharge area) is located on the south toll road plan Cikampek Palimanan. Details of discharge areas ranging from / around Sta. Sd 91.00 Cilamatan River (Sta. 138 + 810) is: • Aquifer with flow through spaces between the grains, the local aquifer with medium productivity (A3), is + 7 km from the toll road plan. • Aquifer with flow through spaces between the grains, the aquifer with medium productivity and widespread distribution (A2), is ± 8 km from the toll road plan. EIA III-29 • Aquifer with flow through spaces between the grains, productive aquifer and its wide distribution (A3), is + 10 km from the toll road plan. Cilamaya River Basin between Cirojak - Gempalsari - Gembongan is a productive aquifer aquifer A1 form with widespread distribution. This aquifer has a transmissivity medium, or high ground water level pizometri ground water near or above ground level, reaching 2.4 meters above local ground level, discharge wells generally 5 liters / second. • Artosis flow limit is + 15 km north of the toll road plan. • Ground water supply to this region from the south, thus the direction of groundwater flow from the south (recharge area) which, when built toll road is a potential ground water flow will be disrupted when handling the flow of surface water and ground water is also not handled properly. This impact is the potential that the recharge area south of the area disturbed by roadmaking material (Quarry). • The potential impact is felt by a decline in ground water, ground water discharge reduction, reduction of transmissivity, boundary lines artosis flow will shift to the north, the quality of ground water (shallow) polluted. Recharge Area (Regional groundwater recharge) (Sta. 91 +500 s / d 138 + 810) Regional groundwater recharge / water filling the soil is located at the south toll road plan, recharge areas to areas of / around Sta. 91 500 sd Cilamatan River (Sta. 138 + 810) in the south are mainly derived from the summit of Mount Tangkuban Perahu (2076 meters) up to his feet, where the type of aquifer that developed from the Peak is D2 aquifer, aquifer B2, Aquifer B1, aquifer D2, D1 aquifer along the road plan. Details aquifer is: • D2 aquifer, the region is in the form of regional ground water scarce or insignificant (Soil water is difficult), there is in the top of Mount Tangkuban Perahu. EIA III-30 • B2 aquifer, the aquifer with flow through fissures and spaces between the grains, the local productive aquifer, transmissivity is very diverse, ground water is generally not utilized because it ground water, spring water berdebit generally small. • Aquifer B1, aquifer with flow through fissures and spaces between the grains, the aquifer with medium productivity and widespread distribution, the aquifer with transmissivity is very diverse, the ground water is generally deep, spring appearance debitnya diverse, generally large in vesicular lava flows, some reaching more from 100 liters / sec, discharge wells are generally less than 5 liters / sec. • Around the alignment plan for the northern Toll Road was found several Lake (Situ), namely: 2 Lakes in the Village District Kertamukti Campaka Purwakarta (DAS Cimalaya) is + 4.5 km from the toll road plan, Lake / Situ Citapen and lakes in the Village District Wanakerta Purwadadi Subang. The four lakes could be potentially affected by the handling procedure if the water is not handled properly, the potential impact will be felt is the reduction of river discharge and sedimentation of heavy water. • A number of lakes found in the watershed Cilamatan namely: Situ Sango Village Cidahu Subang District, Cikalong Situ and in Situ Ijan Mountain Village District Sembung Pagaden, Situ Kalembuah and also Situ Situ Bugang Gembor Teak Village Sub-district. Pagaden, Situ Peundeuy in the Village District Padamulya CIPUNAGARA. Go to this there is about seven about 7 to 15 km from the toll road plan and can get the potential impact of toll road construction. 3. Alignment Sta. 138 + 810 (River Cilamatan) s / d Sta. 180 + 700 (- 200 m from the River Cimanuk) of the aquifer (slotted or nest) is with low productivity (D1). aquifer is 5-9 km wide at the north side of the toll road plan and as wide as 2.5 to 9 km on the south side of the toll road plan. Discharge Area (Regional groundwater discharge) for this alignment: (Sta. 138 +810 s / d 180 + 700) Regional groundwater discharge around alignment Cilamatan River (Sta. 138 +810) EIA III-31 s / d (- 200 m) River Cimanuk (Sta. 180 + 700) is the north, with details of the aquifer following: • A3 aquifer, the aquifer with flow through spaces between the grains, the local aquifer is productive, is +10 km from the toll road plan. • A2 aquifer, the aquifer with flow through the space between the grain and its wide distribution, is + 11 km from the toll road plan. • In this alignment there are reservoirs Cipancuh (DAS Cikondang) in the District of Situradja ,Kroja, Indramayu. • Reservoir and aquifer type A could be subject to potential impacts with the construction of toll roads when handling the water system (mainly surface) are not handled properly. Potential Impact could happen is a decline in water levels and reduced the potential for ground water and reservoirs in the watershed Cikondang. • Discharge productive areas are in the A1 aquifer in the region Kroja Pangauban - Losarang - Kedung Dawa River which flowed Cibenoang River and River Cilalanang also Ciloncat. Artesian line parallel toll road plan. at a distance of + 15 km. Many artesian wells in this region is spreading from Sukaslamat until Losarang. Areas of potential ground water will be subject to the potential impact when handling the water system in the construction of toll roads are not handled properly. The east of this region (east of River Cipanas) is an area of swamp. Swamp - swamp that there is Kedung Bima Swamp, Swamp Cibogor, Rawa Rawa Rawa Cicadas Cigembor and all of which entered the Village areas in Kertajati Majalengka Mekarmulya District. Recharge Area (Regional Supplement Groundwater) of this alignment: (Sta. 138 +810 s / d 180 + 700) • Regional augmentation around this alignment is in part derived from the region south of Mount Canggak (1618 m), Mountain Region Tampomas (1854 EIA III-32 m) with the type of aquifer is sorted from the top of the mountain aquifer D2, D1 aquifer, aquifer B1, B2 aquifer, and aquifer D1 (including alignment plan for toll roads). 4. Sta. 180 + 500 Sub Kertajati Majalengka (- 200 m River Cimanuk) s / d Cikeruh River (Sta. 191 + 060): A2 aquifer, with flow through spaces between the grains; aquifer with productivity, while the broad dissemination; aquifer with transmissivity medium, high ground water or ground water pisometrik near or above ground level. Debit wells generally less than 5 liters / sec. Discharge Area (Regional Groundwater discharge) this alignment is: (Sta. 180 + 500 s / d 191 + 060) • Local release of this region as well as the planned toll road to the northern region of the watershed Cimanuk, where the northern district Kertajati Kertajati Village and Village North Region District Kertasari Ligung groundwater aquifer in the form of A1 (productive aquifer). • In this region there are many swamps, found on the west side of River flow Cimanuk. In the District there Kertajati Swamp Surapago Sukakerta Village, Swamp Citamiang bantarjati Lor Village, Marsh and Swamp Jawura Cimanuk Kertajati Village, Marsh and Swamp telik Cicabe Pasiripis Village. In District Jatitujuh found four of them marsh and swamp Swamp Kulampok tambakan Babajang Village. Recharge Area (Area Supplement) This area is of: (Sta. 180 + 500 s / d 191 + 060) • Cimanuk the Upper Basin. • Mount Tampomas with dominant type D2 and Mount Kromong aquifer. • With the dominant aquifer D2 and B2. With the dominant D2 and B2 aquifer (areas with scarce groundwater and aquifers are productive.) 5. Cikeruh River (Sta. 191 + 060) Foot sd G. Kromong the east (Village Walahar Sub-district. Ciwaringin): Dominated aquifer with flow through fissures and spaces between the grains, the aquifer with medium productivity and broad distribution (B1); EIA III-33 aquifer with transmissivity is very diverse, generally in ground water; appearance of the spring variety debitnya , generally large in vesicular lava (reaching more than 100 liters / sec), but the discharge wells generally less than 5 liters / sec. Discharge areas of this region including the alignment plan for toll roads, thus the construction of this toll road will have potential impacts on groundwater and surface water, especially for areas in the north of the road, when handling the water system is inadequate. Recharge areas of this region are from Mountain Kromong aquifer which is dominated by D2 and B2. 6. Eastern foot of Mount Kromong (Walahar Village Sub-district. Ciwaringin) s / d Palimanan: aquifer with flow through fissures and spaces between the grains, the aquifer with medium productivity and broad distribution (B1): aquifer with transmissivity is very diverse, generally in ground water; debitnya spring appearance varied, generally large in vesicular lava (reaching more than 100 liters / sec), but the discharge wells generally less than 5 liters / sec. Discharge areas of this region including the toll road plan and the area north of the form A2 aquifer. A2 aquifer is located ± 500 meters from the toll road plan, with lamparan include Palimanan Region - South Suramenggala - Arjawinangun. This area is the River Basin Ciwaringin that when handling the water system is not adequate then it will have an impact on ground water potential in the region. Recharge areas of this region are mainly derived from the upstream watershed Ciwaringin River and Mountains Region Kromong. When this region disrupted the unbridled potential impact of the threat of flooding will occur when the rainy season and water shortages in dry soil. For more details shown in Figure 3.6 geohydrology conditions along the highway plan Cikampek-experiment. Free ground water in areas along the toll roads are many people used it in a way making dug wells. Dug wells located along the Toll Road and sekiitar have ground water ranged from 0.5 to 5 meters below the local ground level with seasonal fluctuations ranging from 0.5 to 3 meters, even partially dug wells dry during drought. Ground water in the watershed there are potential River cilamaya between CirojakGempalsari - Gembongan north of toll roads. Soil water potential were also found in the area Kroja - Pangauban - Losarang - Kedung Dawa, which is the watershed area EIA III-34 and watershed Cibenoang River Cilalanang River. In the second region a lot of ground water has been widely exploited by way of well construction in Bor. 3.1.5 Space, Land and Soil System development towns is aimed at bringing balance and harmony of development among regions according to function was adopting, carrying capacity and environmental carrying capacity to support the spatial structure that has been planned. Plans system development towns in West Java are: 1. Organizing and directing the development of activities centers in northern and central. 2. Develop a limited basis centers in the south. 3. Reforming the distribution of national and regional development of the region that supports the development of harmonious development between regions. EIA III-35 Source: P3G Bandung Figure III.4 EIA Hidrogeology Map Along The Project Location III-36 Regional plan in West Java consist of structure plan and spatial plan. The development plan covering the structure of spatial system development plan of the city, the area of infrastructure development, development of key region and the area of defense and security, while the spatial pattern of the plan include a plan spatial pattern of protected areas, farming areas, and plans for carrying capacity and environmental carrying capacity. In general, the West Java region is divided into several key regions by directing the sector in each region, while sharing key region is as follows Table III.8. Table III.8 Key Regions (Prominent Regions) in West java Province No. Region 1. Bogor-Depok-Beksasi and vicinity. Prominent Sector Industry, tourism, trade and services, education and knowledge. 2. Bogor-Puncak-Cianjur and vicinity. Agricultural crops, tourism, plantation and fishery. 3. Suregencyumi and vicinity 4. Cianjur-lndramayu-MajalengkaKuningan and vicinity. Marine fisheries, animal husbandry, tourism, agriculture, industry (agro) and agricultural crops. Industry, trade and services, fisheries, sea and land, agricultural crops, forestry, plantation and livestock. 5. Bandung and vicinity. Industry, trade and services, tourism, agriculture, horticulture, forestry, plantation, livestock, and education and knowledge. 6. Priangan Timur and vicinity Agricultural crops, forestry, plantation, animal husbandry, fishery and tourism sea and land. 7. 8. Pangandaran and vicinity. Purwakarta-Subang-Majalengka (planned) Tourism and marine fisheries. Industry, tourism, aquaculture, agricultural crops, forestry, plantation, livestock and marine business. Source: West Java Masterplan Carrying capacity plan of the environment in West Java province aims to maintain environmental balance and sustainable development activities that utilize natural resources in protected areas and cultivation areas. Plan the carrying capacity and carrying capacity of the environment itself are: 1. Controlling the use of space and natural resources. 2. Controlling population growth rate. 3. Realizing the population distribution according to their capacity. EIA III-37 4. Controlling the social and economic development activities in accordance with the population carrying capacity. 5. Controlling the use of coastal and marine resources. Target in improving carrying capacity and carrying capacity of the environment in the region of West Java Province is: 1. Control of the use of space and natural resources in northern, central and southern West Java. 2. Uncontrolled population growth. 3. Realization of the population distribution according to its maximum capacity. 4. Unbridled economic and social development activities in accordance with the population carrying capacity. 5. Control of the use of coastal and marine resources. The condition of land use in the study area at 5 districts described in label.3.9 below, the table is generally described conditions in land use in each district in the corridor / toll road alignment with the general picture as follows; • Purwakarta Regency, 21% of the entire district is paddy (rice). Settlements in the city and public facilities are a proportion of the developing region. • Subang Regency, 57% of the land used for paddy (rice) and mainly located in the coastal strip and to the north of the highway alignment plans. Settlements and public facilities is the next component of the most extensive land use 10% of the area. Subang is the largest city in the district followed by Pamanukan located at intersection of North Coast and northern routes - the South into Subang and Bandung. • Majalengka, 41% of the district used for rice crops includes land which is close to the planned toll road alignment. The main areas of the city which is Majalengka and settlement / public facilities is 17% of the territory in the district. Industry in the region located around Majalengka and the main road between Bandung and Cirebon. • Indramayu District - This district has the region's most widely used for plant drained by 127 ha or 63% of the entire region. Indramayu and Jatibarang is the most extensive settlement, with the city / public facilities under 9% of this region makes this region at least be a city and most rural areas of other districts in the study area. EIA III-38 • Cirebon Regency - 50% of the Cirebon devoted to rice plants. This district has the highest proportion for residential / public facilities in the corridor study, and this represents approximately 27% of land use in Cirebon. Given all the districts mentioned above, type the dominant land use is to plant rice that reaches 45% of the area. This region also has vast forest resources, natural forests and plants, which amounted to 14% of the area. Conservation Area is also an important factor, which reached 10% of the entire region. For residential and public facilities together occupy 12% of land use in the region. EIA III-39 Table III.9 Existing Land Use in the Regency Surrounding Project Plan Total (Ha) Land Use Purwakarta (Ha) Conservation Area 90.946,89 30.859 Development Area 783.115,91 66.314 Settlement 83.673,73 10.202 Public Facilities 23.460,00 2.500 Industry 5.417,50 150 Recreation 1.125,00 300 Fishery 7.502,08 1.000 Livestock 559,78 100 Rice field 394.112,61 20.733 Plantation 67.575,22 13.700 Secondary crops 78.850,79 729 Forest 120.801,79 16.920 TOTAL 874.061 ,80 97.273 Source: data Compilation, 2007 Subang (Ha) Majalengka (Ha) 20.693 184.483 15.996 4.949 118 50 797 117.478 18.721 6.684 19.385 205.176 Indramayu (Ha) Cirebon (Ha) 6.100 114.324 14.324 6.176 425 275 968 968 135 49.608 14.691 11.639 16.082 120.424 12.901 187.198 13.654 3.150 220 150 3.507 100 126.623 6.850 12.583 20.609 200.099 10.420 88.551 20.200 6.200 4.300 200 1.000 150 49.500 1.700 3.300 2.001 98.971 Existing land use of West Java Province can be seen in Figure 3.7. Existing land use along the highway alignment plan can be seen in Table III.10. Based on these data shows that the amount of land area affected by this highway project is 765.6 ha, consisting of irrigated land 212.52 ha, 135.03 ha forest, plantation 33.76 hectares and 117.85 hectares of unproductive land, vacant land 116.29 hectares, 8.79 hectares Rain fed Low, Field 44.88 37.95 Ha Ha and settlements. The pattern of spatial planning in West Java can be seen in Figure 3.8. Table III.10 No 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 EIA Existing Land Use Along The Project Plan Existing Land Use Paddy field Irigas Unproductive land Field Settlement Vacant Land Field Unproductive land Plantation Rainfed lowland Unproductive land Forest Rainfed lowland Forest Settlement Rainfed lowland Location (Sta. S/d Sta.) 91+500 91+55 91+550 92+000 92+000 92+600 92+600 92+850 92+850 93+100 93+100 93+500 93+500 93+750 93+750 95+000 95+000 95+250 95+250 95+450 95+450 95+550 95+550 96+000 96+000 98+700 98+700 98+800 98+800 98+850 Region PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA III-40 No 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 EIA Existing Land Use Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Field Rainfed lowland Settlement Rainfed lowland Forest Rainfed lowland Field Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Settlement Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Forest Rainfed lowland Plantation Settlement Plantation Rainfed lowland Location (Sta. S/d Sta.) 98+850 99+500 100+500 100+800 101+300 101+750 102+950 103+500 104+550 104+900 105+750 106+600 107+100 107+150 107+350 107+500 108+000 109+000 109+050 109+800 110+000 110+100 110+300 111+000 111+100 111+700 111+800 112+800 113+000 113+700 113+800 113+950 114+000 114+300 114+350 115+200 115+250 116+500 116+700 116+800 116+900 117+600 99+500 100+500 100+800 101+300 101+750 102+950 103+500 104+550 104+900 105+750 106+600 107+100 107+150 107+350 107+500 108+000 109+000 109+050 109+800 109+850 110+100 110+300 111+000 111+100 111+700 111+800 112+800 113+000 113+700 113+800 113+950 114+000 114+300 114+350 115+200 115+250 116+500 116+700 116+800 116+900. 117+600 117+650 Region PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA-PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA III-41 No 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 EIA Existing Land Use Plantation Unproductive land Rainfed lowland Plantation Paddy field Plantation Irrigated paddy field Plantation Rainfed lowland Plantation Settlement Plantation Irrigated paddy field Plantation Settlement Irrigated paddy field Settlement Plantation Settlement Plantation Settlement Plantation Irrigated paddy field Danau Irrigated paddy field Plantation Irrigated paddy field Plantation Irrigated paddy field Settlement Irrigated paddy field Plantation Irrigated paddy field Plantation Settlement Irrigated paddy field Plantation Settlement Plantation Irrigated paddy field Settlement Irrigated paddy field Location (Sta. S/d Sta.) 117+650 117+950 118+050 118+100 118+500 118+550 120+150 120+300 120+600 121+150 122+450 122+600 122+700 123+300 123+550 123+700 126+300 126+350 126+400 126+450 126+550 126+650 126+700 127+550 127+600 128+450 128+800 129+000 129+200 129+950 130+000 130+850 131+000 131+200 131+400 131+500 131+900 132+050 132+150 132+200 132+300 132+450 117+950 118+050 118+100 118+500 118+550 120+150 120+300 120+600 121+150 122+450 122+600 122+700 123+300 123+550 123+700 126+300 126+350 126+400 126+450 126+550 126+650 126+700 127+550 127+600 128+450 128+800 129+000 129+200 129+950 130+000 130+850 131+000 131+200 131+400 131+500 131+900 132+050 132+150 132+200 132+300 132+450 132+600 Region PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA PURWAKARTA SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG III-42 No 100 101 102 103 104 105 106 107 108 109 110 111 112 113 114 115 116 117 118 119 120 121 122 123 124 125 126 127 128 129 130 131 132 133 134 135 136 137 138 139 140 141 EIA Existing Land Use Settlement Irrigated paddy field Plantation Irrigated paddy field Plantation Irrigated paddy field Plantation Field Rainfed lowland Settlement Rainfed lowland Field Irrigated paddy field Field Plantation Rainfed lowland Plantation Rainfed lowland Plantation Rainfed lowland Plantation Rainfed lowland Plantation Rainfed lowland Settlement Rainfed lowland Plantation Rainfed lowland Unproductive land Unproductive land Plantation Unproductive land Plantation Field Plantation Field Forest Unproductive land Forest Unproductive land Forest Unproductive land Location (Sta. S/d Sta.) 132+600 132+650 132+950 134+400 134+500 135+250 135+300 135+750 136+000 136+700 136+900 138+350 138+550 139+700 139+900 140+100 140+150 140+450 140+500 142+000 142+750 143+500 144+050 149+700 149+800 149+950 150+100 152+200 152+350 152+750 153+075 153+250 153+400 158+100 158+350 158+500 158+600 161+400 162+050 164+600 164+700 165+700 132+650 132+950 134+400 134+500 135+250 135+300 135+750 136+000 136+700 136+900 138+350 138+550 139+700 139+900 140+100 140+150 140+450 140+500. 142+000 142+750 143+500 144+050 149+700 149+800 149+950 150+100 152+200 152+350 152+750 153+075 153+250 153+400 158+100 158+350 158+500 158+600 161+400 162+050 164+600 164+700 165+700 166+200 Region SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG SUBANG INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU INDRAMAYU MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA / MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA III-43 No 142 143 144 145 146 147 148 149 150 151 152 153 154 155 156 157 158 159 160 161 162 163 164 165 166 167 168 169 170 171 172 173 174 175 176 177 178 179 180 181 182 183 EIA Existing Land Use Forest Unproductive land Forest Field Irrigated paddy field Field Irrigated paddy field Forest Irrigated paddy field Forest Irrigated paddy field Field Settlement Field Irrigated paddy field Forest Irrigated paddy field Field Irrigated paddy field Field Settlement Field Settlement Irrigated paddy field Settlement Irrigated paddy field Settlement Irrigated paddy field Forest Irrigated paddy field Field Irrigated paddy field Settlement Forest Irrigated paddy field Settlement Forest Irrigated paddy field Plantation Irrigated paddy field Forest Irrigated paddy field Location (Sta. S/d Sta.) 166+200 167+500 167+600 168+400 168+500 169+000 169+200 174+500 176+950 177+000 178+100 179+800 180+300 180+600 182+050 182+500 183+150 186+050 186+500 186+800 187+000 187+400 188+200 188+550 188+700 189+000 189+800 190+200 191+100 191+400 191+700 192+050 194+750 194+800 195+000 198+000 198+050 198+100 198+150 198+450 198+550 198+700 167+500 167+600 168+400 168+500 169+000 169+200 174+500 176+950 177+000 178+100 179+800 180+300 180+600 182+050 182+500 183+150 186+050 186+500, 186+800 187+000 187+400 188+200 188+550 188+700 189+000 189+800 190+200 191+100 191+400 191+700 192+050 194+750 194+800 195+000 198+000 198+050 198+100 198+150 198+450 198+550 198+700 198+800 Region MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA,.MAJALENGKA MAJALENGKA MAJALENGKA MAJALENGKA III-44 Existing Land Use No 184 185 186 187 188 189 190 191 192 193 194 195 196 197 198 199 200 201 202 203 204 205 206 Plantation Settlement Irrigated paddy field Settlement Irrigated paddy field Settlement Irrigated paddy field Settlement Forest Settlement Irrigated paddy field Settlement Forest Field Irrigated paddy field Forest Irrigated paddy field Forest Irrigated paddy field Forest Settlement Irrigated paddy field Settlement Source: Consultant, 2007 3.2 BIOLOGICAL COMPONENTS 3.2.1 Land Flora Location (Sta. S/d Sta.) 198+800 199+000 199+250 199+900 200+000 200+200 200+400 200+600 201+200 201+400 201+500 202+400 202+550 202+850 203+000 204+900 205+000 205+400 205+500 205+750 205+800 205+850 206+850 199+000 199+250 199+900 200+000 200+200 200+400 200+600 201+200 201+400 201+500 202+400 202+550 202+850 203+000 204+900 205+000 205+400 205+500. 205+750 205+800 205+850 206+850 207+000 Region MAJALENGKA CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON CIREBON The use of land that make up the local ecosystem found along the project consists of paddy fields irrigated paddy fields both technical and rain-fed, fields, gardens, grass, and forest and plantation people. Types of plants that will be encountered in the study area include food crops, vegetables, medicinal plants and spices as well as hard and decorative. Plantation crops that will be encountered such as rubber, sugar cane, cocoa (plantation crops cultivated by the people) there are also forest: cultivated by the people who work with local governments such as teak and acacia plants. EIA III-45 Data distribution of crop area in each section as mentioned below: Section I: Area of paddy field irrigated area of 0.3 hectares, 40.2 hectares rainfed lowland; field is 9.6 ha, 6.0 ha unproductive land, vacant land and forest area of 1.5 hectares to reach 75.3 Ha. Section II: Area of irrigated area reached 36.3 ha paddy field, rainfed lowland forest: 3.0 ha and 25.8 ha. There were no field and unproductive land. Section III: Area of paddy field irrigated area of 13.5 hectares, 17.7 hectares rainfed lowland; field is 5.4 ha, 28.5 ha unproductive land and forest to reach 79.5 hectares, 33.15 hectares garden. Section IV: The total area irrigated paddy fields amounted to 35.1 ha; field is 2.4 ha, 8.1 ha unproductive land, and reached 65.4 ha forest. There is no rainfed lowland. Section V: The total area irrigated paddy field is 42.3 ha, 22.5 ha field and forest area of 12.3 ha Section VI: The total area irrigated paddy fields covering an area of 50.7 ha, 0.9 ha field and forest of 9.1 ha. There is no rainfed lowland. From the secondary data (CPM) obtained information on upland food crops which are found in the study area include maize, cassava, sweet potato, soybeans, green beans. For fruit crops like mango, rambutan, durian, guava, banana, papaya, sapodilla, jackfruit and other potential commodities is the red peppers and red onion. Plantation crops are found, such as clove, coconut, coffee, cotton, bamboo, palm, tobacco and sugarcane. Although very high in West Java has a diversity of different types of flora, but the toll road alignment does not cross the protected area. Results of observation on the composition of the flora / vegetation in the study area, may not find the type of vegetation protected under the Government Regulation No. 7 / 1999. Based on the cover / vegetation coverage in the study area is generally dominated vegetation on ecosystem partner cultivation of agricultural land (annual crops), mixed garden and yard, plantation crop land, forest and forest people of the state (chronic perennials). The types that have a high IMP includes banana, coconut, teak, EIA III-46 bamboo, clove and cashew nuts. In Indramayu mango crop looks quite prominent. The result of the composition of vegetation in the study area is presented in 3:11 and 3:12 on the label below. The table shows that the diversity of plants around study area (all sections) are evenly distributed, with ID value between 3362 -3452. While the links of Indramayu (sections III and IV) the density of plants per hectare is lower than in other sections. Data more are presented in Table III.13. 3.2.2 Land Fauna As the flora, fauna contained in the study area based on secondary data I inventoried consist of species of mammals (berkelenjar animal milk), 1 herpetofauna consists of amphibia and reptiles and many species of birds. Mammal species are found among others of the class Erinaceidae, Soricidae, Tupaiidae (squirrel) Pteropodidae, Emballonuridae, Nycteridae, Rhinolophidae, Mustelidae (weasels), and others. Observation of the existence of fauna habitat kondiisi done based on those found in Study areas include the paddy fields / field, mixed-yard garden and shrubs. Data collection was the diversity of fauna / wildlife includes species from the class of insects, amphibians, reptiles, aves / birds and mammals, including pets. Fauna data are collected by direct encounter, voices, footsteps, the former nest and direct interviews with residents near the location at the time of observation. Table III.11 No Types of Cultivated Plants Local Name Rice and Secondary Crops 1 Rice 2 Corn 3 Sugar Cane 4 Sweet Potato / Buled 5 Cassava/Capu/Sampeu II Vegetable and Spices 1 Spinach 2 Onion Leaves 3 Bonteng 4 Bean 5 Big Chili 6 Rawit Chili 7 Ginger 8 Squash 9 Velvetleaf 10 Green Bean Scientific Name Note I EIA Oryra sativa var IR 64; Ciherang. Sadane Zea mays Sacc/iarum ofHcinarum Ipomoae batatas Manihot escu/anta Food Crop Food Crop Food Crop Food Crop Food Crop Amaranthus lividus Altium fistutosum Cucumis sativus Phaseolus vulgaris Capsicum annuum Capsicum frutescens Zingiber officinaie Luffa acutangula Limnocharis Have Phaseolus radiatus Vegetable Crop Vegetable Crop Vegetable Crop Vegetable Crop Vegetable Crop Vegetable Crop Vegetable Crop Vegetable Crop Vegetable Crop Legumes/Nuts III-47 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 III. 1 2 3 4 5 6 7 8 9 10 11 12 13 No 1 2 3 IV. 1 2 3 4 5 Red Bean Long Bean Peanut Water Spinach Kapol Soybean Kencur/Cikur Kunci Turmeric Konyal Cabbage/Engkol Siem Pumpkin Pepper Galangal/Laja/Laos Radish Pineapple Paria/Pare Chinese Cabbage / Mustard Watermelon Lemongrass Eggplant/Encung Tomato Pumpkin Carrot Herbs, bush reeds Alang-alang (reed) Buntut tikus (rat tail) Water Hyacinth Gelagah (reed) Hanjuang Haredong Kiambang Kirinyuh Pakis pedang Pakis resam Pis Kucing Rerumputan (grass) Sente Local Name Phaseolus lunatus Vigna sinensis Arachis hypogaeae Ipomoea aquatica Amomum compactum Glycine max Kaempferia galanga Boesenbergia rotunda Curcuma tonga Passiflora edulis Brassica oleracea var. capitata Sechium edule Piper nigrum Alpinia galanga Raphanus sativus Ananas comusus Momordica charantia Brassica chinensis Citrullus tanatus Cymbopogon nardus Solatium melongena Solatium lycopersicum Cucurbita moschata Daucus carota Legumes/Nuts Legumes/Nuts Legumes/Nuts Vegetable Crop Imperata cylindrica Stachytarpheta jamaicensis Eiclmrrnia crassipes Saccharum spontaneum Cordyline fruticosa Melastoma malabathricum SaMnras pp. Eupahatorium odoratum N&phrolepis biserrata Gleichenia linearis Mimosa invisa Famili: Poaceae Alocasia spp Weed Weed Weed Weed / Water Herb Biased Divider Crop Perdu Water Herb Weed Weed Weed Weed Weed - Scientific Name Legumes/Nuts Medicinal Plant Medicinal Plant Medicinal Plant Vegetable Crop Vegetable Crop Herb Plant Herb Plant Vegetable Crop Fruit Crop Vegetable Crop Vegetable Crop Fruit Crop Medicinal Plant Vegetable Crop Fruit Crop Vegetable Crop Vegetable Crop Note Sikejut Taleus Teki-tekian Lyana and Epiphyte Mimosa pudica Colocasia spp. Famili : Cyperaceae Weed Ornamental Plant Weed Kadaka Pakis kepala tupai Asplenium nidus Dynaria quersifolia Dynaria rigidula Drymoglossum pilosselloides Piper betle Ornamental Plant Pasilan Kelapa Sisik naga Sirih (betel) Medicinal Plant Medicinal Plant From the composition of acquisition data of diversity of wildlife in the study area, it was still to be found 9 (nine) species classified as aves are still protected under the Government Regulation No. 7 / 1999. Type in question include: Kestrel (alap-alap), Intermediate Egret (blekok), Sun bird (burung madu), Collared Kingfisher (cekakak), Brahminy Kite (elang bondol), Brown-throated Sunbird (sesap madu kelapa) and EIA III-48 Blue-eared Kingfisher (tetengket). Data on pets / animals that are often encountered include: goats (Capra Capra domestica), cow (Bos Sagittarius), buffalo (Bos bubalis), dogs (Canis canis familiaris), cats (Felis felis familiaris), domestic poultry (Gallus Gallus domesticus), ducks (Anas luzonica), Indonesian Teal Ducks (Anas gibberifrons) and geese (Anas sp.). EIA III-49 Table III.12 Composition and Type No 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 Trees and Shrubs in the Project Location Area Local Name Akasia besar Akasia kuning Angsana Alpuket (Avocado) Aren Bambu*) (Bamboo) Bayur Belimbing (Starfruit) Beringin Bungur Cengkeh (Cloves) Cerme (Otaheite Gooseberry) Duku Duren (Durian) Flamboyan Gamal Gempol Hereno Jambu air (Water Rose Apple) EIA Scientific Name Acasia mangium Acasia auriculiformis Pterocarpus indica Persea Americana N 3 2 3 2 Purwakarta (Section I) INP H 3.44 0.070 2.29 0.051 3.44 0.070 2.29 0.051 Arenga pinnata Bambusa spp. 4 14 4.59 13.11 0.087 0.179 Pterospermum javanica Averrhoa carambola 1 1.15 0.030 4 3.85 0.076 Ficus spp. Lagerstroemia reginae Syzygium aromaticum Cicca accida 1 3 1.15 3.44 8 flos- Lansium domesticum Durio zibethinus Delonix regia Gliricidia sepium Nauclea cordata Microcos tomentosa Syzigium aqueum Subang (Section I, II, III) N INP H 5 15 Indramayu (Section III, IV) N INP H 0 0.000 3 2.74 0.059 4 3.91 0.077 2 1.56 0.038 Majalengka (Section IV, V, VI) N INP H 3 2.14 0.049 6 4.28 0.082 0.00 0.000 2 1.71 0.041 3.77 11.31 0.075 0.162 1 14 1.17 12.51 0.030 0.173 1 9 1.28 5.57 0.032 0.100 0.00 0.000 1 1.17 0.030 2 2.57 4 3.40 0.069 2 1.56 0.038 2 0.030 0.070 2 2.02 0.00 0.046 0.000 2 2 1.56 2.35 0.038 0.052 7.70 0.125 6 4.14 0.080 0 2 1.56 0.038 1 1.01 0.027 1 4 3 2 6 2 1 2 3.85 2.71 2.29 5.41 1.56 1.15 2.29 0.076 0.058 0.051 0.098 0.038 0.030 0.051 1 3 1 11 1.01 3.03 1.01 6.64 0.00 0.00 2.02 0.027 0.063 0.027 0.113 0.000 0.000 0.046 1 2 12 3 4 2 2 N 4 6 4 Cirebon (Section VI) INP H 0.00 0.000 3.04 0.064 4.55 0.086 3.80 0.075 16 0.00 2.91 0.000 0.177 0.056 1 1.14 0.029 1.71 0.041 2 2.28 0.051 3 2 3.85 1.71 0.076 0.041 2 1 2.28 1.14 0.051 0.029 0.000 1 1.28 0.032 2 1.52 0.037 1.17 0.030 1 1.28 0.032 1 1.14 0.029 0.00 1.17 1.56 6.23 2.74 3.91 1.56 0.000 0.030 0.038 0.108 0.059 0.077 0.038 2 1 2.57 1.28 0.00 7.71 3.00 3.85 2.57 0.056 0.032 0.000 0.126 0.063 0.076 0.056 3 5 2 8 1 2 1 3.42 4.18 1.52 4.55 1.14 1.52 1.14 0.070 0.081 0.037 0.086 0.029 0.037 0.29 10 3 3 2 III-50 20 21 Jambu biji Psidium guajava (Guava) Jambu mete Anacardium (Cashew) occidentale Composition and Type No Local Name 22 Jati (Teak) 23 Jeruk besar (Pomelo) 24 Jeruk siem (Orange) 25 Jeunjing 26 27 Johar Kapuk 28 29 Karet (Rubber) Kelapa (Coconut) Kemiri (Candlenut) Kersen 30 31 32 33 34 Scientific Name Tectona grandis Citrus maxima Paraserianthes falcataria Cassia siamea Ceiba pentandra Havea brasiliensis Cocos nucifera 1.15 0.030 3 3.03 0.063 3 2.74 0.059 2 2.57 0.056 1 1.14 0.29 0.00 0.00 12 10.83 0.158 1 1.17 0.030 1 1.28 0.032 2 1.52 0.037 Purwakarta (Section I) N INP H 10 10.00 0.000 0.00 0.000 Citrus sinensis Aleurites moluccana Muntinga calabura Kihujan (Rain Samanea Tree) saman Kijaran Lannea coromandelica Kopi (Coffee) Coffea spp. EIA 1 Subang (Section I, II, III) N INP H 10 10.09 0.151 1 1.01 0.027 0.00 0.118 3 2.39 0.053 10 7.06 0.038 5 3.13 0.065 2 3 1.56 2.71 0.058 0.126 3 11 2.39 9.18 0.053 0.141 10 10 7.79 11.47 0.164 0.076 25 14 15.66 11.57 0.199 0.165 4 3.85 0.000 2 2.02 0.046 0.00 0.000 0.00 0.000 0.00 0.000 1 1.01 0.00 0.000 2 5.82 0.103 11 7 Indramayu (Section III, IV) N INP H 6 3.11 0.065 0 0.000 Majalengka (Section IV, V, VI) N INP H 25 19.28 0.225 1 1.28 0.032 Cirebon (Section VI) N INP H 17 12.52 0.173 0.00 0.000 0 0.000 4 4.28 0.082 0.00 0.000 8 5.463 0.098 11 7.29 0.121 0.00 0.000 3 6 2.738 6.263 0.059 0.108 5 2 3.86 1.71 0.076 0.041 1 3 1.14 3.42 0.029 0.070 14 0 13.30 0.000 0.180 6 0.00 7.70 0.000 0.125 8 0.00 5.31 0.000 0.096 0 0.000 1 .28 0.032 0.00 0.000 7 5.86 0.103 0.00 0.000 5 4.94 0.091 0.027 5 5.87 0.104 0.00 0.000 12 12.16 0.170 2.02 0.046 6 4.69 0.088 3.43 0.070 11 11.02 0.160 7.91 0.128 0 0.000 0.00 0.000 0.00 0.000 4 III-51 No Composition and Type Local Name 35 Lamtoro Scientific Name Leucaena leucocephala 36 Mahoni Swietenia macrophylla 37 Mangga (Mango) Mangifera indica 38 Manggis Garcinia mangostana (Mangosteen) 39 Melinjo/Tangkil Gnetum gnemon 40 Mengkudu Morinda citrifolia 41 Nangka Artocarpus (Jackfruit) heterophyllus 42 Pala (Nutmeg) Myristica fragans 43 Pepaya Carica papaya (Papaya) 44 Peuteuy Parkia speciosa 45 Pinang (Areca Areca catechu Nut) 46 Pisang Musa paradisiacal (Banana) 47 Rambutan Nephelium lapaceum 48 Rengas Gluta renghas 49 Salak (Snake Salaca edulis Fruit) 50 Salam Syzigium polyanthum 51 Sawo Achras zapota 52 Sirsak Annona muricata (Soursop) 53 Sukuh Artocarpus communis 54 The (Tea) Camellia sinensis 55 Turi Sesbania grandiflora Kerapatan per 1000 m2 EIA Purwakarta (Section I) N INP H 0.00 0.000 Subang (Section I, II, III) N INP H 12 7.01 0.117 Indramayu (Section III, IV) N INP H 11 8.20 0.131 Majalengka (Section IV, V, VI) N INP H 9 6.43 0.110 Cirebon (Section VI) N INP H 15 13.29 0.180 2 0.051 0.000 0.030 5 2 1 3.13 1.38 1.01 0.065 0.034 0.027 6 22 1 2.29 0.00 1.15 5.48 20.28 0 0.099 0.232 0.000 8 26 1 10.27 19.71 1.28 0.152 0.228 0.032 4 26 1 3.04 16.68 1.14 0.064 0.207 0.029 6 2 2 6.88 2.29 2.29 0.116 0.051 0.051 8 2 5 6.80 1.38 4.41 0.115 0.034 0.084 8 2 4 4.68 2.35 4.70 0.088 0.052 0.088 4 2 4 3.43 1.71 5.14 0.070 0.041 0.094 16 5 4 9.09 3.41 3.80 0.141 0.069 0.075 3 4 3.44 2.38 0.070 0.053 1 5 1.01 3.77 0.027 0.075 8 0 5.46 0.000 0.098 5 0.00 4.71 0.000 0.088 8 0.00 5.31 0.000 0.096 8 5 6.23 4.26 0.108 0.082 3 11 2.39 9.82 0.053 0.148 7 3 6.65 3.52 0.113 0.071 2 3 2.57 3.85 0.056 0.076 7 1 4.93 1.14 0.091 0.029 66 34.51 0.303 48 24.21 0.256 44 24.14 0.255 36 18.01 0.217 37 17.02 0.210 6 3.94 0.00 0.00 0.077 0.000 0.000 4 0.079 0.000 0.046 3 2 3 3.52 2.35 1.95 0.071 0.052 0.045 4 3 2 4.03 0.00 2.02 3.43 3.00 0.00 0.070 0.063 0.000 11 1 3 7.20 1.14 3.42 0.120 0.029 0.070 2 3 0.00 2.29 3.44 0.000 0.051 0.070 1 1 1 1.01 1.01 1.01 0.027 0.027 0.027 1 2 1 1.17 2.35 1.17 0.030 0.052 0.030 1 4 5 1.28 5.14 6.42 0.032 0.094 0.110 3 1 1 2.66 1.14 1.14 0.057 0.029 0.029 2 3 4 243 1.56 1.97 2.38 200.00 0.038 0.046 0.053 3.390 3 3.03 0.00 0.00 200 0.063 0.000 0.000 3.362 1 1.17 0 2.73 3.407 0.030 0.000 0.059 3.407 1 1.28 0.00 0.00 200 0.032 0.000 0.000 3.452 265 0.000 0.000 0.000 200 0.000 0.000 0.000 3.383 269 5 258 233 III-52 Density per ha Equivocal Frequency (s) Diversity Index (H’) H’maximum (In s) Equitable Index (H’/H’maximum) EIA 2430 44 3.390 3.784 0.896 2690 45 3.362 3.807 0.883 258 44 3.407 3.784 0.900 2330 45 3.452 3.807 0.907 2650 43 3.383 3.761 0.899 III-53 Table III.13 No I. 1 2 3 4 5 6 5 7 8 9 II. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 III. 1 2 3 EIA Fauna Composition in the Project Area Class and Type Local Name Scientific Name INSECT Belalang coklat (Brown Grasshopper) Capung (Dragonfly) Kupu-kupu (Butterfly) Kumbang (Beetle) Lebah (Western Honey Bee) Lalat besar (Big Fly) Lalat hijau (Horse Fly) Lalat rumah (Common House Fly) Lembing Nyamuk (Mosquito) AMPHIBIAN Bancet Katak paddy field (CrabEating Frog) Katak hijau (Cricket Frog) Katak pohon (Tree Frog) Kodok budug (Common Asiatic Toad) REPTILES Byawak (Water Monitor) Bunglon (Chameleon) Cicak pohon (Common House Gecko) Cicak terbang (Flying Dragon) Kadal (Skink) Obervation I II III Kind of Encounter Note Rana limnocharis ⊕ ⊕ ⊕ PL pest Ordo : Odonata Ordo : Lepidoptera Ordo : Coleoptera Aphis mellifera Sarcophagus sp. Tabanus sp. Musca domestica ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ PL PL PL PL PL PL PL predator pest pollinator pest pollinator vector disease vector disease vector disease Ordo : Hemipetera Aedes spp., Anopheles spp., Culex i ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ PL PL pest vector disease Microhylla sp. Rana cancrivora ⊕ ⊕ PL PL predator insect predator insect Rana limnocharis Rachophorus spp. Bufo melanostictus ⊕ PL PL PL predator insect predator insect predator insect Varanus salvator Calotes jubatus Hemydactylus frenatus Draco volans ⊕ ⊕ ⊕ W PL PL, S predator pest predator pest predator pest ⊕ PL predator pest ⊕ PL predator pest ⊕ ⊕ ⊕ PL, S W predator pest protected*) ⊕ ⊕ PL predator pest ⊕ ⊕ ⊕ ⊕ W W predator pest predator pest ⊕ ⊕ W predator pest Mabouya multifasciata Tokek Pohon (Tokey Gecko) Gecko gecko Oray sanca (Asiatic Phyton reticulates*) Reticulated Python) Oray kadut (Masked Water Homalopis buchatta Snake) Oray pucuk Dryopsis prasinus Oray hejo (Tree Viper) Trimeresurus albolabris Oray khoros (Southern Naja sputatrix Indonesian Spitting Cobra) Kuya Amyda sp. AVES Alap-alap (Kestrel) Accipiter sp. *) Ayaman (Watercock) Gallicrex cinerea Bentet (Long-tailed Shrike) Lanius schach ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ W ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ W W, PL PL protected*) III-54 4 5 6 No III. 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 IV. 1 2 3 4 5 6 EIA Blekok (Intermediate Egret) Egretta intermedia Burung gereja (Eurasian Passer montanus Tree Sparrow) Burung madu (Sunbird) Nectarinia spp *) Class and Type Local Name Scientific Name AVES Cabak maling (Nightjar) Cabean (Scarlet-headed Flowerpecker) Cekakak (Collared Kingfisher) Cici padi (Zitting Cisticola / Warbler) Cipoh (Common Lora) Elang bondol (Brahminy Kite) Emprit (Javan Munia) PL PL protected*) ⊕ PL protected*) Obervation II III Kind of Encounter ⊕ ⊕ PL PL ⊕ I Caprimulgus sp. Dicaeum trochileum ⊕ Haicyon chloris *) ⊕ PL, S Cisticola juncidis ⊕ PL Aegithina tiphia Haliastur indus Lonchura leucogastroides Jog-jog Pycnonotus leucogastrioides Kedasih (Plaintive Cuckoo) Cuculus merulinus Kokokan Ixobrychus sp. Kutilang (Sooty-headed Pycnonotus Bulbul) aurigaster Layang-layang (Swallow) Hirundo sp. Prenjak (Bar-winged Pinia) Prinia famillaris Pungguk (Brown Hawk-Owl) Ninox scutulata Sesapmadu kelapa (Brown- Anthreptes throated Sunbird) malacensis *) Srigunting (King Crow) Dicrucus macrocercus Tekukur (Spotted Dove) Stretopelia striata Tetengket (Blue-eared Aicedo meniting *) Kingfisher) Wallet kusapi (Swiftlet) Colacalia linchii Wallet liur (Edible-nest Colocalia fusiphaga Swiftlet) Puyuh (Quail) Coturnix spp. Bubut semak (Lesser Centropus Coucal) bengalensis MAMMAL Bajing (Plantain Squirrel) Callosciurus notatus Codot (Fruit Bat) Pteroptus spp. Cecurut (Asian House Suncus murinus Shrew) Careuh (Asian Palm Civet) Paradoxurus hermaphroditus Tikus paddy field (Rat) Rattus sp. Garangan (Small Asian Herpectes javanicus ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ PL ⊕ S W PL ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ ⊕ protected *) protected *) PL ⊕ ⊕ S W Note PL PL, S W, S PL protected *) protected *) ⊕ W ⊕ PL, S PL protected *) ⊕ ⊕ PL PL economic**) ⊕ ⊕ W N, ⊕ ⊕ ⊕ PL PL PL pest pollinator insecttivor ⊕ W pest PL pest pest ⊕ ⊕ ⊕ W III-55 7 Mongoose) Walangkopo (Flying Squirrel) Ptaurista elegans ⊕ W insecttivor Source : Primary Data, 2007. Note : *) Protected PP No.7/1999; **): producing bird nest-wallet (in the region found many swiftlet house ") I. Paddy field / field-river flood plains; II: mixed-yard garden; III: bush-shrub; PL Perjumpan directly; TL: Direct Encounter (S: sound; A: Traces; N: advice); WP: information on the results of interviews with residents around. 3.2.3 Water Biota Components of existing water biota in the study area include: ● Plankton ● Benthos ● Nekton / Fish The components are a reflection of the existence of chemical physics and environmental dynamics. In a third presence component will relate to each other in a series of life functions in the ecosystem. Plankton: In waters, plankton are biological factors that have a very big role. Plankton are micro organisms that live floating in the water column and its movement is affected by water movement. Plankton can consist of plant plankton (phytoplankton) and animal plankton (zooplankton). Plant plankton is the main primary producer in most waters, while animal plankton is the first consumer and producer of energy transfer to higher levels of consumer organisms such as shrimp and fish. As a primary producer and consumer, plankton is strongly influenced by changes in water quality. Thus, the plankton community structure can be an indicator or direction changes in water quality, through assessment of the stability and quality of aquatic environment by looking at the composition and abundance of plankton. Plankton sampling was carried out in several rivers in order to determine the condition of local waters by using bio-indicators of this. Benthos: Biota benthos can actually consist of fitobenthos and zoobenthos, both macro and EIA III-56 micro-sized or macroscopic. In general, who served as an indicator of environmental impact is macro zoobenthos. Macrozoobenthos is a bottom-dwelling organism that is relatively settled and does not migrate. In terms of general food chain, it goes from detritus feeders, filter feeders and scavenger carrion eaters. Thus, this animal organism plays a role in the relative energy reuse will be lost to the bottom waters. With its relatively settled habit, the macro-zoobenthos communities of organisms are organisms that suffer the most from affected aquatic environments. Therefore, the structure of macro-zoobenthos communities are good indicators of aquatic environmental impacts. Nekton / Fish: In the study area of which there is a large river; Cimanuk river. These waters carry 40 types of fish which are classified into 20 tribes with the tribe Cyprinidae dominating with 13 species of fish. In addition, the types of other fish that are found among are the Freshwater pomfret fish (ikan bawal air tawar), carp (mas), nila, mujair, catfish (lele), ikan seribu, tambra, and others. Based on analysis of plankton, benthos are taken from the 9 (nine) rivers namely S Ciherang, S. Cimalaya S. Cibodas, S. Ciasem, S. Cilamtan, S. Cipunegara, S. Cipanas, S. Cimanuk and S. Ciwaringin obtained data as Table III:14 below: Table III.14 No 1. EIA Plankton and Bentos In the Project Area Species PLANKTON Phytoplanton CYANOPHYTA Anabaena sp Meristomopedia sp1 Meristomopedia sp2 Oscillatoria sp1 Oscillatoria sp2 Oscillatoria sp3 Cyanophyta sp1 CHRYSOPHYTA Amphiprora sp Anemoneis sp Coscinodiscus sp Cyclotella sp Cymbella sp Diatoma sp1 Diatoma sp2 I II III 1 2 1 1 2 1 42 69 1 14 10 26 14 1 2 11 3 1 4 12 14 1 IV V VI VII VIII IX 1 1 1 1 1 1 1 94 18 3 7 114 12 157 18 8 47 4 10 14 6 III-57 1 2 1 4 6 37 4 1 1 Fragillaria sp1 No 2. EIA Species Fragillaria sp2 Fragillaria sp3 Frustulia sp2 Frustulia sp3 Gamphonema sp1 Gamphonema sp2 Gyrosigma sp1 Gyrosigma sp2 Navicula sp1 Navicula sp2 Navicula sp3 Navicula sp4 Nitzchia sp1 Nitzchia sp2 Pleurosigma sp1 Pleurosigma sp2 Pleurosigma sp4 Surirella sp1 Surirella sp2 Surirella sp3 Surirella sp4 Synedra sp1 Synedra sp2 Synedra sp3 Closterium sp1 Golenkinia sp Pediastrum sp Scenedesmus sp Scenedesmus dimorphis Spirogyra sp1 Spirogyra sp2 Ulothrix sp1 Ulothrix sp2 CHLOROPHYTA Astasia sp Euglena sp1 Euglena sp2 Euglena sp3 Phacus sp2 Peranema sp Phacus sp1 TOTAL / 3 ml sample TOTAL TAXA Index Diversity H’=-Epi In pi H-Max = Ln S Equitability (E) = H1/Hmax Zooplankton COPEPODA Harpaticoida sp1 Cyclopoidae 60 I 4 II 21 III 57 IV 9 V 73 VI 72 VII 14 44 1 4 49 36 1 129 VIII 55 28 42 IX 1 1 2 2 1 3 1 3 1 1 3 1 15 2 43 1 62 1 2 1 1 43 2 2 2 8 8 78 18 4 1 5 11 1 22 2 2 17 22 8 3 6 2 261 123 18 2 3 2 2 2 1 101 17 2 23 1 1 1 55 1 25 3 6 71 1 1 7 3 51 11 1 17 1 1 11 1 53 1 9 11 1 81 22 1 1 1 1 1 3 1 11 56 1 47 31 4 8 1 3 48 42 6 13 114 2 82 3 8 1 82 4 3 37 1 22 50 7 2 1 8 5 2 7 1 7 1 1 27 1 1 21 1 2 129 13 2 167 2 758 348 76 1242 358 905 83 28 2.20 3.33 0.66 29 2.87 3.37 0.85 26 2.72 3.26 0.83 21 2.48 3.04 0.81 17 2.32 2.83 0.82 27 2.51 3.30 0.76 18 2.03 2.89 0.70 35 2.80 3.56 0.79 16 1.87 2.77 0.67 1 1 III-58 No Species Copepoda (nauplius sp 2) 3. Zooplankton ARTHOPODA CRUSTACEA BRANCHIOPHODA Branchiophoda sp1 Daphnia sp Zooplankton COPEPODA Copepoda (naulius sp1) Copepoda (naulius sp2) PROTOZOA CILIOPHORA Lionotus sp1 Lionotus sp2 Lionotus sp3 Colpotidae Euplotidae Nassulidae sp1 Nassulidae sp2 Stetor sp Vorticella sp1 Vorticella sp2 Ciliophora sp1 Ciliophora sp2 Ciliophora sp3 Ciliophora sp4 HELIOZOA Actinophrys sp Actispherium sp RHIZOPODA Amoeba sp Arcella sp1 Arcella sp2 Arcella sp3 Arcella sp4 Arcella sp5 Arcella sp6 Centropyxis sp Diflugia sp1 Diflugia sp2 Eugypha sp1 Eugypha sp2 Rhizopoda sp1 Rhizopoda sp2 Rhizopoda sp3 TROCHELMINTES ROTATORIA Branchionus sp Lecane sp Mytilina sp Notholca sp Rotaria sp1 Rotaria sp2 Rotaria sp3 4. EIA I II 1 III IV V VI VII 1 VIII IX 22 2 4 1 1 1 21 1 9 30 12 3 2 9 18 11 1 1 1 5 2 4 1 42 15 43 1 18 1 1 1 1 4 3 169 8 4 80 5 20 13 22 2 2 24 2 53 5 4 81 1 1 1 10 1 2 59 40 22 16 33 1 10 65 3 2 101 3 4 15 1 1 9 22 1 2 2 1 28 6 6 105 10 1 1 3 30 1 3 41 1 5 3 2 6 3 7 1 4 1 1 2 5 2 2 2 1 1 1 1 3 III-59 No Species Rotaria sp1 Trichocerca sp Ploima sp1 NEMETHELMINTHES Nematocia sp1 TOTAL / 3ml sample TOTAL TAXA Index Diversity H’=-Spi In pi H-Max = Ln S Equitability (E) = H1/Hmax BENTHOS MOLUSCA BIVALVA Bivalia sp1 Corpicula sp GASTROPODA Anentome Helena Anentome sp Melanoides sp1 Melanoides sp2 Melanoides sp3 Thiara sp ANNELIDA OLYGOCHAETA Branchiura sowerbyii Tubificudae sp1 Tubificudae sp2 Olygochaeta sp1 ARTHROPODHA INSECTTA DIPTERA Chironomidae sp1 Chironomidae sp2 NEMATHELMINTHES Nematoda sp1 Nematoda sp1 TOTAL / 3ml sample TOTAL TAXA Diversity Index H’=-Spi In pi H-Max = Ln S Equitability (E) = H1/Hmax I 1 5 4 1 69 II 3 7 III IV 1 55 V VI VII IX 8 1 264 58 227 3 70 15 2.23 2.71 0.82 14 1.78 2.64 0.67 13 1.61 2.56 0.63 11 160 1 49 557 2 111 20 2.41 3.00 0.80 13 1.98 2.56 0.77 6 0.98 1.79 0.55 25 2.23 3.22 0.69 12 1.88 2.48 0.76 15 1.87 2.71 0.69 12 1 1 2 1 2 3 2 1 2 4 6 5 6 5 3 1 3 8 2 6 1 1 12 6 1 1 1 2 1 1 1 1 1 2 3 16 4 2 25 14 4 17 13 16 4 0.82 1.39 0.59 3 1.04 1.10 0.95 2 0.69 0.69 1.00 6 1.41 1.79 0.79 4 1.20 1.39 0.86 2 0.69 0.69 1.00 5 1.40 1.61 0.87 3 0.93 1.10 0.84 7 1.69 1.95 0.87 Source : Sampling Sucofindo, 2007 Note : I = River Ciherang, II = S. Cimalaya; III = S. Cibodas; IV = S. Ciasem; V = S. Cilamatan; VI = S. Cipunegara; VII = S. Cipanas; VIII = S. Cimanuk dan IX = S. Ciwaringin From the analysis above shows H 'in nine river varied between 0.69 - 1:41 which EIA VIII 1 III-60 shows that the condition of waters can be classified as polluted, and the standard of quality shows that there are some parameters which have passed the threshold, such as BOD and phosphate. ECONOMIC SOCIAL AND CULTURAL COMPONENT 3.3 The planned Cikampek-Palimanan toll-road is one form of supporting infrastructure for economic growth especially in West Java. The position of West Java is geographically located in a strategic position because it is close to the capital city of Jakarta. In other words, West Java enjoys geographical and political proximity to the economic center and national government. At the macro level, West Java has the potential for extraordinary economic capabilities and for capturing optimal investment opportunities. A general description of the potential of West Java province is, among others: 1. In the Industrial sector, the province of West Java is one of the largest manufacturing base in Indonesia; 2. In the field of commerce, West Java is the basis of National Non Oil Export. 3. In education, West Java is one of the national education bases as most of the private universities are in the region. 4. West Java has large potential of tourism so that is a Tourist Destination Region Community Capital of the State. 5. West Java has powerful human resources and potential for industrial activities. 6. In terms of West Java territorial revenue: Spill Over both the infrastructure and settlement and transportation. Seeing the tremendous potential, the existence of the toll road is a strategic infrastructure improvement that can be used for strengthening the region's economy. The following is the socio-economic environmental setting of the study area based on BPS data for each district last year (output BPS). 3.3.1 Population The population of West Java in 2006 was 38.47 million people with a population growth rate on average of 1.29%. Largest population is at the Bandung District with as much as 4.09 million people, and the smallest is in Banjar district with as many as 0.16 million people. The number of households in 2006 in West Java reached 10,196,064 households. The highest was in Bandung regency ie 1,058,816 EIA III-61 households, followed by 904,608 in Bogor District and then in Suregencyumi district with 584,384 households. Population density in West Java reached 1314.09 people per km2. Bandung Regency is the area with the highest population density; 13296.55 people/km2, while the lowest was at 666.02 people/km2 in Ciamis district. The population and territory profile of each district is as follows: Subang Regency Residents of Subang district in 2006 amounted to 1,391,997 persons, with the composition of the 699,783 men and 692,214 women. Population density reached 678.44 people/km2; where Subang district is a densely populated area that is people/km2 2200.40, 1073.78 people/km2 next Pamanukan District. The Legon District is an area west of the lowest levels with the density of 323.33 people/km2. The sex ratio (shows the number of resident males per 100 females) in Subang Regency is at 101.09. Judging from the composition of age groups, Subang regency population consists of 27.41% children (0-14 years); 8.02% teens (15-19 years); 33.83% youth (20-39 years) and 30.74% of old and elderly. Population conditions in the study area (in the districts through which the planned toll road is as follows: Subang is a district with a population of 120,296 inhabitants; followed by Pangaden district (81,316 inhabitants) and Pabuaran (67,764 inhabitants). The district with the smallest population, of 27,736 people, is Kalijati District. Likewise the largest population density in the study area is Subang District, and the Sub district of Pabuaran Pangaden. EIA III-62 Table III.15 Demography Conditions of Subang Regency Surrounding Project Area Sex Regency/City Male Female Subang 699.783 692.214 59.782 60.514 • Subang 40.254 40.254 • Pagaden 29.175 29.620 • Cipunagara 15.628 15.298 • Cibogo 33.927 33.837 • Pabuaran 37.593 37.143 • Kalijati 20.247 20.257 • Cipendeuy Source : Regency In Number, 2006 Sex Ratio Househol d Population Density (person/km2) 101,19 101,22 98,03 101,53 102,16 100,27 98,80 100,05 398.031 31.242 23.756 17.030 8.907 19.623 21.351 10.197 678,44 2.200,40 980,42 583,69 569,85 892,34 565,92 354,24 Total 1.391.997 120.296 81.316 58.795 30.926 67.764 27.736 40.504 Purwakarta Regency Purwakarta Regency population in 2006 numbered 782,362 persons, with the composition of 391,061 men and 391,301 women. Population density reached 805 people/km2; where Purwakarta district is a densely populated area of 57,900 people/km2; while Sukasari District is an area with the lowest level of density at 155 people/km2. The sex ratio shows the number of women per 100 men; the regions sex ratio is 99.94. Judging from the composition of age groups, the population of Purwakarta Regency consists of 26.78% aged 0-4 years; 68.97% aged 15-64 years and the remaining 4.25% of aged 65 years and over. Population conditions in the study area (in the districts through which the toll road is planned) is as follows: Bungursari has a population of 19,825 people and Campaka district has 17,093 inhabitants. Population density of 724 people/km2 is found in Bungursari District, and Campaka District 789 people/km2. EIA III-63 Area (km2) 2.051,76 54,67 82,93 100,73 54,27 75,94 49,01 114,34 Table III.16 Demography Conditions of Purwakarta Regency Surrounding Project Area Sex Regency/City Male Purwakarta • Bungur sari • Cempaka 391.061 19.751 17.325 Female 391.301 19.751 17.325 Sex Ratio Househol d Population Density (person/km2) 99,94 93,63 101,36 206.432 11.091 10.232 805 724 789 Total 782.362 19.825 17.093 Source : Regency In Number, 2006 Indramayu Regency Indramayu Regency residents in 2006 amounted to 1,697,986 persons, with the composition of the 865,682 men and 832,304 women. Population density reached 832 people/km2; where Karangampel District is an area that is densely populated with 1898 people/km2; while Cantigi District is an area with lowest population density of 240 people/km2. The sex ratio in Indramayu shows the number of females per 100 males, where sex ratio is at 104.01. Judging from the composition of age groups, population of Indramayu district consists of 7.90% children aged 0-14 years; 9.07% aged 5-9 years; 9.46% aged 10 14 years and 73.56%, aged 15 -75 years. Population conditions in the study area (in the districts through which the toll road is planned) is as follows: Gantar has a population of 64,643 people and Trisi district has 51,991 inhabitants. Population density in Gantar is 320 people/km2 and Trisi is 321 people/km2. EIA III-64 Area (km2) 971,72 54,66 43,60 Table III.17 Demography Conditions of Indramayu Regency Surrounding Project Area Sex Regency/City Male Indramayu 865.682 • Gantar 34.372 • Trisi 26.542 Source : Consultant, 2008 Female 832.304 30.271 25.449 Sex Ratio Househol d Population Density (person/km2) 104,01 113.55 104,29 443.183 14.783 15.113 832 320 321 Total 1.697.986 64.643 51.991 Area (km2) 2.040,11 202 161,97 Cirebon Regency Residents of Cirebon in 2006 amounted to 2,029,953 persons, with the composition of 1,014,672 men and 1,015,281 women. Population density reached 2049 people/km2; where Weru District is also a densely populated region with 5963 people/km2; Pasaleman District is an area with the lowest density level at 810.68 people/km2. The sex ratio in Cirebon shows the number of women per 100 population of men, where the sex ratio of 99.94. Population conditions in the study area (in the districts through which the toll road is planned) is as follows: Palimanan has a population of 54,662 inhabitants, there are 53,313 people in Ciwaringin, and 26,764 people in Gempol. Population density in Palimanan is 3181.72 people/km2, Ciwaringin is 2996.79 people/km2, and Gempol is 870.94 people/km2. Table III.18 Demography Conditions of Cirebon Regency Surrounding Project Area Sex Regency/City Male Cirebon 1.014.672 27.483 • Ciwaringin 13.269 • Gempol 27.592 • Palimanan Source : Tim Consultant, 2008 Female 1.015.281 27.830 13.495 27.070 Sex Ratio Househol d Population Density (person/km2) 99,94 98,75 98,33 101,93 534.407 9.055 11.410 14.849 2.049 2.996,79 870,94 3.181,72 Total 2.029.953 53.313 26.764 54.662 Majalengka Regency Majalengka population in 2006 numbered 1,169,337 people, with the composition of EIA III-65 Area (km2) 990,36 17,79 30,73 17,18 577,633 men and 591,704 women; Majalengka saw an increase of 0.75% when compared to the population of the previous year. The number of households increased to a high of 339,072 RT in 2004 to 392,544 RT in 2006, an increase of 15.77%. Population density reached 971 people/km2; Jatiwangi District is a densely populated district of 2032 people/km2; while Kertajati District is an area with the lowest density of322 people/km2. The sex ratio shows the number of women per 100 men, is 97.62. Population conditions in the study area (in the districts through which the toll road is planned) is as follows: Sub Dawuan is a district with a population of 85,644 people, followed by Jatiwangi (81,323 inhabitants) and Ligung (60,106 inhabitants). While the district with the smallest population of 27,736 people is Kalijati District. The largest population density in the study area is Jatiwangi District, Sumberjaya and Dawuan. Table III.19 Demography Conditions of Majalengka Regency Surrounding Project Area Sex Regency/City Male Majalengka 577.633 22.035 • Kertajati 42.385 • Dawuan 40.045 • Jatiwangi 29.372 • Ligung 23.175 • Palasah 27.422 • Sumberjaya Source : Tim Consultant, 2008 Female 591.704 22.585 43.259 41.278 30.734 23.989 28.879 Sex Ratio Househol d Population Density (person/km2) 97,62 97,56 97,98 97,01 95,56 96,61 94,95 392.544 16.939 30.651 26.445 21.732 15.874 18.747 971 322 1.546 2.032 966 1.219 1.720 Total 1.169.337 44.620 85.644 81.323 60.106 47.164 56.301 3.3.2 Socio-Cultural With regards to socio-cultural aspects, the parameters presented include, among others, employment, education and religion. The success in the field of social development is not only measured in terms of physical forms only, but physical and mental aspects. Physical aspects include the development of infrastructure and supporting facilities such as buildings. One of the efforts to achieve socio-cultural development made by the West Java provincial government has been to promote the various areas of business, education, health, religion and others. EIA III-66 Area (km2) 1.204,24 138,36 55,41 40,03 62,25 38,69 32,73 Employment Employment opportunities provide a big picture of the labor market absorption rate; those that are not absorbed in the labor force are classified as unemployed. In 2006, the total labor force in the province of West Java was as many as 16,636,057 people, in which those with active work were as much as 87.75% and 12.25% were unemployed. Most of the population of West Java is primarily employed in energy and energy production, agriculture and energy sales business. Percentage of people who worked on these types of work are 33.39%, 29.45% and 21.91%, respectively. Professionals are totaled at 3.81%. The number of unemployed people looking for work in West Java province is as many as 4,219,610 people. Of this number of job seekers, 69.3% are high school graduates; 11.6% are Bachelor graduates; and 10.2% are SLIP graduates or others. Indramayu Regency Based on data from the Department of Social and Labor in 2006, the number of unemployed job seekers is as many as 16,170, with levels of education varying from primary to vocational school. The study area is still facing problems, and a large number of unemployed in the region. The number of job seekers in the District of Gantar and Trisi are many as 3715 people, with various levels of education. Most of the workers were employed in the agricultural sector where they were farmers and tenants. Purwakarta Regency In 2006 there were 15,595 people jobseekers, 53.76% of whom are women. Of these, 46.77% female job seekers have a high school education level or equal. Meanwhile, the number of male job seekers who have a high school education level or equal amount to 70.67%. In total, the majority of job seekers have a high school education level, about 57.82%. Subsequently in 2006, the largest amount of job placements were filled by women who are high school educated or equivalent; 61.42%. Majalengka Regency Job seekers registered in 2006 reached 829 people, consisting of 500 women and 329 men. The list of job seekers by level of education can be seen in Table III:20. EIA III-67 Table III.20 Job Seeker Based on Its Education in 2006 Education Level Male Female No education Elementary school Junior high High school Diploma Graduate 6 101 498 3.983 444 932 38 55 692 2.946 804 925 Total 44 156 1.190 6.929 1.248 1.857 Source: Majalengka in Numbers, 2006 Education In 2006, the student to teacher ratio for elementary and junior/senior secondary schools (SD, SLTP and SLTA) was respectively 31:3, 17:85, and 16:55. Cirebon The spread of schools in the Cirebon district was fairly even and proportional to the population in general. Number of students was largest in primary school, however the number of students who proceed to junior secondary level is still very high, and this needs to be anticipated especially when linked to the 6 Years Compulsory Education Program. The number of students in elementary school and Ml in Ciwaringin district is 4588 and 779 students, respectively. The number of students in junior secondary school and MT in Ciwaringin is 3242 students and 1979 students each, and the number of senior high school and MA students are as many as 553 and 2518 students respectively. The number of students in Gempol District is as much as 5478 students in elementary school, and 347 students in junior high school students and MT. There is no high school in Gempol District. Indramayu There are 880 primary schools with as many as 193,924 pupils; 47,408 students in 115 junior high schools; 14,378 students in 42 high schools, and 10,928 students in 32 vocational schools. There are 11,550 teachers, with as many as 9712 teaching in primary schools, and the rest in junior / senior high / vocational schools. The number of elementary schools (both public and private) in the District of Gantar EIA III-68 total 33 schools. The number of students in elementary schools (public and private) are as much as 6281. The number of teachers in elementary schools (public and private) are as many as 277. The number of students in junior high schools (public and private) are as many as 1253. The number of teachers in junior high schools (public and private) as many as 85 people. There are no senior high schools in Gantar District. The number of elementary schools (public and private) in Trisi District are as much as 29 schools. The number of students in elementary school (public and private) are as much as 5862, and the number of teachers in elementary school (public and private) are as many as 235 people. Meanwhile, the number of students in junior high schools (public and private) are as many as 2416, and the number of teachers in junior high schools (public and private) are as many as 144. Meanwhile, the number of senior high school students (public and private) are as many as 477, and the number of teachers in senior high schools (public and private) are as many as 38. Purwakarta Regency In 2006, in Purwakarta Regency there were 536 schools ranging from elementary to senior secondary level, both public and private institutions, with a total of 147,115 students. Student-teacher ratio at the primary level is the ratio of students to teachers; and at the SLIP is 25, SMU 17 and CMS 17. When viewed in general, the situation in 2006 compared with 2003 saw the number of schools increase by 2.29% and the number of students increase by 4.01%. The number of teachers increased to 8.42%. The number of elementary schools (public and private) in Bungursari District were as many as 18 schools. The number of students in elementary school (public and private) were as much as 4464. The number of teachers in elementary school (public and private) were as many as 155. Meanwhile, there were only 2 public junior high schools. The number of students in secondary schools (public) was as much as 1439. The number of teachers in secondary schools (public) was as much as 68. There public) was as much as 259. Senior public high school teachers were as much as 31 people. There were 19 public elementary schools in Campaka District. The number of students in Campaka District public elementary schools was 3764 students. State EIA III-69 elementary school teachers numbered 154 people; Meanwhile, the number of students in secondary schools (public and private) were as many as 2416 students. There were only 2 Junior High Schools, with 1665 students and 54 teachers. Meanwhile, there was no senior high school in Campaka District. Subang Regency In 2006, the number of kindergarten schools in the district of Subang was as much as 83 schools, with 2995 students and 230 teachers. There were 892 public and private primary schools, with 152 769 students. There were 75 junior high schools with 43,771 students and 1897 teachers. There were 26 senior high schools with 14,276 students and 646 teachers. There were 24 graduate schools (SMK) with 8984 students and 583 teachers. There were 80 primary schools (public and private) in Subang district, with14,264 students and 690 teachers. Meanwhile, the number of junior high schools (public and private) was as many as 12, with 5701 students and 45 teachers. There were 7 senior high schools (public and private) with 6778 students and 248 teachers. There were 49 public and private elementary schools in Pangaden District, with 8028 students and 320 teachers; in the meantime, there were 2866 Junior High School students in 4 junior high schools, with 118 teachers. There was 1 senior high school with an enrollment of 871 students and 31 teachers. There were 31 public elementary schools in Cipunagara District, with 6097 students and 159 teachers; in the meantime, there were 3 public junior high schools with 1318 students and 35 teachers. There is no senior high school in Cipunaraga District. There are 20 state elementary schools in Cibogo District, with 2963 students and 167 teachers; meanwhile, there were 2416 students in 2 secondary schools (public and private). There were 757 junior high school students and 45 teachers. There is no senior high school in Cibogo District. There are 45 state elementary schools in Pabuaran District, with 7998 students and 242 teachers; in the meantime, there were 4 public junior high schools with 3030 students and 43 teachers. There was 1 private senior high school with 280 students and 7 teachers. There were 52 state elementary schools in Kalijati District, with 8214 students and EIA III-70 408 teachers. There were 6 public and private junior high schools with 3560 students and 158 teachers. There were 2 private senior high schools. 587 students attended both public and private senior high schools, with 30 teachers. There were 27 state elementary schools in Cipandeuy District, with 4600 students and 163 teachers; in the meantime, there were 1496 Junior High School students in 2 junior high schools, with 34 teachers. There was 1 senior high school, with 411 students and 12 teachers. Majalengka In Majalengka, available educational facilities include elementary, junior and senior high schools and universities. There were 834 elementary schools with 126,664 students, 6160 teachers and a student-teacher ratio of 21. There were 68 junior high schools, with 31,493 students and 1299 teachers and a student-teacher ratio of 25. There are 20 senior high school with 10,948 students and 23 teachers There were 33 elementary schools in Kartajati District, with 4431 students and 23 teachers; meanwhile, there were 977 Junior High School students in 2 junior high schools with 64 teachers. There is no senior high school in Kartajati District. There were 56 state elementary schools in Dawuan District, with 9217 students and 385 teachers; in the meantime, there were 4 public junior high schools with 1906 students and 78 teachers. There was 1 senior high school, with as many as 716 students and 38 teachers. There were 61 state elementary schools in Jatiwangi District, with 9470 students and 436 teachers; in the meantime, there were 4 junior high schools with 3065 students and 112 teachers. There was 1 senior high school, with as many as 833 students and 42 teachers. There are 46 state elementary schools in Ligung District, with 6690 students and 242 teachers; in the meantime, the number of public junior high schools was 3, with 1830 students and 64 teachers. There was 1 senior high school with a total of 200 students and 6 teachers. There were 52 state elementary schools in Palasah District 52 schools, with 8214 students and 408 teachers; Meanwhile, the number of students in junior high schools EIA III-71 (public and private) was as many as 3560, in 6 schools, with 158 teachers. There were 2 public and private senior high schools, with 587 students and 30 teachers. There were 27 state elementary schools in Sumberjaya District, with 4600 students and 163 teachers; in the meantime, there were 1496 students in 2 Junior High Schools with 34 teachers. There was 1 public senior high school with 411 students and 12 teachers. Religion In 2006, the number of places of worship for Muslims in West Java province was recorded at 110,021, which consisted of 42,605 mosques, 86,671 prayer rooms and 23,350 small mosques. There were 1,808 places of worship for other faiths, including 1521 Protestant churches; 103 catholic churches, 25 hindu temples, and 159 Buddhist monasteries. Cirebon A total of 99.71% of the population in Cirebon regency converted to Islam, with Protestants accounting for 0.16%, 0.09% Catholic, 0.02% Hindu and 0.02% Buddhists. As for places of worship, there were 687 mosques, 5507 small mosques, 6 catholic churches and 3 others (temples and monasteries). The number of adherents of Islam in Ciwaringin sub-district is as many as 66,042 people, with 2 Hindus and Buddhists. The number of adherents of Islam in Gempol is as many as 50,529 people, and there are no other faiths. Indramayu The majority of the population is Muslim, at as many as 1,691,185 people, followed by a Protestant population of 4762 people, 1647 Catholics, 142 Hindus, 232 Buddhists and 18 Confucians. As for places of worship, there were 778 mosques, 3782 prayer rooms, 242 small mosques, 17 Protestant churches, 9 Catholic churches and 4 monasteries. Islamic boarding schools were scattered in almost all districts, except in Cantigi and Balongan. There were 111 Islamic boarding schools with a total of 23,538 students. The number of adherents of Islam in Gantar is as many as 64,588 people; with 38 EIA III-72 Protestans, 7 Catholics, 4 Hindus and 6 Buddhists. The number of adherents of Islam in Terisi is many as 51,913 people; with 44 Protestants, 2 Catholics, and no Hindus or Buddhists. Purwakarta Regency The percentage of Muslim population in Purwakarta Regency is 98.98%, while the Catholic Christian population is 0.21%, Protestant Christianity is 0.73%, Hindus are 0.02%, and Buddhists are 0.06%. Places of worship include 846 mosques, 1046 surau, 12 churches, 1 temple and 3 monasteries. The number of adherents of Islam in Bungursari is as much as 97.66%; Protestants as much as 0.44%, Catholics as much as 1.87%, and 0.04% are Hindu. The number of adherents of Islam in Campaka is as much as 99.79%; Protestant as much as 0.06%; Catholics as much as 0.15%, and 0.01% Hindu. Subang Regency The population of Muslims is the majority with as much as 99.74%, followed by Catholic faiths 0.012%; Protestant Christian faiths 0.013% and the rest are Hindus and Buddhists. Places of worship include 1713 mosques; 2378 prayer rooms; 1224 small mosques and 21 churches. The number of adherents of Islam in Subang is as many as 119,097 people, followed by 461 Catholics, 692 Protestants, and the rest (23) are Hindu and Buddhist. The number of adherents of Islam in Pangaden is as many as 81,316 people; there are no other faiths in; the number of adherents of Islam in Cipunagara is 58,795 with no other religious believers. The number of religious believers of Islam in Cibogo is as much as 30,926 people with no other religious believers. The number of adherents of Islam in Pabuaran is as many as 67,764 people with no other religious believers. The number of adherents of Islam in Kalijati is as much as 74,458 people, followed by 64 Catholic religious adherents and 214 followers of Protestant Christianity. The number of adherents of Islam in Cipandeuy is as many as 40,495 people, followed by 7 Catholic religious followers and 2 Protestant Christians. EIA III-73 Majalengka A total of 99.75% of the Majalengka population converted to Islam, with 1.28% Protestant Christian, 0.08% adherents of the Catholic religion, and the rest Hindu and Buddhist religions. As for places of worship there are 1133 mosques; 4700 prayer rooms / small mosques, 12 churches and 2 monasteries. The number of adherents of Islam in Kartajati is as many as 44,620 people; there are no other religious believers. The number of adherents of Islam in Dawuan is as many as 84,688 people, followed by 144 Catholics, 810 Protestants; and 2 Buddhists. The number of adherents of Islam in Jatiwangi is 84,688, with 330 Catholis, 213 followers of Protestant Christianity, 18 Hindus and 67 Buddhists. The number of adherents of Islam in Ligung is as many as 60,093 people; with 13 Protestant Christians. The number of adherents of Islam in Palasah is as many as 47,164 people with no other faiths in this district. The number of adherents of Islam in Sumberjaya is as many as 56,279 people, with 22 Protestant Christian. 3.3.2 Social Economy Economic development in the agricultural sector is aimed at increasing agricultural incomes and development success of rural distribution. This is based on the fact that of the economic structure of West Java, the agricultural sector is the dominant sector's third-largest after industry and trade. Efforts are already running in the government in that direction to implement a program of intensification, diversification and rehabilitation. Socio-economic conditions in the study area are dominated by agricultural activities, such as paddy field, plantation and fisheries. Agriculture Agricultural products include food crops, vegetables and fruits. Food crops consist of cereals, maize, tubers and nuts. Land area using irrigation continued to increase compared to previous years and reached 383,261 ha; 41.20% of the total land area was paddy field. Non-irrigated land area was predominantly agricultural fields/plantations, and took up 612,151 ha, or 23.35% of the total land; this was followed by 577,110 ha (22.41%) of forest, and the smallest land use is noncultivated land at 10 534 ha. In Cirebon District, food products include food crops (cereals, maize, tubers, bulbs EIA III-74 and nuts), vegetables and fruit. Gegesik sub-district has a land area of 5206 ha paddy field with 100% irrigation using technical irrigation techniques. Total production capability of these paddy rice fields in the district is 56,187 tons of rice using a harvested area of 10,461 Ha. Most common crop type was cassava, with cassava production reaching 5608 tons. Cirebon is famous for its mango and capable of producing as many as 136,714 quintals to 30,909 quintals of mangoes. Table III.21 Sub-district Paddy Field in Cirebon Technical Irrigation Medium irrigation Simple irrigation Self irrgation rainfed Total • Ciwaringin • Gempol • Palimanan 948 1.271 163 1.043 - - - 76 - 1.187 1.271 1.043 Total Cirebon 3.262 16.073 2.670 1.526 76 6.318 3.501 55.051 163 8.464 Source : Tim Consultant’ 2008 From the table above, it appears that most of the paddy fields in the district in the study area are artificially irrigated paddy fields. In Ciwaringin, area harvested as rice paddy fields amounted to 2125 hectares with total production of 13,524 tonnes per hectare or a total of 6.36 tonnes / ha. In Gempol, area harvested as rice paddy fields amounted to 2219 hectares with total production of 13,598 tons, or equal to 6.13 tonnes / ha, while rice fields had an area of 21 hectares with total rice production of 96 tons per year or equal to 4.57 tonnes / Ha. In Palimanan, area harvested as rice paddy fields amounted to 2416 Ha with a total production of 14,557 tons or equal to 6.03 tonnes / ha, and rice fields amounted to 4 Ha with a total production of 20 tons of rice per year or equal to 5 tons / ha. Subang Regency Subang Regency has the third largest amount of paddy field land area in West Java, after Indramayu and Falkirk regencies. Subang is also the third largest producer of rice in West Java. Paddy field land area in 2006 was recorded at an area of 84,167 ha or approximately 41.71% of the total land area of Subang district. 210,786 ha was used for irrigated paddy fields, covering 41.71% of land and 58.29% of dry land area. EIA III-75 Table III.22 Paddy Field in Subang Sub-district Technical Irrigation • Subang • Pangaden • Cipunagara • Cibogo • Pabuaran • Kalijati • Cipendeuy Frequency Subang 2.046 3.539 618 408 1.530 2.037 10.178 57.033 Medium irrigation 491 1.732 1.632 508 431 100 448 5.342 9.905 Simple irrigation 128 90 150 763 1.131 4.650 Self irrgation 106 303 124 551 8.648 Rainfed 12 0 2.748 1.037 2.131 230 292 6.450 3.931 Total 2.677 5.377 4.989 2.043 4.395 2.641 1.053 23.175 84.167 Source : Tim Consultant’ 2008 In Subang District, the harvested area of rice paddy field amounted to 5664 ha with total production of 31,227 tons equal to 5.51 tonnes / ha. In Pangaden, area harvested as rice paddy fields amounted to 8370 ha, with total production of 48,349 tons equal to 5.78 tonnes / ha. In Cipunagara, the area harvested as rice paddy fields amounted to 9949 ha, with total production of 45,545 tons equal to 4.58 tonnes / ha. In Cibogo, area harvested as rice paddy fields amounted to 3976 ha with total production of 16,520 tons equal to 4.15 tonnes / ha. In Pabuaran, area harvested as rice paddy fields amounted to 8713 ha, with total production of 54,718 tonnes per annum equal to 6.28 tonnes / ha. In Kalijati, area harvested as rice paddy fields amounted to 5895 ha with total production of 35,146 tons equal to 5.96 tonnes / ha. In Cipandeuy, harvested area of rice paddy fields amounted to 3533 ha, with total production of 16,750 tons equal to 4.74 tonnes / ha. Indramayu Indramayu produces several types of cultivated crops, including paddy, maize, cassava, peanuts and soybeans. Majority of agricultural production in Indramayu is rice, producing as much as 1,264,685.81 tons of rice, which means an increase of 186% from 1,240,873.41 tons in 2004. The harvested land area, which dropped from 200,458 ha to 195,254 ha, was supported by productivity increases of 61.90 kw / ha in 2004 to 64.77 kw / ha in 2006. This situation can be understood as the total area for paddy rice is much larger than the amount of land planted with other crops, as an EIA III-76 area of 195,254 ha is used for rice, while other food crops range from 100 to 3,000 ha only. Cassava is the main commodity with the highest production, followed by maize, peanuts, green beans, soybeans and sweet potatoes. While rice dominates the agricultural production scene, Indramayu also produces other crops such as mango, banana, red chilies, red onions, corn and soybeans. Plantation crops such as palm, hybrid coconut, cotton, cloves, cashew nuts, coffee, sugar cane and melinjo are also cultivated. In Gantar sub district, area harvested for rice was 7821 ha with a production amounting to 44,077.97 tons of rice. In Terisi sub district, area harvested for rice was 4843 ha with a production of 46,018.57 tons. Plantation in the study area are also highly developed considering there is ample land to develop the plantation sector in the region. Purwakarta In 2006, rice production reached 191 966 tons of dry milled grain. This shows that there has been a decline in production by 6.22% when compared to 2004. In general, the decline was due to a reduced harvested area accompanied by a decline in productivity. Further, both paddy fields and rice paddy fields decreased in total harvested area and productivity. In total in 2006, the rice harvested area decreased by 5.39% compared to 2004. Meanwhile, extensive damage to paddy field areas increased by 70.56%, mainly driven by insect and rat plagues, and bacterial leaf blights (BLB). In the plantation sector, the acreage and yield of plantation experienced changes, except for the rubber plant. Tea, pepper, vanilla, ginger and turmeric acreage increased, followed by increased production of these crops; while kapolaga, hazelnut, nutmeg and kencur increased in total area but production decreased. Cloves, coffee, palm and melinjo in 2006 saw a decline in acreage but production increased. EIA III-77 Table III.23 Sub-district Technical Irrigation Paddy Field in Purwakarta Medium irrigation Simple irrigation Self irrgation Rainfed • Bungursari • Campaka 186 60 228 89 43 136 35 85 337 500 Frequency Purwakarta 246 1.932 317 2.961 179 3.183 120 1.520 837 5.888 Source : Tim Consultant’ 2008 In the study area, most paddy fields were rain-fed, followed by artificially irrigated fields. In Bungursari, area harvested as rice paddy fields amounted to 1445 ha with a production of 7916 tons. Meanwhile, in Campaka, area harvested as rice paddy fields amounted to 1382 ha with a production of 7289 tons. Majalengka Rice production decreased by 1.89% from 2004 to 2006, whereas harvested areas for other crops increased by 0.71%. This is caused by a decrease in productivity as indicated by the yield per hectare which declined by 2.59% in line with that experienced decline in rice production of 36.89%. Production of other food crops has increased, including for corn, soybeans, green beans, cassava and sweet potatoes. On the other hand, groundnut production decreased by 31.26%. In Kertajati, area harvested as paddy field amounted to 9441 ha with a production of 47,428 tons. In Dawuan, area harvested as paddy field amounted to 1822 ha with a production of 12,366 tons. In Jatiwangi, area harvested as rice paddy fields amounted to 3520 ha with a production of 18,858 tons. In Ligung, area harvested as rice paddy fields amounted to 4716 ha with a production of 25,478 tons. In Palasah, area harvested as rice paddy fields amounted to 1555 ha with a production of 10,247 tons. In Sumberjaya, area harvested as rice paddy fields amounted to 4862 ha with a production of 25,605 tons. Fisheries Cirebon One source of foreign exchange for Cirebon Regency is the fisheries sector, EIA III-78 including aquaculture (ponds and reservoirs), fishing ponds, marine fisheries and fish processing. Fish processing is the fisheries sub-sector with the largest production value, with production value amounting to 75.3216 billion dollars of processed fish. Salted fish processing / drying contributed to more than 86% of the total production value of processed fish. The fishery potential in the study area can be seen on the following Table III.24. Table III.24 Aquaculture and Fisheries in Cirebon Aquaculture Area Production (ha) (Ton) 4,09 0,425 • Ciwaringin 13,44 1,52 • Gempol 30,05 1,294 • Palimanan Total 3,239 47,58 Cirebon 208,38 1.115,6 Source : Tim Consultant’ 2008 Sub-district Pond Area (ha) 8,191 Production (Ton) 3.356,9 Indramayu As Indramayu lies on the coast, it is a significant fish-producing district. Fresh marine fish production during 2006 reached 67359.10 tons, showing an increase in production compared with the previous year which reached 66789.40 tons. Fisheries activities in the study area is not dominant it can be seen from the absence of extensive data on production as well as supporting data on activities in the sector in the study area. Purwakarta Regency In general, total fish production in 2006 increased by 38.14% from 21,495 tons in 2004 to 29,694.20 tons. If further explored, increased production can be seen to result from increased use of floating nets, airderas and public waters. Fish production from paddy fields and ponds decreased. The highest increase in fish production resulted from the floating net as equal to 41.14%, while the highest decrease occurred in the production of fish from paddy fields as equal to 36.31%. Fishery activities in the study area are conducted at several places. In Bungursari, fishery activities in paddy field areas amounted to 26 ha with a production of 0.70 tons; in calm water ponds an area of 3.54 ha was used with a production of 5.28 tons; and in open water area 16.50 hectares was used with a production of 3.05 tons. In Cempaka, fishery activities in paddy fields amounted to 32 ha with a production of EIA III-79 0.30 tons; in calm water ponds an area of 20.5 ha was used, producing 6.28 tonnes; and in open water 59.15 hectares was used with a production of 4.25 tons . Subang Regency The total fishery production in 2006 reached 36,000 tons. Total production increased by 0.19% compared with production in 2004. Production from marine fisheries is still the largest production source (48.75%) of all products. However, when considering the value, production ponds in fact have the greatest value than others. This is because the products from fishery ponds are largely high value fish types. Fishery activities in the study area are not too dominant as the location of areas are not too close to the potential for fisheries. Majalengka Judging from the topography, Majalengka does not have a strong marine fisheries industry. Aquaculture production in 2006 was dominated by fish ponds with a production of 3327.09 tons, while the type of commodities are dominated by carp (ikan mas), tilapia (nila) and nilem; production amounted to 1,167.88 tons, 2,311.05 tons and 307.24 tons, respectively. Table III.25 Sub-district Fishery Production in Majalengka (Ton) Pond Water Paddy field 108,77 16,30 • Kertajati 112,37 1,98 • Dawuan 20,90 • Jatiwangi 29,42 8,06 • Ligung 75,27 20,93 • Palasah 4,98 • Sourcejaya Total 351.71 47.27 Majalengka 351.71 47.27 Source: Tim Consultant, 2008 Flowing Water - River 3,19 89,41 15,41 39,74 15,41 1,72 164.88 164.88 Industry and Trade Cirebon Cirebon Regency has excellent industrial sector, namely non-metal mineral goods and rattan products, as the export of non-oil is dominated by Cirebon Regency such as batik, embroidery and fisheries (frozen shrimp). Of the total 251 large industrial companies, they are mostly engaged in the furniture and other manufacturing EIA III-80 industries. Workers amounted to as many as 53,536 people, with 14,515 of them working in fields with a value-added of 408 388 521 000 rupiah. Indramayu The industrial sector is one sector that is now in great demand as a means of achieving regional autonomy. This situation can be seen from the increasing number of large industrial companies, which was recorded at 35 from around 330 companies founded by Department of Labor. Purwakarta Regency In 2006, the manufacturing industry included large and medium companies, amounting to about 161 companies with a total workforce of 38,764. The population and number of workers has decreased when compared to 2004, where the number of companies decreased by 1.23% coupled with a decrease in the number of workers amounting to 2.92%. Decrease in the number of large and medium enterprises was due to closures. Large and medium establishments in the Purwakarta are scattered around the 9 subdistricts, but concentrated in industrial centers such as Tegalwaru, Plered and Bukit Indah town in Bungursari sub-district. Plered and Tegalwaru are industrial centres where most of the industry falls in the medium industry category with the number of workers between 20 to 99 people. Meanwhile, in Jatiluhur and Bungursari there are mostly large industries with a workforce of 100 people more. Data showed an increase in small industries in both the formal sector business unit and its production rate, whereas the informal sector declined. Subang Regency In 2006, there were a number of large and medium industrial enterprises operating commercially in the district. Subang recorded as many as 27 units with a total workforce of 79,227 people. Compared with 2004 this number decreased. The condition is Subang can be viewed as relatively unchanged since 2004, but employment numbers have decreased. Judging from the composition of business units, based on the status of foreign investment, there are 7 domestic (PMA), 12 small industries (PMDN), 16 non-facility companies, 1462 small formal industries, and 8994 small informal industries. EIA III-81 Majalengka In 2006, the number of large industries in Majalengka was as many as 10 industries, with as as many as 344 companies. Total workers were as much as 15,267 people; in addition 89.93% of the companies were large and medium tile industries. 3.3.3 Problems in the Area around the planned Toll Road Section I (STA 1991 +500 - STA 118 +550) Section I Cikampek - Kalijati (27.05 km) includes the districts Bungursari, Campaka, Cibatu (Purwakarta Regency), and Pabuaran, Cipeundeuy and Kalijati (Purwakarta Regency). Most of the areas affected by the project are the plantation and agriculture areas. Most people are farmers. There are fears amongst the public about the problem of land acquisition and the loss of agricultural land and the related loss of income. In the villages of Kertamukti and Ciparungsari where land acquisition will occur, approximately 2 ha of land will be cut off by the road. This situation is feared to disrupt the mobility of people around and in the two villages. Section II (STA 129+ 750) Section II includes the districts Pangaden, Subang (Subang Regency). In Subang Area, there are 8 (eight) districts that are in the location of the planned highway construction such as Pabuaran District and the village Karangmukti, Cipenduy District and the villages Wantilan and Sawangan; Kalijati District and the villages Marengmang, Kaliangsana, Batusari; Purwadadi District and the village Wanakerta; Pagaden District and the villages Balingbing, Sumurgintung, Gembor; Subang District and the villages Jabong, Sukamelang and Cisaga; Cipunagara District and the village Wanasari; Cibogo District and the villagse Ciboqo, Pada Asih, and Sumur Barang. The Subang areas included in Section II Kalijati - Subang (± 11.2 km) start from STA 118 +400 in Kalijati District, Subang regency, and go until STA 129 +600 in the Subang District, Subang Regency. The characteristics of the region in this section are: ● Irrigated paddy rice fields covering an area of 396,000 m2 EIA III-82 ● Lake area of 3300 m2 ● Settlement area of 33,000 m2 ● Plantation area of 283,800 m2 ● Rainfed rice field area of 36,300 m2 Given the vast amount of paddy fields affected by the land acquisition, many farmers will be affected by losing their livelihoods. In addition, the acquisition of agricultural land can also reduce the productivity of agriculture in this region. Construction of roads and culverts to be done does not interfere with farming activities. Flooding problems should be anticipated in the artificially-irrigated paddy fields considering this problem occurs frequently (almost every year). In this region there is a path that many people used to get around that needs attention so that people do not lose road access. In Puwodadi District there are areas of PTPN VIII where the community is also involved by working on these plantations. Section III (STA 158 +450) Section III includes districts Cibogo, Gantar and Trisi in Indramayu Regency. The characteristics of the region in this section are: ● Irrigated paddy rice fields covering an area of 148,500 m2 ● Shrubs area of 31,350 m2 ● Field covering an area of 59,400 m2 ● Settlement area of 52,800 m2 ● Plantation area of 1,196,550 m2 ● Rainfed rice field area of 191,700 m2 The impact of the toll road is the effect on economic growth where income may be decreased, declining land prices, etc. The economy that exists in the area includes stalls, shops, restaurants and others. In addition, it was found that the general route was utilized both within communities and between regions. Gantar district has a lack of water sources and is the least developed region. Road access infrastructure is still lacking, making it hard for community mobility. EIA III-83 In Bantarwaru village there is a strong bird's nest economic activity. It is expected that construction of the toll road will not disturb the activities of the community given the amount of the economic potential for local communities. Section IV (STA 177 +350) Section IV includes the district Kertajati in Majalengka Regency. Majalengka is included in Section IV Cikedung - Kertajati (+ 18.9 km) from STA 158 +300 in Trisi District of Indramayu Regency, until STA 177 +200 in Kertajati District, Majalengka Regency. Section V (STA 193 +450) Section V includes the Districts Dawuan, Jatiwangi, Ligung, Palasah and Sumberjaya in Majalengka Regency. The characteristics of the region in section IV are: ● Irrigated paddy rice fields covering an area of 498,300 m2 ● Shrubs area of 89,100 m2 ● Field covering an area of 26,400 m2 ● Plantation area of 792,000 m2 While the characteristics of the region in section V are; ● Irrigated paddy rice fields covering an area of 561,000 m2 ● Field covering an area of 247,500 m2 ● Settlement area of 115,500 m2 ● Plantation area of 62,700 m2 In this region the village access roads are still limited by poor road infrastructure in the region. Therefore, managers need to consider the possibility that the toll road may cut off the village road. Given the vast amount of paddy fields affected by the land acquisition, many farmers will be affected by losing their livelihoods. In addition, the acquisition of agricultural land can also reduce the productivity of agriculture in this region. For that, irrigated paddy fields should be considered in order not to cause detrimental socio-economic impacts on local communities. Flooding problems often occur almost every year. It is expected that floods in Cikeruh can be overcome. EIA III-84 Section VI (STA 207 +900) Section VI includes the Districts Palimanan, Ciwaringin and Gempol in Cirebon Regency. In Cirebon Regency, there are 3 (three) Districts that are in the highway development plan, such as Ciwaringin District and the villages Budursora, Babakan, Ciwaringin and Galagamba; Gempol District and the rural villages Kempek and Kedung Bunder; Palimanan District and the village Pegagan. The Cirebon region included in the section VI Sumberjaya - Palimanan (+ 14.45 km) starts from STA 193 +300 in Sumberjaya District, Majalengka Regency, and ends at STA 207 +750 in Palimanan District, Cirebon regency. The characteristics of the region in this section are: • Irrigated paddy rice fields covering an area of 577,500 m2 • Field covering an area of 99,000 m2 • Settlement area of 112,200 m2 • Plantation area of 108,900 m2 Currently in the village of Babakan Ciwaringin there is community unrest over the land acquisition plan for the development of the community-owned toll road. The problem is that the land acquisition plan has been rejected, particularly in the case of the Islamic boarding school (pesantren) area in Babakan Ciwaringin in Cirebon. The issue raised is not about the aspects of the highway construction plan, but the land acquisition plan which passes near the pesantren. For people in the area, the existence of the pesantren is considered a symbol of pride for the local community who is known for community students. As is known, some complaints or protests of refusal have been made by the students and scholars in Babakan Village, District Ciwaringin, Cirebon regency. Rejection happened because according to the plan, the toll road would acquire about three acres of land that pass around the boarding area. 1). Social Culture The populations (community) around the planned project are mostly people in the agricultural sector. The daily livelihood-earning habits of the population will be affected. Since most of the population earns a meager living as a farmer, their daily income-earning habits are especially related to agricultural activities. The interactions between the residents often happen during farming activities. Meanwhile, residents who work in the trading sector interact with each other in the market and only occasionally interact with farmers, when shopping or selling their crops. Besides the native Sundanese cultural relics, there are cultural activities, namely the EIA III-85 implementation of hereditary Sundanese customs that are still ongoing, either individually or groups, officially or inofficially. Cultural activities include customs for marriage, circumcision, death, the first paddy field planting, harvesting, house building, promoting community leaders, as well as communal assistance, which until now are still commonly practiced among the villagers. This situation is supported because this region has long had an open relationship with outside areas and has relatively high education levels and dynamic mobility among the population. The strong influence of Islam (the majority religion of the population) also affects social interaction and culture in the local community. Religious life exists very well with other faiths. This shows a high amount of tolerance between religions. In some places, such as Cirebon, Islamic boarding schools have a relatively strong influence, and the position of religious leaders play an important role in influencing people's lives. Social interactions that take place in public life are pretty good. Institutions in the villages of the study area play formal and informal roles in organizing community participation in rural development. At the time this study was carried out the institutional capacity was pretty good even though their development should be improved to function more optimally. In addition to these institutions, there are special instituitions for community farmers, irrigation water users, and farmers' groups that are united in their membership to the Irrigation Water User Farmers Association (P3A). Leadership patterns in the study area population are more inclined to embrace leadership patterns that blend formal and informal. The role of village officials are to follow the village head, and they play an important role in regulating the passage of the society’s social life. However, the patterns of informal leadership (traditional leadership) are preserved in the roles of religious figures, scholars and public figures, all who are respected and upheld, and are relied on especially to overcome the social problems that occur in society. 2) Social Economy Primary Employment Employment types are grouped into 8 categories, namely (a) farmers, (b) traders, (c) employee, (d) civil servants, (e) self-employed, (f) union, (g) carpenters, (h) teacher, EIA III-86 (i) Other. Other categories of jobs held by respondents varied enough so that the range of livelihood is inadequate to describe the social reality in the region. The most common primary job of respondents is as a farmer (23%), followed by traders (16.6%), self-employed (15.6%), other (15.2%), manual labor (10%). A detailed list of employment or livelihood of respondents can be seen in Table III.26. This is understandable because the planned toll road spans many agricultural areas. Some respondents also have jobs as merchant / service, stalls and kiosks, shops, service workshops. This condition will affect the smoothness of land acquisition, particularly in deliberations to determine compensation, because these jobs are the principal work of the people and they have very strong attachment with their location. Table III.26 No. 1 2 3 4 5 6 7 8 9 Type of Job of Respondent Category Farmer Merchant Employees Civil Servants ENterpreneur Labor Handyman Teacher Other Total Percentage 115 83 16 63 78 50 7 12 76 500 Frequency (%) 23 16,6 3,2 12,6 15,6 10 1,4 2,4 15,2 100 Source : Survey Result, 2007 Cikampek-Palimanan toll road will be fairly well traveled by road vehicles. This provides the generation of diverse economic activities in society, both formal and informal. Public economic activities will include cafes, shops, stalls and more often found along the arterial road Cikampek - Cirebon. From a business perspective, it appears that it is most common for stalls to arise. There are enough food stalls varying from scale ranging from large to small food stalls. Revenue of Respondents Respondent income level is relatively varied and can be seen in Table III:27. Income levels can indicate the economic strata of the residents, judging by the level of income at the time of the survey. In addition, there are several family members (such as, wife, son, brother) who help in sustaining the family income. EIA III-87 Table III.27 No. 1 2 3 4 5 6 Respondent’s Monthly Income Category (IDR) <500.000 500.000 – 1.000.000 1.000.000 – 1.500.000 1.500.000 – 2.000.000 2.000.000 – 2.500.000 > 2.500.000 Total Percentage 89 160 212 10 7 22 500 Frequency (%) 17,8 32,0 42,4 2,0 1,4 4,4 100,0 Source : Survey Result, 2007 Respondent Education The definition of education here is if the respondent has completed the formal education system. The level of education will influence how the respondents are affected by the toll road development plans. Education levels of respondents varied from never graduated, to elementary, to post graduate. Most of the respondents received a junior high school-education; the next largest group received a senior high school education. A detailed description of education level of respondents can be seen in Table III.28. Table III.28 Respondent’s Education No. 1 2 3 4 5 6 Category Never went to school SD - elementary SMP – junior high SMA – senior high school Academic - diploma PT - graduate others total Frequency 29 95 212 127 6 25 6 500 Source : Survey Result, 2007 Land Ownership Status Most of the respondents stated that the land they occupy is their own. This data needs to be collected and analysed carefully, especially for data mapping needs for land acquisition. EIA III-88 Table III.29 Land Ownership Status No. 1 2 3 Category Frequency Tenure Rent Others Total % 394 21 85 78,8% 4,2% 17,0% 500 100 Source : Survey Result, 2007 Access to the Workplace As a general phenomenon seen in other regions, motorcycle vehicle ownership is common in the research area. Most respondents use a motorcycle for everyday activities, especially for work. The next largest group of respondents only walked to and from work given the distance between homes to the workplace is not too far away. Table III.30 No. 1 2 3 4 5 6 Access to the Workplace Category Frequency Total 155 39 225 11 46 24 500 Walking Bike Motorcycle Private car Public Transport Others Source : Survey Result, 2007 Respondents Housing Conditions Housing conditions of respondents in the study area are dominated by permanent homes (66.4%) with only 15.4% of respondents with simple homes. Electricity network has connected almost the entire area, and the number of homes of respondents who have electricity is almost 99%. Drinking water sources for the population largely comes from shallow ground water accessed by electric pumps. Only a small proportion of respondents use river water for their daily needs. For MCK (sanitation) activities most respondents already have a toilet in their homes. This indicates a fairly good condition, especially in order to maintain health and environmental sanitation. EIA III-89 Housing Status Table III.31 No. 1 2 3 4 5 6 Category Frequency 391 17 4 85 2 1 500 Tenure Rent Rent from 2nd Hand Family Office Other Total Source : Survey Result, 2007 Type of Housing Table III.32 No. 1 2 3 Category Frequency % 332 91 77 66,4 18,2 15,4 500 100 Permanent Semi permanent Simple Total Source : Survey Result, 2007 Source of Lighting Table III.33 No. 1 2 3 4 Category Electricity Genset (generator) None Other Frequency 495 3 0 2 Total 500 Source : Survey Result, 2007 Table III.34 No. 1 2 3 4 5 Source of Clean Water Category Municipality Dug Well - surface water Pump River Other Frequency Frequency 6 90 381 2 21 500 Source : Survey Result, 2007 EIA III-90 Table III.35 No. 1 2 3 4 Toilet Category Frequency Inside the house Public Toilet river Other 459 12 7 22 Frequency 500 Source : Survey Result, 2007 Security Social cohesion is a process of stabilization of environmental conditions with various activities and social interaction between communities. The existence of security problems is one factor that can be a threat to the sustainability of people's lives everyday. However, it must be admitted that no society is free of friction in the interaction and disruption of neighbourhood security (kamtibmas). The most important thing is how the disorder can be minimized using a variety of anticipated measures. Table III.36 No. 1 2 3 4 Safety and Security Category Not secure Considerably secure Secure Very secure Frequency Frequency % 6 21 201 272 500 1,2 4,2 40,2 54,4 100 Source : Survey Result, 2007 In general, kamtibmas conditions in the study area are relatively good. This is recognized by the majority of respondents stating that there have been no interferences to kamtibmas happening in their area. Cases of land acquisition conflict are relatively rare in the study area. EIA III-91 Table III.37 No. 1 2 3 Land Conflicts Category Yes No Do not Know Frequency Frequency % 35 464 1 7 92,8 0,2 500 100 Source : Survey Result, 2007 Public Perception of Toll Road Construction and Respondent Knowledge of Toll Road Development Plan The most important aspect for the success of the planned Toll Road Development is the optimal support of all residents living in the planned development area. This is especially true for all citizens that may benefit from these development plans. It is necessary to disseminate information on the Development Plan for the toll road. From the study results, it is known that most respondents were aware of the toll road construction plan in their region (88%). This can be used as a basis for optimizing capital dissemination activities towards the development plans. The group of respondents who were directly affected by land acquisition, among others, have also been informed about the plans for the Toll Road Development. Table III.38 Knowledge of Toll Road Development No. 1 2 Category Yes, I Know No, I don’t Know Frequency Frequency 440 60 500 Source : Survey Result, 2007 Based on respondents who know about the toll road development plan, it is known that their information is obtained from the District / local village authorities and mass media. However, there is a perceived lack of socialization of the project particularly amongst the poor who have not received full information and details. It is therefore deemed appropriate that the respondents receive project socialization through face EIA III-92 to face meetings and from the village officials. This relates to the proximity of the delivery of information which is relatively easily understood by the community. EIA III-93 Table III.39 Suitable Media for Socialization of the Project No. 1 2 3 4 Category Mass media Public Meeting Via Local Government Others Frequency Frequency % 7 256 230 7 500 1,4 51,2 46 1,4 100 Source : Survey Result, 2007 Most respondents (92%) expressed agreement with the existence of the planned Toll Road development. Only a small proportion (8%) stated they do not agree with the plans. Details of the opinions of respondents can be seen in Table III:40. Table III.40 Perception towards Toll Road Development Plan No. 1 2 Category Not agree Agree Frequency Frequency % 40 460 8,0 90 500 100 Source : Survey Result, 2007 For those respondents that stated they agree with the Project, several reasons were stated, including, among others, improved regional economy. Meanwhile, those that stated they disagree with the Project suggested reasons such as the discrepancy between the indemnity; disruption to security, loss of revenue (mainly from stalls around the old road which are threatened of losing customers because of the toll road). 1. Affected Project Population Residents directly affected by the project are as follows: In Section I there are as many as 230 households. In Section II, there are164 households; 216 households in Section III; in Section IV which consists mostly of forest and paddy fields, there are no settled residents that will be affected by the project; 450 households in Section V; and in Section VI there will be as much as 458 households. From interviews with residents in the study area with a response rate of 500 people, they raised concerns/problems over land acquisition activities, including: - Suitability of land prices between the bid price of the project whose value is based on the Tax Object Sale Value (NJOP) with the price of compensation EIA III-94 requested by the land owner (community). NJOP Prices are usually lower than the asking price of land owners or land prices in the market. - The cutting of lands of farmers / community. Where farmers have extensive lands, the cuts do not cause problems, but in this region the farmers are not relatively large land owners and this is a problem especially for small land that will be cut off. Most respondents do not mind if their land is used for the toll road purposes provided that the project is in accordance with their aspirations. As many as 89.2% of respondents agreed on the condition, while 10.2% rejected (disagree) and the remaining 0.6% stated not known. In general, the concerns of the respondents, among others, include: - Compensation should be in accordance with their agreements, and indemnity coverage should extend among others to land, buildings, plants and other assets. - Payment of compensation shall be undertaken after agreement is reached. Based on the results of interviews with local officials it was noted that there is a diversity of areas affected by the land acquisition and land prices, both based on NJOP and market prices. Table III.41 No. 1 2 3 Perception towards Land Acquisition for Toll Road Development Category Not agree agree do not know Frequency Frequency % 51 446 3 500 10,2 89,2 0,6 100 Source : Survey Result, 2007 There were several opinions expressed by various communities concerning acquisition for the highway. The following is a summary of public opinions in the area: Subang In general, residents approve of the plan to build the toll road. Socialization of perceptions needs to be done, particularly on aspects with regards to land acquisition procedures, land prices and timing of acquisition. This is to prevent public unrest and to avoid brokering or land speculators. To that end, it is suggested that there is a EIA III-95 need for the land assessment team to involve village officials and community representatives in the consultations. In addition, more details need to be clarified regarding the cross border that became a benchmark of where the subject is sited, the facilities that are taxable because there is no cross / official peg. With regards to the number of trees affected by the project it is expected that compensation will include replanting. Cirebon The main land acquisition problem in this region is an objection by residents of the Babakan Ciwaringin boarding school (pesantren) against land acquisition. Various protests have been filed by the pesantren and community leaders and citizens. It will require wisdom, socialization and intensive meetings between the manager of the boarding school residents to find a good solution. The problem of planned activities (including land acquisition) was addressed in meetings conducted in Purwakarta, 2006, at which a comparison found a different picture of the affected villages with villages that had already been socialized. It is planned to continue to identify and disseminate information in order to obtain accurate data about the villages affected by land acquisition. Another thing that was questioned by citizens affected by land acquisition is the problem of land acquisition. Indramayu With regards to the issue of land acquisition, the concerns posed by citizens are similar to those in other areas; such as procedural aspects, compensation costs and timing of execution. In this region, residents expressed the hope that the agricultural land affected by construction of the toll road will be replaced in other locations in the surrounding area. Related to the forestry sector, there needs to be clarity of detail on how the planned routh will affect forestry, particularly given the amount of community forest activities in the region. Majalengka Communities affected by land acquisition questioned about who would acquire the land, the acquisition process, who will buy the land, and how much the land compensation will be. EIA III-96 The issue of land acquisition in this area surrounds the school / madrasah which will be affected by land acquisition. This is not just about compensation, but they need clarity on the relocation plan of the school / madrasah building which will be acquired. Land problems also are an important issue raised in this region. There are concerns over land acquisition affecting local community assets. Purwakarta Most of the people are farm workers, so there is concern that people will lose income due to land acquisition. In addition, there is a need for clarification on the remaining land because of the toll plan. 2. Options for Compensation Compensation options desired by respondents are quite varied, most respondents stated that they wanted compensation in the form of money (87%). When an alternative form of mixed compensation (such as money, location, replacements, guidance/training, etc.) was proposed, as many as 10.2% chose this option. This indicates strongly that the respondents actually desire monetary reimbursement for land acquisition and assets so they can freely utilize the funds. Table III.42 Kinds of Compensation No. 1 2 3 Category Frequency % Frequency 425 18 3 446 95,3 4 0,7 100 Frequency % 410 31 5 446 91,9 7 1,1 100 Money Land Other Source : Hasil Survei, 2007 Table III.43 No. 1 2 3 4 Process of Compensation Category Third Party Direct Compensation Facilitated by local government Other Frequency Source : Survey Result, 2007 With regards to the problem of land speculators, speculators appear not to play a large role in the context of land acquisition for construction of this toll road. Interviews found no indication of land speculators offering services relating to land acquisition EIA III-97 problems. With regards to the compensation process, the majority of respondents expect direct compensation payments made to the beneficiary. This is partly to avoid the emergence of land speculators and compensation funds being cut. Perceptions of Respondents on Toll Road Development Plan The most successful aspect of the planned Palimanan-Cikampek Toll Road Development is the optimal support of all citizens towards the planned CikampekPalimanan Toll Road Development. This is especially necessary for citizens to benefit from these development plans. There is a need to disseminate information on the planned Cikampek-Palimanan toll road. With regards to the benefits of the toll road on people's lives everyday, the answers given by respondents were spread almost evenly. Most (39.4%) respondents stated that the existence of the toll road will not provide benefits to people's lives. The main reason put forward is that toll roads are more frequently used by outsiders. Nevertheless, the respondents stated that they can take advantage of the existence of the toll road to facilitate their socioeconomic mobility, especially when traveling between cities. Table III.44 No. 1 2 3 Perception on the Impact of the Project to the Livelihood Category none small impact considerably big impacts Frequency Frequency % 197 166 137 39,4 33,2 27,4 500 100 Source : Survey Result, 2007 Respondents Perceptions on the Impact of Cikampek-Palimanan Toll Road Construction on Employment Opportunities Labor issues are still a major problem in the study area. From interviews, it was found that the respondents stated that unemployment is a major problem in the study area given the lack of employment opportunities in the region. The presence of the Cikampek - Palimanan Toll Road Development is expected to help the unemployment problem in the region by opening employment opportunities for local workers. Therefore, according to respondents, the impacts of Cikampek-Palimanan Toll Road Development on opportunities are considered important and very important (78.6%). EIA III-98 Table III.45 Perception on the Impact of The Project to the Employment Opportunities No. 1 2 3 Category Yes No Do not know Frequency Frequency % 254 242 4 500 50,8 48,4 0,8 100 Source : Survey Result, 2007 Respondents Perceptions on the Impact of Cikampek-Palimanan Toll Road Construction on Environment In general, respondents said that the Cikampek-Palimanan Toll Road Development will have an impact on the environment. The result of interviews with some 500 respondents showed that 50.8% claimed to know the impact of Cikampek-Palimanan Toll Road Development on the environment, while as much as 48.4% stating there is no impact and the remaining stating they do not know (0.8%). From interviews of respondents it was found that environmental problems are less a concern in comparison to development in the region and lack of socialization of these. In general, respondents said that the impacts of Cikampek-Palimanan Toll Road Development on environmental aspects are important. Table III.46 Perception on the Impact of The Project to the Environment No. 1 2 3 Category Yes No Do not know Frequency Frequency % 254 242 4 500 50,8 48,4 0,8 100 Source : Hasil Survei, 2007 On Cikampek-Palimanan Toll Road Development impacts on the air component, 53.6% stated the impact is categorized as important and 45.8% stated the impact is very important. From the results of interviews, the types of air pollution of concern amongst the respondents are the emergence of dust due to the mobility of the trucks and excavation of land. On the Cikampek-Palimanan Toll Road Development impact on Noise, 58.6% of respondents said that its impact is important. This needs to be considered, especially at the time of execution of construction work such as fixing the poles, where they will EIA III-99 need to pay attention to local conditions given that some of the project activities are quite close to settlement areas. Community Economic Activities around the planned Toll Road Cikampek-Palimanan toll road Corridor is fairly well-traveled by road vehicles. This raises the generation of diverse economic activities in society, both formal and informal. Public economic activities such as cafes, shops, stalls etc are often found along the road. The toll road development plan is expected to result in reduced public economic activities, especially along arterial roads in Cikampek-Cirebon. Usually, road users often use the services of public economic activities, for example stopping for a meal break or other activities. CONDITION OF FACILITIES AND INFRASTRUCTURE 3.4 A. Road Infrastructure To support development strategies and development of traffic infrastructure and the economy, local access roads are important. Therefore, development of infrastructure facilities and the special road which connects Cikampek – Palimanan, needs to be a continued effort to ensure the smooth movement of goods and services as well as humans from Cikampek-Palimanan. The planned toll road location is all situated in the province of West Java and the end of the toll in the east is in Palimanan, approximately a 50 km border with Central Java Province. The beginning of the planned Cikampek-Palimanan toll road is in Sta 91+350 at the Jakarta-Cikampek toll road, and the starting point is an interchange with a half horn. The existing conditions of village and district roads that will intersect with the planned toll roads in each district are as follows: - Purwakarta Regency, from STA 92 +920 in Cikopo Village, Bungursari District, up to STA 101 +100 in Karyamekar Village, District Campaka. Status of road consists of national roads, village roads and district roads with a width of 3 m to 12 m, and the type of pavement of the national road is asphalt, and the regional roads are asphalt, while village roads are still dirt roads. Width of national and regional roads and lanes are 2x2 lanes, while for rural roads are 2x1 lane. EIA III-100 - Subang Regency, starting from STA 103 +418 in Karangmukti Village, District Pabuaran, until Kaliangsana Village, District Kalijati. Status of road that cuts the highway are primarily district roads and village roads. Type of district roads are asphalt pavement, while village roads are still dirt roads. The width of the regional roads ranges from 7 to 13 meters with the details (3 m + 7 m left shoulder and 3 m-street right shoulder). Rural roads have a width of 2.5 meters to 7 meters (1.0 m left shoulder + 5 m and 1.0 m-street right shoulder). - Majalengka Regency, starting from STA 169 +600 in Mekarjana Village, District Kertajati, up to STA 196 +390 in Panjalin Lor Village, District Sumberjaya. Status of the roads that cross the toll road consist of regional roads and rural roads and national roads in the villages Sukawana and Jatisura. The type of national and regional road pavement is asphalt, while most types of the rural road pavement is dirt, and a small village road is made of sand in Palasah, District Kertajati. Village road width ranges from 4 m to 5 meters, the regional road has a width of 7 meters, while the national roads have an average width of 12m. - Indramayu Regency, starting from STA 142 +736 in the village of Bantar Waru, Gantar District, up until Cikawung Village, District Trisi at STA 160 +845. Status of road that cross the toll road consists of National roads and village roads, and regional roads which cross at STA 155 +480 in Cikawung Village, District Trisi. National road width is 5 m to 9 m plus the shoulder of the road an average of 2 m on each side of the street. The width of village roads are an average of 4 m, while the condition of regional roads have a width of 6 m by 1m shoulder of the road on the left and right. The type of national and regional road pavement is on average asphalt, while the pavement of village roads is made from small stones. - Region of Cirebon, the toll road is planned to start from 20p STA-i-030 in the Budursora Village, District Ciwaringin, up to STA 206 +418 in Kempek Village, District Gempol. Status of roads that cross the toll road consist of regional roads and village roads with the width of the regional roads at 4 to 7 meters, and rural roads an average of 3 m. The type of pavement of existing regional roads is asphalt, while the village road at STA 205 +776 is asphalt, with the road width 3m. Bus Service Facilities Bus services in the study area are of 2 kinds to control the regulation of services EIA III-101 between provinces and within provinces. The first service consists of bus routes with longer distances both within and across regions. Because the city has a provincial status, all bus services which pass through the city limits are classified as interprovincial services. Routes are based in Jakarta with a majority of services between the provinces in West Java. In addition there are also many services to other regions in Java and to Sumatra and other islands adjacent to the island of Java. In the table below are shown permit inter-city bus services (AKDP) and between provinces (AKAP) that exist around the study area. Table III.47 Bus Routes Around The Project Location ROUTE Jakarta-Bandung Jakarta-Tasikmalaya/Banjar/Ciamis/Garut Jakarta-Subang Jakarta-Banjar Jakarta-Cirebon Jakarta-Kuningan Jakarta-Ciamis/Majalengka/Tasikmalaya Sumatra-Jateng/Jatim and others Jakarta-Central/Jatim and others Sumatra-Bandung Sumatra-Cirebon Sumatra-Banjar Merak-Jateng/Jatim and others Bogor-Jateng/Jatim and others Bandung- Jateng/Jatim and others Suregencyumi- Jateng/Jatim and others Suregencyumi Jateng/Jatim and others VIA Type of Bus Service Cianjur Express Stopping Bandung Express Stopping Purwakarta Express Stopping Pamanukan Express Stopping Suregencyumi-Bandung Express Stopping Jatibarang Express Stopping Cianjur-Bandung Stopping Jatibarang Express Stopping Jatibarang Stopping Jatibarang-Cirebon Express Stopping Purwakarta-Bandung Express Cianjur-Bandung Express Cianjur-Bandung Express Stopping Purwakarta-Bandung Express Stopping Jatibarang-Cirebon Express Stopping Purwakarta Express Stopping Cianjur Express Stopping Jatibarang Express Cianjur Express Stopping Jatibarang Express Stopping Jatibarang Express Stopping Suregencyumi-Bandung Express Stopping Sumedang Express Stopping Tasikmalaya Express Purwakarta Express Stopping Jatibarang Express Stopping FREQUENCY BUS/day 514 695 260 306 204 44 40 18 138 32 20 443 14 46 313 52 266 4 18 10 5 12 12 9 1593 569 28 10 31 2 8 6 4 166 89 154 68 4 2 126 207 24 14 16 10 18 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan Railway Facilities EIA III-102 One alternative transport for the population is to use the Jakarta and Cirebon connection train. The volume of passengers using the railway has been high enough with an average of ± 300,000 people / year. In the study area there are 2 main lines: the northern coastal strip (Merak-JakartaCirebon-Semarang-Surabaya). The second pathway takes a route parallel to the south of Bandung via Yogyakarta to Surabaya and then to Banyuwangi. Both lines are single track lanes with no electricity necessary. There are a few north-south connections between these two main lines and two from the line close to the corridor study Cikampek to Bandung and Cirebon to Kroya. PT. KAI is planning a railway sector growth of 7% including the improvement and rehabilitation of approximately 840 km railway trains and construction of 350 km of railroads. The development of this thought is roughly equivalent to that estimated for highway traffic. One of the highest priorities for the double-tracking is a path between Cikampek and Cirebon, where currently there is a problem in terms of capacity. Double-tracking the construction of 135 km of track in Cikampek-Cirebon and 19 km double-tracking between Cikampek and Purwakarta. The figures show the projected growth of more cargo movements at a faster rate than passenger traffic for several years to come of this. This suggests that economy-class train travel between Jakarta and Cirebon would continue to be limited by lack of capacity. As for other infrastructure located near and in the middle of the RUMIJA highway is a network of gas pipelines owned by PT. Perum Gas Negara, water pipelines, irrigation flows to paddy fields, Pertamina fuel network, and local roads that intersect with the street the toll road plan. Traffic The transportation sector is the backbone for growth and development of other sectors; the transportation sector serves to connect an economic region with other regions and the production site to the location of product marketing, which in turn will increase economies of scale throughout the region. Transportation system includes road transport, rail transport and sea transport, but the main form of transport is road transport. In the table below, statistics are shown EIA III-103 on road and road surface type in West Java and Central Java and Indonesia, as overall public roads in the country, about 20% are state or provincial roads, almost all of which are sealed roads. 63% of the roads in this country are in good condition. West Java and Central Java together own 15% of the total length of roads in Indonesia. 39% of regional roads in this region are unsealed, and 28.6% of regional roads roads are in disrepair and concern. In West Java, the regional and city roads make up 88% of the total length of roads in the province. 93% of the national/provincial roads are good / moderate, compared with 74% of regional/city roads. In the table below is shown the status and type of road surface that is in West Java and Central Java. Table III.48 Type of Road in West Java and Central Java Province Road Status West Java National Provincial Regency City/Municipal TOTAL Central Java National Provincial Regency City/Municipal TOTAL West Java and Central Java National Provincial Regency City/Municipal TOTAL Indonesia National Provincial Regency City/Municipal TOTAL Percentage by Status National (West Java and Central Java) Provincial Regency City/Municipal TOTAL Percentage by Type National (West Java and Central Java) Provincial Regency City/Municipal TOTAL Asphalt 886 2.154 11 .238 1.042 15.320 1.010 1.848 12.039 1.601 16.498 1.896 4.002 23.277 2.643 31.818 16.950 27.687 86.447 14.163 145.247 6.0 12.6 73.2 8.3 100.0 100.0 97.7 60.7 82.1 67.1 TYPE OF ROAD SURFACE (km) Rock Soil Other 0 0 0 13 0 0 4.169 3.364 2.083 5 8 39 4.187 3.372 2.122 0 0 0 0 0 0 3.160 1.706 558 122 122 280 3.282 1.828 838 0 0 0 13 0 0 7.329 5.070 2.641 127 130 319 7.469 5.200 2.960 2.269 844 1.795 8.640 4.918 1.380 48.860 76.600 24.174 1.686 2.422 923 61.455 84.784 28.272 0.0 0.0 0.0 0.2 0.0 0.0 98.1 97.5 89.2 1.7 2.5 10.8 100.0 100.0 100.0 0.0 0.0 0.0 0.3 19.1 3.9 15.7 0.0 13.2 4.0 11.0 0.0 6.9 9.9 6.2 TOTAL 886 2.167 20.854 1.094 25.001 1.010 1.848 17.463 2.125 22.446 1.896 4.105 38.317 3.219 47.447 21.858 42.625 236.081 19.194 319.758 4.0 8.5 80.8 6.8 100.0 100.0 100.0 100.0 100.0 100.0 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan Existing routes contained in the study area include among other things: EIA III-104 a. The north coast route (Cikampek-Pamanukan-Pallmanan-Cirebon). This route is the main alternative route. Road width is 7 meters between Cikampek and Palimanan widened to over 8 meters with a section for two-way street near Cirebon. Condition of roads is generally good. b. Cikampek-Bandung-Padalarang Road This route is part of one of 3 possible routes between Jakarta and Bandung (the other is through Sadang-Subang-Lembang and pass-Padalarang Puncak-Cianjur). The proportion of trucks that pass this way is high, because the main alternative route for heavy vehicles, through Suregencyumi-Cianjur, is a much longer route. Vehicle containers, which previously were forced to use the Lembang-Subang road because of the high barrier in the southern part of Purwakarta, can now use the Cikampek-Padalarang road, this road through the hills and as a result of this alignment of the winding and a lot of climbs. The width of the road is at least 7 meters by 12 meters wider section between Padalarang and Bandung. The road condition is generally good. Profile of Regional Traffic Volume The problem of road traffic includes traffic mix, high volume of traffic every day and traffic at peak rush hour. Since the traffic model in this region was carried out for the whole of Java, a review of the data should be implemented at this level to ensure that accuracy can be maintained. In the following table vehicle traffic volumes and V/C Ratio and State / Province roads in West Java can be seen. Table III.49 Category of Vehicle Traffic Volume Type of Vehicle National Road Volume Provincial Road Percentage Volume Total Percentage Volume Percentage City car Sedan/Van 245.984 29.8 110.455 31.7 356.439 30.3 Bus Small Medium Besar 101.325 85.863 187.188 12.2 10.4 22.6 74.387 21.358 95.745 21.3 6.1 27.4 175.712 107.221 282.933 14.9 9.1 24.1 Truck Pick up Two wheeler Three wheeler Semi Trailer Full Trailer Sub Total 118.228 205.200 24.290 14.3 24.8 2.9 61.564 75.654 2.841 17.6 21.7 0.8 176.792 280.854 27.131 15.3 23.9 2.3 42.817 3.571 394.106 827.278 81 10.213 5.2 0.4 47.6 100.0 2.176 597 142.832 349.032 114 3.062 0.6 0.2 40.9 100.0 44.993 4.168 536.938 1.176.310 195 6.031 3.8 0.4 45.6 100.0 Total Frequency ACTIVITY AVERAGE Source: Review of Feasibility Study and Final Engineering Plans Toll Road Cikampek- EIA III-105 Palimanan Table III.50 Analysis of V/C Ratio in West Java Province Roads V/C Ratio >1.0 0.8-1.0 0.6-0.8 0.4-0.6 0.2-0.4 0-0.2 Total Percentage < 5,0 (km) 4 9 0 77 107 724 922 27.8 5.0 – 6.1 (km) 49 10 45 165 274 570 1113 32.66 width (m) 6.2 – 7.2 (km) 120 49 192 206 146 152 864 25.36 7.2-12.0 (km) 52 28 71 115 77 62 405 11.89 >12.0 (km) 0 19 17 19 31 16 103 3.01 Total Panjang Percentage (km) 225 6.61 15 3.39 324 9.52 582 17.09 634 18.62 1525 44.76 3407 100.00 100.0 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan In the table above it includes an analysis of the ratio of capacity / volume on the state and provincial roads in West Java province. This shows that: • 10% of the network has reached the limit of effective capacity (V / C ratio> 0.8) • Another 9.5% have a ratio of V / C is about 0.6 to 0.8 and a lot of these streets can be expected to reach capacity (V? C ratio> 0.9) is less than 4 years • 63% of the road network has a V / C ratio of 0.4 or less, although many of these streets (78%) is a small part of the road network and has a width of 6.1 meters or less. Types of existing public transport include Mini Bus, Public Van, Medium Bus and Inter-City Bus. Problems in the highway transportation system faced by the West Java region is the road network system and the existence of several critical points of congestion at certain hours that occur along primary arterial roads. Therefore, one solution to this problem is the construction of the highway. Elucidation of the primary survey of traffic conditions at several sample points are as follows: a. Vehicle traffic on the crossing road (intersection traffic count) Survey of intersection traffic count (ITC) or the movement of the intersection of the survey carried out at the link below: • Simpang Sadang There is high traffic volume at this intersection because it is a main entrance and exit EIA III-106 for vehicles, especially for large public transportation bus types, minibuses etc from outside cities such as Jakarta, Subang, Purwakarta and Indramayu, but also due to the activities of residents and vendor (kaki lima) merchants, and passengers waiting for buses near the intersection. • Simpang Jatisari This intersection is located on the arterial roads Cikampek Pamanukan. The traffic condition at this intersections is fairly heavy, plus the intersection is located in an area of trade and the road is narrow, causing bottleneck traffic. • Simpang Pamanukan This intersection diverts Cikampek vehicle movement towards Indramayu and Subang regencies. There are dense traffic conditions but it does not experience significant congestion. • Simpang Karang Ampel This intersection arguably does not experience heavy traffic, because the movement in and out of the intersection is not so dominant. Instead there is continuous flow from both directions toward Indramayu and Cirebon and vice versa. b. Travel time and delays that occur on roads From the results of the survey and travel time delay (TTD), the journey from Cikampek and Palimanan with the distance to 134 km along the existing arterial roads, with speeds of between 40.71 to 66.25 km / h, then the latency is between 121.38 to 197.52 minutes. When compared to the planned toll road that has a 116 km distance and speed between 80-100 km / h, then latency is 69.6-87 minutes (the journey can be shortened). So with the toll road there will occur an improvement to time efficiency (saving time) of 51.78-110.52 minutes or about 43-56%. More data on travel time and delays that occur on the existing roads (travel time and delay) are presented in Table III.52 below. Table III.51 Time of Survey EIA Travel Time and Delay (TTD) Distance (Km) Travel Time Speed (Km) (km/hour) Trip Trip Trip Trip Trip Trip Cikampek – Palimanan – Cikampek – Palimanan – Cikampek – Palimanan – Cikampek Palimanan Cikampek Palimanan Cikampek Palimanan III-107 Peak morning Off Peak noon Peak evening Off Peak night 134 134 162,12 154,80 49,59 51,93 134 134 153,72 152,82 52,30 52,61 134 134 197,52 152,81 40,71 52,62 134 134 23,30 121,38 65,21 66,25 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan c. Vehicle traffic on the road (cross sectional vehicle traffic count) From the survey and traffic counts, data was obtained on daily traffic volume for each segment which was on average surveyed for 3 x 24 hours for each type of vehicle. The results from processing the primary data traffic count survey subsequently became the basis of the traffic analysis and prediction of traffic. The summary results of traffic count in the eighth section of Cikampek – Palimanan road are presented in the following table: Table III.52 Analysis of Traffic Count in Existing Road in Cikampek Palimanan Description unit Frequency Vehicl e/day Percentag motorcycle % Small vehicle Heavy vehicle average Cikamp ekJatisari 21 .237 Paman Jatibara Jatisari ukan - Kandang Haur- ng-Karang Jatibarang Pamanukan Kandang Ampel Haur 39.434 34.808 19.911 6.371 8.740 Jati barang Paliman an 13.566 Cirebon Paliman an 42.482 Karang Ampel Cirebon 8,26 11,36 7,79 11,28 25,38 - 10,72 8,11 16,49 % 37,57 28,84 26,91 29,50 28,33 57,22 21,56 41,10 % 51,77 52,85 63,04 53,24 12,56 23,81 66,44 26,79 18.974 32.213 31.311 10.601 2.604 7.082 11.936 28.843 885 1.643 1.450 830 266 364 565 1.770 791 1.342 1.305 687 109 295 497 1.202 Smp/h ari Max route Smp/ja m Average Smp/ja m route -T/U –S % 47,28 52.37 59.96 52.62 52.53 49.91 48.39 -B/S – U` % 52,72 47.63 40.04 47.38 47.47 50.09 51.61 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan The result of the field survey of traffic conditions at this time saw heavy traffic in the EIA III-108 42.37 57.63 section from Cirebon – Palimanan, ie 42,482 vehicles / day; this is comprised of 8.11% bicycles (2 and 3 wheels, motorized and non-motorised), 21.56% are light vehicles (sedans, jeeps, station wagons, kijangs, elves, Colt, carry, pick up, small tray trucks, microbus, public transportation, minibus) and 66.44% are heavy vehicles (large buses, small trucks, medium truck, Hold Truck, Container truck). The traffic count was processed with reference to MKJI 1997 with the passenger car equivalent factor (PCE) in accordance with the road conditions. The PCE values used in the conversion of units of vehicles into passenger car units are shown in the table below: Table III.53 No. 1 2 3 4 5 6 7 8 EMP Value on Each Surveyed Road Section Cikampek-Jatisari JatisariPamanukan PamanukanKandang Haur Kandang HaurJatibarang Jatibarang-Karang Ampel Karang AmpelCirebon JatibarangPalimanan Cirebon-Palimanan EMP Type Width (m) Volume (vehicle/hr) 2/2 UD 2/2 UD 7 7 1490 1063 MC 0.4 0.4 4/2 UD 16 1602 0.4 1.3 2/2 UD 7 1147 0.4 1.3 2/2 UD 6,5 673 0.4 1.3 2/2 UD 7 987 0.4 1.3 2/2 UD 7 1112 0.4 1.3 4/2 UD 16 1654 0.4 1.3 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan The survey was carried out in six volumes of unclassified road segments using the traffic count survey, and found that the daily traffic average (ADT) that crosses the Cikampek - Palimanan arterial street, and the early prediction of frequency of vehicles that have the potential to enter this highway, are shown in the table as follows: Table III.54 Toll Road Potential Based on ADT 1 Cikampek-Jatisari 21.237 18.974 Potential Traffic (vehicle/day) 19.608 2 Jatisari-Pamanukan 39.434 32.213 18.141 3 Pamanukan- Kandang Haur 34.808 31.311 17.117 4 Kandang Haur – Jatibarang 19.911 10.601 23.747 No. EIA Section ADT (vehicle/day) ADT (pcu/day) III-109 HV 1.3 1.3 5 Jatibarang-Karang Ampel 6.371 2.604 3.862 6 Karang Ampel-Cirebon 8.740 7.082 7.077 7 Jatibarang-Palimanan 13.566 28.843 10.223 8 Cirebon-Palimanan 42.482 28.843 21.245 Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan d. The pattern of movement that occurs in the area around the planned Cikampek – Palimanan toll road (survey of origin - destination) Survey of origin destination (OD survey) was conducted at 2 points, ie. the Cikampek and Subang roads. Criteria for selection of survey location points, among others, included straight, wide road shoulders and body that was enough to stop the vehicle on the shoulder of the road without unduly disturbing the traffic flow. From the OD data it is seen there is a tendency for through traffic to dominate the existing pattern of movement along the Cikampek – Palimanan arterial road. This is an indication that the existence of the planned toll road will greatly help to make travel time and vehicle operating costs for road users who travel constantly to the external zones of the study area more efficient. ADT and percentage data from the continuous movement and to Palimanan city are presented in the following table: Table III.55 LHR and Percentage of Through Traffic, from and to Palimanan location Traffic Through traffic OD Palimanan % 44 27 Cikampek LHR (Kend) 8.942 5.487 % 82 14 Subang LHR (Kend) 15.008 2.565 e. Traffic Service Level Determining the level of traffic service requires data on vehicle volume (pcu / h) and capacity. Capacity values for each road segment can be seen in the following table: No. 1 2 3 4 EIA Section CikampekJatisari JatisariPamanukan PamanukanKandang Haur Kandang HaurJatibarang Co (pcu/hr/lan e) 3.100 FCW FCSP FCSP 1,00 1,00 0,93 2.883 1.933 0.67 3.100 1,00 1,00 0,93 2.883 1.521 0.53 Stable B 1.900 1,00 1,00 0,91 1.729 1.643 0.95 Not Stable D 3.100 1,00 1,00 0,93 2.883 2.392 0.83 Not Stable D C V (pcu/hour) (pcu/hour) V/C Ratio Note Level of Condition service Stable B III-110 5 6 7 8 Jatibarang – Karang Ampel Karang AmpelCirebon JatibarangPalimanan 3.100 0,955 1,00 0,93 2.753 657 0.23 Stable B 1.900 1,00 1,00 0,91 1.729 1.643 0.95 Not Stable D 3.100 1,00 1 00 0,93 2.883 1.933 0.67 Stable B CirebonPalimanan 3.100 0,955 1,00 0,93 2.753 675 0.23 Stable B Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan From the results of such calculations as shown in the table above, traffic that remains stable at peak hours (V / C ratio <0.8) is usually located at the links from Cikampek Jatisari, Jatisari - Pamanukan, Jatibarang - Karang Ampel, Jatibarang - Palimanan and Cirebon-Palimanan. These roads can be categorised at the level of service B because the flow is steady with medium traffic volume, but the pace has begun to be restricted by traffic conditions. The roads that have unstable traffic at peak hours (V / C ratio> 0.8) are the roads Pamanukan – Kandang Haur, Kandang Haur - Jatibarang and Karang Ampel - Cirebon. These roads can be categorized at the level of service D as the current approach is not stable with high traffic volumes and speeds that are still tolerated, but these roads are strongly influenced by changes in current conditions. B. Public Utilities The condition of public utilities located in the vicinity of the study area and which will be affected by the planned Cikampek-Palimanan toll road was determined based on data available from the Review of Feasibility Studies and the Final Technical Engineering Plan for the Cikampek-Palimanan toll road; these results can be seen in the Table below: Table III.56 Public Utilities Location/STA SECTION I STA 89.139 PLN Telkom PDAM Pertamina Notes 3 x 20 kV (3x380 V) - - - STA 90.100 3 x 20 kV - - - Twisted cable 220, 380v contribution from 20 kV with transformer - STA 90.150 3 x 20 kV - - - - - - - Electricity from Mulyamekar – communication and Simpang Susun Sadang STA 90.340 EIA III-111 railway STA 91.356 STA 91.552 - OH 2 x 60 V - - water from Cikampek – Purwakarta road Gentanik wire OH 3 x 20 OH 6 x 60 V UG1φ kV UG 3 x 20 100mm UG 3 x 20 kV kV - STA 94.825 OH 3 x 20 kV - - STA 95.265 OH 3 x 20 kV - - STA 97.072 OH 3 x 20 kV - - 98.632 OH 3 x 20 OH 2 x 60 V kV - STA 103.406 OH 3 x 20 OH 2 x 60 V kV - STA 103.421 - gas pipe φ 6” Portal STA 104.027 OH 3 x 20 OH 2 x 60 V kV STA 104.044 OH 3 x 20 OH 2 x 60 V kV - Portal power line with concrete pale 104.696 OH 3 x 20 kV - - STA 107.315 OH 3 x 20 OH 2 x 60 V kV - STA 113.638 OH 3 x 20 OH 2 x 60 V kV - STA 116.115 OH 3 x 20 kV - - STA 16.928 OH 3 x 20 OH 2 x 60 V kV UG 3 x 20 kV - - - - - - - Gas pipe Gas pipe - SECTION II STA 118.423 STA 123.670 STA 126.122 STA 127.212 STA 129.310 EIA - OH 3 x 20 OH 2 x 60 V kV OH 3 x 20 OH 2 x 60 V kV - Water pipe 90 cm under, voltage 20 Kv, 220, 380v distribution with transformer with twisted cable Concrete Pale 11m, 6 circuit 380v III-112 STA 129.310 SECTION III STA 130.044 STA 130.901 - - - - OH 3 x 20 OH 2 x 60 V kV - - STA 131.355 OH 3 x 20 kV STA 136.134 OH kV OH kV OH kV OH kV OH kV OH kV STA 138.432 STA 139.820 STA 142.747 STA 149.722 STA 149.742 To supply power for lighting 3 locations interchanges should be prepared: - From the street Province (Subang Palimanan) - From the Village Cilameri - From the Village Sukamelang Gas pipe φ 6” planned - Distribution to each village ranging from 20kV to 220, 380v with transformer and cables twisted 3 x 20 OH 2 x 60 V 3 x 20 - - 3 x 20 OH 2 x 60 V 3 x 20 - - 3 x 20 3 x 20 OH 2 x 60 V - SECTION IV STA 167.650 SECTION V STA 178.400 STA 179.005 STA 180.169 STA 187.290 STA 189.089 STA 190.690 SECTION VI STA 194.706 STA 195.298 EIA - - - OH 3 x 20 kV - - OH 3 x 20 OH 2 x 60 V kV OH kV OH kV OH kV OH kV 3 x 20 - - 3 x 20 OH 2 x 60 V - - 3 x 20 OH 2 x 60 V - - 3 x 20 OH 2 x 60 V - - OH 3 x 20 kV OH 3 x 20 OH 2 x 60 V kV - III-113 STA 195.952 OH 3 x 20 kV STA 196.496 gas pipe Portal STA 197.399 OH 3 x 20 kV STA 200.011 OH 3 x 20 OH 2 x 60 V kV STA 200.692 OH 3 x 20 kV STA 201.499 OH 3 x 20 kV STA 201.786 OH 3 x 20 kV STA 202.088 OH 8 x 20 OH 2 x 60 V kV STA 202.096 OH 8 x 20 kV STA 202.255 gas pipe Portal STA 205.575 OH 3 x 20 OH 2 x 60 V UG φ 100 – kV 400mm STA 205.750 OH 3 x 20 kV STA 206.393 OH 3 x 20 kV STA 206.717 OH 8 x 20 kV STA 207.150 OH 3 x 20 OH 2 x 60 V kV STA 205 up to OH 12 x Planned PLN and UG φ 400 m 207 UP 150 kV PDAM Source: Review of Feasibility Study and Final Engineering Plans Toll Road CikampekPalimanan The gas pipeline that crosses the planned Cikampek-Palimanan Toll Road were identified in field observations and are presented in the following table: EIA III-114 Table III.57 Locations of Gas Pipelines that Cross the Toll Road No. STA. Village 1 103+400 2 0+350 Karangmukti Kaliangsana Pabuaran Kalijati Subang Subang 3 4 5 6 7 8 9 Jabong Jabong Tegal Aren Bongas Kulon Bongas Wetan Bongas Wetan Ciwaringin Subang Subang Ligung Sourcejaya Sourcejaya Sourcejaya Ciwaringin Subang Subang Majalengka Majalengka Majalengka Majalengka Cirebon 3.5 126+120 127+300 189+975 194+200 195+295 195+938 202+286 Sub-district Regency Gas Pipe Note Dia. 6" (PT.Pertamina) Dia. 6" (PT.Moeladi) Access Road IO Kalijati Planned Planned Dia. 6" (PT.Pertamina) Planned Dia. 6" (PT.Pertamina) Dia. 6" (PT.Pertamina) Dia. 6" (PT.Pertamina) COMPONENTS OF PUBLIC HEALTH Public health conditions in the study area as based on secondary data are shown to be relatively good. This can be seen due to the existence of many adequate health facilities in the 5 regencies that are traversed by the planned Cikampek- Palimanan toll road in West Java province, namely: Subang, Indramayu, Purwakarta, Cirebon and Majalengka. The existing health facilities in these 5 Regencies include government-owned General Hospitals, district health centers (puskesmas), health centers (puskesmas pembantu), mobile health centers, health centers with sleeping/overnight facilities and medicinal centers, and medics and paramedics. The trend of diseases that affect most people in the study area are ARI (Upper Respiratory Tract Infection), gastritis (stomach ulcer), Influenza, Dermatitis (Skin Disease), myalgia (aching joints) and diarrhea. The nutritional status of the population is generally described by the class of population which is susceptible to malnutrition, especially among children aged under 5 years old. The percentage of children who are experiencing malnutrition vary from 0.5% -1.01% in the 5 regencies. (Source: Regency in Figures, 2006, for each Regency) Sanitation facilities in the area primarily support the purposes of bathing, washing and toilet (MCK); in general the population use public restrooms or a public bathrooms, and occasionally a private bathroom on private properties which suggests a healthy home. EIA III-115 Meeting the needs of clean water is crucial to people's lives; in the 5 districts people utilize clean water sourced from dug wells / pumps (ground water) and subscriptionmanaged piped water taps, where most of the water comes from river water. The details of the health situation in the 5 regencies to be traversed by the planned Cikampek – Palimanan toll road in West Java Province is as follows: Purwakarta Regency Existing health care facilities in Purwakarta Regency include 2 General Hospital, 13 Rumah Bersalain, 19 community health centers (puskesmas) and 41 community health assistance centres (puskesmas pembantu). Medical personnel and physicians included 34 general practitioners, 14 PTT Doctors, 10 PNS Dentists and 12 PTT dentists; there were also 17 specialist doctors but they were found only in the Bayu Asih hospital (RSUD). Nutritional status in children aged under five reflects that the nutritional status of the population is poor; 0.7% are poorly nutritioned and 1% are underweight. When viewed from the previous year these numbers have decreased. Environmental sanitation in the area is measured as family ownership of toilet and waste management facilities, which was 60% and 57.6% respectively. Awareness to improve housing conditions in accordance with the criteria of a healthy home reached 60% of the population. Clean water for drinking water was generally sourced from PDAM water subscriptions rather than ground water, and some water sources are managed from river water. With a population density 805 people/km2 this also has the potential to facilitate the transmission of disease via air from air pollution, which is increasing as well. Subang Regency There are 3 hospital facilities in the Regency, 2 in Subang and 1 in Kalijati, with 335 beds total. There are several community health centers and clinics in the 22 districts, including 39 public health centers (puskesmas inpres), 72 community health assistance centers (puskesmas pembantu), 34 mobil health centers and 17 general medicinal clinics. There are 25 PNS doctors and 21 PTT doctors, 3 PNS dentists and 11 PTT dentists; there are a total of 691 paramedics including PNS / PTT midwives and PNS / contract nurses. EIA III-116 Nutritional status is measured as the nutrition of vulnerable groups namely children under five years (toddlers); the percentage of toddlers that are severely malnourished and underweight was 0.61% and 7.47% respectively. The most common diseases in this area are ARI, Gastritis and Influenza. Looking at the existing density of population (678.44 people/km2) then the risk of disease transmission through the air becomes greater, especially in areas that will be affected by the toll road plans. Air pollution in the vicinity of the construction will potentially exacerbate the transmission of diseases. Environmental sanitation includes clean water supply and disposal and management of solid waste. PDAM water supplies 14 districts, and those which are not served rely on groundwater sources. RT waste water management uses sewers, but these have not been well integrated, so that when rain falls this potentially causes puddles. Likewise the disposal of waste is managed by each RT which burns the waste collected by cleaners, which is then dumped in one place for intensive management via open dumping. Indramayu Regency As for health care facilities in the 31 districts there are 49 community health centers (puskesmas), 67 community health assistance centers (puskesmas pembantu) with 75 medical personnel / doctors, 27 dentists, 388 paramedics / midwives and 436 nurses. Nutritional status of the vulnerable children in Indramayu sees as much as 1.01% and 10.8% nutritionally poor and underweight, respectively. This is the one regency of the 5 regencies planned to be traversed by the Cikampek-Palimanan toll road with the highest level of malnutrition among children under five. Source of clean water generally comes from ground water, waste is managed by SPAL of RT although this has not been well integrated so that there is potential to cause puddles when heavy rains. Population density in Indramayu is around 832 people/km, and this also has the potential to facilitate disease transmission through the air like respiratory infections. Given the general land to be affected by the planned toll road is agricultural land, in the dry season this has the potential to be dry and dusty. EIA III-117 Majalengka Regency Data on health centres in 2004/2006 showed that in the 23 districts there aer 29 community health centers (puskesmas inpres) with a capacity for 76 treatment beds, 73 community health assistance centres (puskesmas pembantu), 28 mobile health center, and 35 medical personnel / general practitioners, 6 dentists, 285 paramedic / midwives and 32 village midwives. With community participation activities at the community level there are 1479 posyandu, and 3 Hospitals with a capacity of 273 beds. Population density in Indramayu is around 971 people/km2 where the highest density found in the Jatiwangi district (2032 people/km2), which includes urban areas; this could potentially facilitate disease transmission through the air like respiratory infection. Given the general land to be affected by the planned toll road is agricultural land, in the dry season this has the potential to be dry and dusty. Cirebon Regency In Cirebon there are 6 hospitals (including RS Paru-Paru), 53 Public community Health Centers (Puskesmas Umum), 63 community health assistance centers (puskesmas pembantu), 44 mobile health centers, 137 medicinal centres and 7 maternity clinics. Health personnel include 168 general practitioners, 32 dentists, 570 general nurses, 34 dental nurses and 553 midwives. The most common disease is diarrhea (suspected cholera). Source of clean water for the public is generally subscriptions to PDAM water and ground water. In general the SPAL are there but not well integrated, thus potentially causing puddles in the rain. Waste disposal systems are operated by the sanitation workers, who transport and then dispose waste to landfill for open dumping. It is also common that waste is not collected by sanitation workers, and is instead burned. 3.6 SUMMARY Cikampek - Palimanan Toll Road Development Plan is planned along ± 116.4 km, starting from the Cikopo Toll (Jakarta-Cikampek) in Purwakarta Regency, to be connected with the Kanci Toll (Pamanukan-Cirebon) in Palimanan, Cirebon regency. In general, the toll roads is divided into 6 (six sections), each divided by an EIA III-118 Interchange (IC) which includes a vehicle access gate to be operated during the later operational phase. The environmental, physical chemistry, biology, social, economic and culture conditions of each Section (STA) in the study area are described in Table III:59 as follows: a. Section I Section I starts from STA 91+500 to STA 118+550, from Purwakarta Regency, Bungursari district, Cikopo village, to Subang regency, Kalijati district, Kaliangsana village. b. Section II Section II starts from STA 118+550 to STA 129+750, from Subang regency, District Kalijati, Kaliangsana village, until Subang regency, Cisaga village. c. Section III Section III starts from STA 129+750 to STA 158+450, from Regency Subang, Subang district, Cisaga village, to Indramayu regency, Trisi district, Cikawung village (Cikedung 1C). d. Section IV Section IV starts from STA 158+450 to STA 177+350, from Indramayu regency, Trisi district, Cikawung village, until Majalengka regency, Kertajati district, Kertawinangun village. e. Section V Section V starts from STA 177+350 to STA 193+450, from Majalengka regency, Kertajati district, Kertawinangun village, until Majalengka regency, Palasah district, Sumberjaya village. f. Section VI Section VI begins from STA 193+450 to STA 207+900, from Majalengka regency, Palasah district, Sumberjaya village, until Cirebon regency, Palimanan district, Pegagan village. EIA III-119 Table III.58 Component Summary of Enviornmental Conditions of each Section of the Toll Road Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Section II STA 118+550 s/d STA 129+750 (Subang) Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Air Quality Sampling results are still under the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are still under the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are above Sampling results are Noise the Basic Quality of above the Basic Quality Government Regulation of Government (PP) Decree no. 41 of 1999 Regulation (PP) Decree no. 41 of 1999 Sampling results are still River Water Quality Sampling results are still below the standard of PP below the standard of PP No.82/2001 No.82/2001 Levels of nitrate, hardness, Levels of nitrate, Shallow Ground total coliform, already hardness, total coliform, Water Quality exceeds the standard by the already exceeds the Minister of Health standard by the Minister Regulation No. of Health Regulation No. 416/Menkes/Per/IX/1990. 416/Menkes/Per/IX/1990 Sampling results are still under the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are above the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are still below the standard of PP No.82/2001 Levels of nitrate, hardness, total coliform, already exceeds the standard by the Minister of Health Regulation No. 416/Menkes/Per/IX/1990 Sampling results are still under the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are above the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are still below the standard of PP No.82/2001 Levels of nitrate, hardness, total coliform, already exceeds the standard by the Minister of Health Regulation No. 416/Menkes/Per/IX/1990 Sampling results are still under the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are above the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are still below the standard of PP No.82/2001 Levels of nitrate, hardness, total coliform, already exceeds the standard by the Minister of Health Regulation No. 416/Menkes/Per/IX/1990 Sampling results are still under the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are above the Basic Quality of Government Regulation (PP) Decree no. 41 of 1999 Sampling results are still below the standard of PP No.82/2001 Levels of nitrate, hardness, total coliform, already exceeds the standard by the Minister of Health Regulation No. 416/Menkes/Per/IX/1990 Landslide Hazards Potential of Landslide hazard S. Ciherang, Cilandak, Cilamaya, Cisiluman, Kalijati, Pakuharja, Cicadas, Cibeunying, Cijengkol, Cibeletok, Cibuang, Ciburangrang, Ciracas, Kalijambe No Potential of Landslide hazard S. Cikadeuplak+ped acc, Handiwung+ped acc, Cipulung+ped acc, Cibeureum, Cibogo, Cilamatan, Cibalakuya, Cipunegara, Cipapan, Cikale, Cicadas, No Potential of Landslide hazard S. Cipondoh, Ciluncat, Cipanas, Salurah alami, Cuyu and Cidudut. No Potential of Landslide hazard S. Cilamaning+ped acc, Lebak+ped acc, Cimanuk, Cicadas, Cibuluh, Cilutung canal+ins road, Cibogor, Cibunut and Cibayawak. No Potential of Landslide hazard S. Cikawangi, Ciporon small, Cibugang, Rawa, Ciranggon, Cikawung, Cikadongdong, Ciwaringin, Cikarang, Cieseeng, Winong, Caple and Wadas. Truncated River EIA No Potential of Landslide hazard S. Cilarangan, Cibodas, Ciginting, Cibening, Ciasem, Cidahu, Cipicung, Cipeujeuh, Cigaduh and Cigede. III-120 Component Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Pembawa Cicongok. *) and Section II STA 118+550 s/d STA 129+750 (Subang) S. Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Cibuan, Cikandung, Cibiuk, Ciburial, Cipancu and Cipahit, Land Use Area of paddy field irrigated 0.3 hectares, 40.2 hectares rainfed rice field; field is 9.6 ha, 6.0 ha unproductive land, vacant land 1.5 hectares, and forest area to reach 75.3 Ha Irrigated paddy field 36.3 Ha; rainfed rice field 3.0; forest 25.8 Ha. Unused field and unproductive land. Irrigated paddy field 13.5 Ha; rainfed rice field 17.7 Ha; field 5.4 Ha; unproductive land 28.5 Ha; forest 79.5 Ha, plantation 33.15 Ha. Irrigated paddy field 35.1 Ha; field 2.4 Ha; unproductive land 8.1 Ha; forest 65.4 Ha. There is no rainfed rice field. Irrigated paddy field 42.3 Ha, field 22.5 Ha, forest 12.3 Ha. Irrigated paddy field 50.7 Ha, field 0.9 Ha, forest 9.1 Ha. There are no rainfed rice fields. Vegetation Type Density per ha was 2430, with a frequency of taxa (s) 44, an index of diversity (H) 3390, H 'Maximum (In s) 3784, Equatabilitas index is 0.896. Density per Ha was 2.450, with a frequency taxa (s) 43, diversity index (H) 3.390 H’ Maximum (In s) 3.874, Equatability Index is 0,886. Density per Ha was 2.650, with frequency taksa (s) 43, indeks diversitas (H) 3.383, H’ Maksimum (In s) 3.761, Indeks Ekuatabilitas was 0,899. Many common insects, including Grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies, big, green flies, house flies, javelin, Mosquito. Amphibians in the form of frog Many common insects, including Grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies, big, green flies, house flies, javelin, Mosquito. Amphibians in the form of frog Density per Ha was 2.690, with frequency taksa (s) 45, indeks diversitas (H) 3.362, H’ Maksimum (In s) 3.807, Indeks Ekuatabilitas was 0,873. Many common insects, including Grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies, big, green flies, house flies, javelin, Mosquito. Amphibians in the form of frog Density per Ha was 2.330, with frequency taksa (s) 45 indeks diversitas (H) 3.452, H’ Maksimum (In s) 3.807, Indeks Ekuatabilitas was 0,907. Fauna Type Density per Ha was 2.590, with frequency taksa (s) 43, indeks diversitas (H) 3.372, H’ Maksimum (In s) 3.705, Indeks Ekuatabilitas was 0,883. Many common insects, including Grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies, big, green flies, house flies, javelin, Mosquito. Amphibians in the form of frog Many common insects, including Grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies, big, green flies, house flies, javelin, Mosquito. Amphibians in the form of frog Many common insects, including Grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies, big, green flies, house flies, javelin, Mosquito. EIA Amphibians in the form of frog III-121 Component Flora EIA Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Section II STA 118+550 s/d STA 129+750 (Subang) Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Many insects found: grasshopper, Dragonflies, Butterflies, Beetles, Bees, Flies great, green flies, house flies, javelin, Mosquito. Many common amphibians: tree frog, Frog budug. Reptiles found: Chameleons, tree Cicak, Cicak fly. Aves / Birds often found: kestrel, Bentet, Bird honey, Cabak mating, Cabean, Cipoh, Eagle bondol, Jog-jog, Finch, kite, Prenjak, Pungguk, Sesap honey coconut, cuckoo, Wallet kusapi, swallow saliva. Density per ha 2330, Frequency taxa Many reptiles and lizard found. Birds / Aves are common: alap alap, Bentet, Cabak maltng, and Eagle bondol (each location observations), Kutilang, Kite, cuckoo, Swallow saliva and Swallow kusapi. Mammals encountered is the Rice Field Rat and grate Many common Amphibians including Tree frog, Frog budug. For Reptiles Chameleon was encountered, Tree lizard, and Cicak fly. Many common Aves / Birds, including Kestrel, Bentet, Bird honey, Cabak mating, Cabean, Cipoh, Eagle bondol, Jog-jog, Kutilang, Kite, Prenjak, Pungguk, Sesap honey coconut, cuckoo, Wallet kusapi, Swallow saliva. Common Mammals were squirrel, FlyingFox, Cecurut, Careuh, grate and Walangkopo. Reptiles found: Lizard, Oray Python, Gray sacking, Oray shoots, Oray hejo, Oray khoros. Common Aves / Birds: kestrel, Bente, Cabak mating, Eagle bondol, Kutilang, Kite, Srigunting, cuckoo, Walt kusapi, swallow saliva, Quail and Lathe bush. Mammals found: Rice Field Rats and Grate. Density per ha 2430, Frequency taxa (s) 44, Index Density per ha 2690, Frequency Taxa (s) 45, Density per ha 2258, Frequency taxa (s) 44, Index Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Reptiles found: Lizard, Oray Python, Oray sacking, Oray shoots, Oray hejo, Oray khoros. Aves / Birds found: Kestrel, Bente, Cabak thief, Eagle bondol, Kutilang, Kite- Kite, Srigunting, cuckoo, Kusapi swallow, swallow saliva, Quail and Lathe bush. Mammals found: Rice Field Rat and grate Reptiles found: Lizard, Oray Python, Oray sacking, Oray shoots, Oray hejo, Oray khoros. Aves / Birds found: Kestrel, Bente, Cabak thief, Eagle bondol, Kutilang, Kite-Kite, Srigunting, cuckoo, Kusapi swallow, swallow saliva, Quail and Lathe bush. Mammals found: Rice Field Rat and grate Density per ha taxa (s) 44, Diversity Index (H) 3390 Density per ha 2650, Frequency taxa (s) 43, Index III-122 Component Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Diversity (H1) 3390, \ H'maksimum (In s) 3784, Ekuitabilitas Index (H7 H'maksimum) 0896. Plankton S. Ciherang Phytoplankton: Total individu/3ml sample is 129, Total taxa 28, the Diversity Index H '=-E pi In pi amounted 2.20, while H-Max = Ln S is 3.33 and Equability (E) = H7Hmax is 0.66. Zooplankton: Total individual/3ml sample is 69, Total taxa 20, Diversity Index H '=-E pi In pi is 2.41, while H-Max = Ln S is 3.00 and Equability (E) = H7H-max is 0.80. ANDAL EIA Section II STA 118+550 s/d STA 129+750 (Subang) Diversity Index (H ') 3362, H'maksimum (In s), 3807, Index Ekuitabilitas (H7 H'maksimum) 0883. S. Cilamaya Phytoplankton: Total individu/3ml sample is 167, Total taxa 29, Diversity Index H '= -E pi In pi is amounted to 2.87, while H-Max = Ln S is 3.37 and Equability (E) = H '/ H-max are 0.85. Zooplankton: Total individual/3ml sample is 160, Total taxa 13, Diversity Index H '= -E pi In pi is 1.98, while H-Max = Ln S is 2.56 and Equability (E) = H '/ H-max was 0.77 Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Diversity (H1) 3407, H'maksimum (In s) 3784, Index Ekuitabilitas (HV H'maksimum) 0900 Diversity (H1) 3452, H'maksimum (In s) 3807, Index Ekuitabilitas (HV H'maksimum) 0907 H'maksimum (In s) 3784, Index Ekuitabilitas (HV H'maksimum) 0896. Diversity (H1) 3383, H 'maximum (In s) 3761, Index Ekuitabilitas (H '/ H'maksimum) 0899. S. Cobodas Phytoplankton: Total individu/3ml sample is 759, Total taxa 26, Index Diversity H '=-E pi In pi amounted to 2.72, while H-Max = Ln S is 3.26 and Equability (E) = H '/ Hmax is 0.83. S. Ciasem Phytoplankton: Total individu/3ml sample is 348, Total taxa 21, Index Diversity H '=-E pi In pi amounted to 2.48, while H-Max = Ln S is 3.04 and Equability (E) = H7H- max is 0.81. S. Cipanas Phytoplankton: Individu/3ml total sample is 358, Total taxa 18, Index Diversity H '=-E pi In pi is amounted to 2.03, while H-Max = Ln S is 2.89 and Equability (E) = H '/ Hmax are 0.70. S. Cimanuk Phytoplankton: Total individu/3ml sample are 905, Total taxa 35, the Diversity Index H '=-E pi In pi amounted 2.80, while HMax = Ln S is 3.56 and Equability (E) = H '/ Hmax is 0.79. Zooplankton: Total individual/3ml sample is 557, Total taxa 25, Index Diversity H '=-E pi In pi is by 2.23, while H-Max = Ln S is 3.22 and Equability (E) = H7Hmax is 0.69. Zooplankton: Individual/3ml total sample is 58, Total taxa 15, Index Diversity H '=E pi In pi is 2.23, while H-Max = Ln S is 2.71 and Equability (E) = H '/ H-max are 0.82. Zooplankton: Total individual/3ml sample is 277, Total taxa 14, the Diversity Index H '=-E pi In pi amounted 1.78, while HMax Ln S is 2.64 and Equability (E) = HVHmax is 0.67. Zooplankton: Total individual/3ml sample is 49, Total Taxa 6, Diversity Index H '=-E pi In pi is 0.98, while H-Max = Ln S is 1.79 and Equability (E) = H '/ Hmax is 0.55. III - 138 III-123 Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Section II STA 118+550 s/d STA 129+750 (Subang) Benthos Total individu/3ml sample is 16, Total taxa 4, Diversity Index H '=-E pi In pi amounted to 8.82, while H-Max = Ln S is 1.39 and Equability (E) = HVH-max is 0.58. Total individu/3ml sample is 4, Total taxa 3, Index Diversity H '=E pi In pi is at 1, 04, while H-Max = Ln S is 1.10 and Equability (E) = HVH-max are 0.95. Irrigation Channel Cut by Toll Road STA 103+304, STA 115+314, STA 11 8+541. STA 120+854, STA 121+160, STA 123+250, STA 123+696, STA 124+813, STA 125+584, STA 125+712, STA 125+840, STA 126+716, STA 128+040, STA 128+253, STA 129+046. Component EIA Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Total individu/3ml sample is 2, Total Taxa 2, Diversity Index H '=-E pi In pi is amounted to 0.69, while H-Max = Ln S is 0.69 and Equability (E) = HVH- max is 1, 00. STA 130+059, STA 130+085, STA 130+231, STA 130+261, STA 130+ 756, STA 132+346, STA 134+522, STA 135+154, STA 136+983. Total individu/3ml sample is 25, Total Taxa 6, the Diversity Index H '=-E pi In pi is 1.41, while H-Max = Ln S is 1.79 and Equability (E) = HVHmax is 0.79. Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Individu/3ml total sample is 17, Total taxa 5, Diversity Index H '=-E pi In pi is 1.41, while HMax = Ln S is 1.61 and Equability (E) = HVHmax was 0.87. Total Individu/3ml total sample is 69, total 20 taxa Diversity Index H '=-E p In pi is 2.41 while H-Max = Ln S is 3.00 and Equability (E) = HVH-max are 0.80. STA 178+159, STA 179+064, STA 179+930, STA 180+260, STA 182+180, STA 185+345 STA 185+672, STA 185+800, STA 186+180, STA 186+478, STA 186+715, STA 186+975 STA 187+345, STA 187+345, STA 188+385, STA 188+480, STA 189+020, STA 189+345 STA 192+111, STA 192+355, STA 192+680, STA 193+050 STA 193+333, STA 94+066, STA 194+125 STA 194+903, STA 195+047, STA 195+163 STA 195+216, STA 195+655, STA 195+848 STA 195+942, STA 196+586, STA 196+827 STA 197+208, STA 197+729, STA 197+844 STA 197+982, STA 199+408, STA 199+556 STA 199+561, STA 199+782, STA 199+928 STA 201+881, STA 202+363, STA 202+809 STA 203+120, -,STA 202+525, STA 203-833 STA 204+253, STA 205+472, STA 205+596, STA 205+744, STA, 205+806, STA 206+387, STA 206+449, STA 206+743, STA 207+012. III-124 Component Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Section II STA 118+550 s/d STA 129+750 (Subang) Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Population Residents affected by the project: 230 households. Residents affected by the project: 164 households. Residents affected by the project: 216 households. Residents affected by the project: none. Residents affected by the project: 450 households. Residents affected by the project: 458 households. Manpower Requirement / Section During construction labor needs to reach 250 people, divided into 10% of the elements of the project owner / owner, as much as 10% for the regulatory element as an expert medium and 80% for the element of the contractor for labor experts and rough. During construction labor needs to reach a 50 people, divided into 10% of the elements of the project owner / owner, as much as 10% for the regulatory element as an expert medium and 80% for the element of the contractor for labor experts and rough. During construction labor needs to reach 250 people, divided into 10% of the elements of the project owner / owner, as much as 10% for the regulatory element as an expert medium and 80% for the element of the contractor for labor experts and rough. During construction labor needs to reach 225 people, divided into 10% of the elements of the project owner / owner, as much as 10% for the regulatory element as an expert medium and 80% for the element of the contractor for labor experts and rough. During construction labor needs to reach 200 people, divided into 10% of the elements of the project owner / owner, as much as 10% for the regulatory element as an expert medium and 80% for the element of the contractor for labor experts and rough. During construction labor needs to reach 150 people divided into 10% and the element of the project owner / owner, as much as 10% for the regulatory element as an expert medium and 80% for the element of the contractor for labor experts and rough. Frequency Job Seekers / Regency A total of 15,595 people in the district of job seekers. Purwakarta, 53.76% of whom were women. From the frequency these, 46.77% search working women have high school education level. A total of 9532 people in the district of job seekers. Subang, 33% of them graduated from junior high and high school as well. A total of 17,453 people in the district of job seekers. Indramayu 46% of them are high school graduates. As many as 16,170 people jobseekers, with the level of early education from primary to vocational Gantar and Trisi as many as 3715 people with various levels of education SLIP. Registered job seekers reached 829 people, consisting of 500 women and 329 men. Registered job seekers reach 1 .292 people consisting of women and men with an average education level of junior high and high school. EIA III-125 Component Section I STA 91+500 s/d STA 118+550 (Purwakarta and Subang) Section II STA 118+550 s/d STA 129+750 (Subang) Section III STA 129+750 s/d STA 158+450 Subang and Indramayu Section IV STA 158+450 s/d STA 177+350 (Indramayu and Majalengka) Section V STA 117+350 s/d 193+450 (Majalengka) Section VI STA 193+450 s/d STA 207+900 (Majalengka and Cirebon) Religion Percentage population Muslim in Purwakarta Regency amounted to 98.98%; temporary resident Catholic Christian 0.21%; adherent Protestant Christianity amounted to 0.73%; Hindu 0.02% and Buddhist 0.06%. In Regency. Subang frequency Muslim population is majority that is as much as 99.74%; followed by 0.012% Catholic faiths; Christian religions Protestant registration 0.013% and the remaining adherent Hindu religion and Buddhist. Indramayu Moslem population of 1,691,185 people, followed the soul 4762 Protestant, Catholic soul 1647, soul 142 Hindu, Buddhist and Confucian soul 18 232 inhabitants. The majority of the population Regency. Indramayu Muslims as many as 1,691,185 souls followed by Protestant residents at 4762 souls, Catholic 1647 souls, Hindu 142 soul, the soul of Buddha 232, and Confucian 18 souls A total of 99.75% population Regency. Majalengka hug Islam, as many Protestant Christian faiths 1.28%, adherents of the Catholic religion as much as 0.08%, the rest Hindu and Buddhist religions total 99,710 residents A total of 99,710 residents of Cirebon embrace Islam, Protestants, adherents at 0.16%, Catholic religion 0.09%, Hindu religious adherents 0.02% and adherent Buddhist 0.02%. Agriculture The total area irrigated paddy fields 0.3 hectares; rain fed paddy field 40.2 ha of; field is 9.6 ha; 6.0 hectares of not productive soils, vacant 1.5 ha and forest area reached 75.3 ha. Area of paddy field area irrigation reaches 36.3 ha; rainfed paddy field 3.0 ha and forest 25.8 Ha. Not found field or farm Area of paddy field area irrigation of 13.5 hectares, 17.7 hectares rainfed rice field; field is 5.4 ha; unproductive 28.5 ha and forest reached 79.5 ha, land area of paddy field area irrigation of 35.1 hectares; field is 2.4 ha, 8.1 ha unproductive land, and forest to reach 65.4 Ha. There is no rainfed rice field. total area irrigated paddy field is 42.3 Ha, 22.5 ha field and forest an area of 12.3 ha The total area irrigated paddy fields covering an area of 50.7 ha, 0.9 ha field and forest of 9.1 ha. There is no rain-fed paddy field EIA III-126 Component Fishery Industrial & Trade EIA Section I STA 91+500 s/d STA 118+550 (Regency. Purwakarta and Subang Regency) In Regencyupaten Purwakarta, Bungursari, fisheries activities in paddy field area of 26 ha with production of 0.70 tons; calm water in the pool area 3.54 ha and in the waters general area of 16.50 ha. In Sub-districtamatan Cempaka, fisheries activities in paddy field area of 32 ha; in calm water swimming area 20.5 ha and in the waters general area of 59.15 ha. Regency. Purwakarta, industry large / medium in the district Purwakarta spread on 9th District and concentrated on industrial centers, such districts Tegalwaru and Plered and industrial areas Bukit Indah in town Sub Bungursari. Sub Plered and Tegalwaru is Section II STA 118+550 s/d STA 129+750 (Regency Subang) Fishing activity in the study area not too considering the dominant location of study area which is not too close fisheries potential. composition, the unit based business investment status capital ie 7 PMA 12 Domestic, 16 Non company facilities, 1462 formal small industry and 8994 industry small non-formal. Section III STA 129+750 s/d STA 158+450 Regency Subang and Regency Indramayu Section IV STA 158+450 s/d STA 177+350 (Regency Indramayu and Regency Majalengka) Fisheries activities in study area is not this dominant visible of the absence of data area and production and data supporter of activity in the sector within the territory study. In Regency. Indramayu industrial sector is one sectors of society now in great demand as a means of trying in the era of regional autonomy. This situation can be seen from the increased frequency of large industrial enterprises, medium businesses recorded 35 of about 330 companies that Section V STA 117+350 s/d 193+450 (Regency Majalengka) Section VI STA 193+450 s/d STA 207+900 (Regency Majalengka and Regency Cirebon) Viewed from topography, Regency, Majalengka not have marine fisheries, aquacultural production in in 2006 was dominated by place of business calm pool of water with the production of 3327.09 tonnes. Area of land for pond freshwater fishery in the district. Ciwaringin 0.425 ha, in Sub Gempol 1.52 Ha, in the district. Palimanan 1.294 Ha. Frequency big industry in the regecny of Majalengka many as 10 companies and medium industries as many as 344 companies. When views of its kind, large industrial / medium which is 89.93% is the tile industry. Regency. Cirebon has speciality of the industry excavation of goods not metal and rattan industry by looking at the results non oil exports owned by Regency Cirebon other than batik, embroidery threads and fisheries (frozen shrimp). III-127 industrial centers promoted by labour department Regional Issues/Concerns Most of the people are farmers. There is concern community against problem of liberation land due to land release agriculture resulted in their income be reduced where productivity results agriculture partly become lost. Replacement trees felled and replacement standards tree needs to get clarity with involve community formulate change loss. Given the vast amount of paddy fields affected exemption, then some farmers be affected impact of lost their livelihoods The impact of toll roads is the effect on economic growth in the lane artery that becomes income decline, declining land prices, etc. Economic activity that exists in some lines include stalls, shops, restaurants and others. Social Cultural Customary activities such as marriage, circumcision, death, down to paddy field, harvest, build houses, appointment of leaders society, and nature mutual help community until now now there are many there among village community. This situation is supported therefore this area has long been open relationship with the region outside and the level education relative height and mobility between Customary activities such as marriage, circumcision, death, down to paddy field, harvest, build houses, appointment of leaders society, and nature mutual help community until now now there are many there among village community. This situation is supported therefore this area has long been open relationship with the region outside and the level Customary activities such as marriage, circumcision, death, down to paddy field, harvest, build houses, appointment of leaders society, and nature mutual help community until now now there are many there among village community. This situation is supported therefore this area has long been open relationship with the region outside and the level EIA Given the vast amount of paddy fields affected by the exemption, so some farmers will be affected lose their livelihoods. In addition, the exemption of agricultural land can also reduce the productivity results agriculture in the region. Customary activities such as marriage, circumcision, death, down to paddy field, harvest, build houses, appointment of leaders society, and nature mutual help community until now now there are many there among village community. This situation is supported therefore this area has long been open relationship with the region Customary activities such as marriage, circumcision, death, down to paddy field, harvest, build houses, appointment of leaders society, and nature mutual help community until now now there are many there among village community. This situation is supported therefore this area has long been open relationship with the region outside and the level One important issue that must be anticipated against the plan highway construction Cikampek - Palimanan is the issue of liberation land. Pembeba rejection problem of land-san is especially true in the boarding area Babakan Ciwaringin Cirebon Issues raised not to the aspect development plan highways, but there release plan crossing or crossing land boarding them. Customary activities such as marriage, circumcision, death, down to paddy field, harvest, build houses, appointment of leaders society, and nature mutual help community until now now there are many there among village community. This situation is supported therefore this area has long been open relationship with the region outside and the level III-128 population is more dynamic. education relative height and mobility between population is more dynamic. education relative height and mobility between population is more dynamic. outside and the level education relative height and mobility between population is more dynamic. education relative height and mobility between population is more dynamic. education relative height and mobility between population is more dynamic. Socioeconomic Type of work is grouped in 8 category, namely (a) farmers, (B) traders, (c) Employees, (d) employee country, (e) self-employed, (f) workers, (g) carpenters, (h) teachers, (i) Other. category type of work owned by respondents simply vary so range of livelihood is adequate describing reality social in the region. The main work The largest respondent is a farmer registration; followed traders; entrepreneur; etc. and labor. Type of work grouped in 8 category, namely (a) farmers, (b) traders, (c) employee, (d) civil servants, (e) self-employed, (f) workers, (g) worker, H) teacher, (i) Other other. Category type jobs owned by respondents simply vary so eye span livelihood is adequate describe social reality area. The main work respondents largest as farmers registration; merchants; self-employed and others. Type of work grouped in 8 category, namely (a) farmers, (b) traders, [C) Employees, (d) Civil servants, (e) self-employed, (f) workers, (G) carpenters, (h) teacher, (i) Misc. Category types of jobs held by respondents varied enough so that the range of livelihood are inadequate to describe social realities in the region. Type of work grouped in 8 category, namely (a) farmers, (b) traders, C) Employees, (d) civil servants, (e) self-employed, (f) workers, (G) carpenters, (h) teacher, (i) Misc. Category types of jobs held by respondents varied enough so that eye span The livelihoods adequately describes social realities in the region. Job the largest are the main respondent most farmers, traders, self-employed etc. and labor. Type of work are grouped in 8 category, namely (a) farmers, (b) traders, (c) Caryawan, (d) civil servants, (e) selfemployed, (f) union, (g) carpenters, (h) teacher, (i) Other. Category types of jobs held by the respondents are varied so that the range of livelihood adequately describes the social reality in the region. Type of work grouped in 8 category, namely (a) farmers, b) traders, (c) Employees, (d) employee country, (e) selfemployed, (f) union, (g) carpenters, (h) teachers, (i) Other. Category types of jobs held by respondents varied enough so that range of livelihood is inadequate to describe the social reality in the region. Respondent's main job is as a farmer of the largest registration, traders, entrepreneurs and others work as laborers. Land ownership 78.8% owned, leased 4.2% and others 17.0%. Own 87%, lease 2.1% and Another 10.9%. Own 89.7%, lease 2.4% and 7.9% other Own 80.6%, rent of 2.3% and others 17.1%. Own 78.4%, 3.2% rental and others 18.4%. Own 79.2%, 2.2% and other rental 18.6%. EIA III-129 Respondents Opinions About Toll Road Agree on implementation highway construction as much as 92% and not agree 8.0% Agree on implementation highway construction as much as 92% and not agree 8.0% Agree on implementation highway construction as much as 92% and not agree 8.0% Agree on implementation highway construction as much as 92% and not agree 8.0% Agree on implementation highway construction as much as 92% and not agree 8.0% Agree on implementation highway construction as much as 92% and not agree 8.0% Compensations Compensation shall be in accordance with the agreement, and indemnity coverage among others to land, buildings, plants and other assets. Payment of compensation shall begin immediately after an agreement is reached. Form 87% cash compensation, replacement land and other 10.2% 2.8% Compensation shall be in accordance with the agreement, and indemnity coverage among others to land, buildings, plants and other assets. Payment of compensation shall begin immediately after an agreement is reached. Form of cash compensation of 90%, land replacement and other 5.2% 4.8% Compensation shall be in accordance with the agreement, and indemnity coverage among others to land, buildings, plants and other assets. Payment of compensation shall begin immediately after an agreement is reached. Form 93% cash compensation, replacement land 1.2% and 5.8% other. Compensation shall be in accordance with the agreement, and indemnity coverage among others to land, buildings, plants and other assets. Payment of compensation shall begin immediately after an agreement is reached. Form 89% cash compensation, replacement land and other 4.1% 6.9% Compensation shall be in accordance with the agreement, and indemnity coverage among others to land, buildings, plants and other assets. Payment of compensation shall begin immediately after an agreement is reached. Form of cash compensation 88.7%, 2% of land replacement and other 9.3%. Compensation shall be in accordance with the agreement, and indemnity coverage among others for building soil, plants and other assets. Payment of compensation shall begin immediately after an agreement is reached. Form 95% cash compensation, replacement land 2.4% and 2.6% other. Community Consultation Results Community Consultation Results highway construction plan will result in reduced economic activity, especially along arterial roads CikampekCirebon.The presence of Toll Road Development Cikampek-Palimanan is expected to help the unemployment problem in the region Community Consultation Results highway construction plan will result in reduced economic activity, especially along arterial roads Cikampek-Cirebon.The presence of Toll Road Development Cikampek-Palimanan is expected to help the unemployment problem in the region Community Consultation Results highway construction plan will result in reduced economic activity, especially along arterial roads CikampekCirebon.The presence of Toll Road Development Cikampek-Palimanan is expected to help the unemployment problem in the region Community Consultation Results highway construction plan will result in reduced economic activity, especially along arterial roads CikampekCirebon.The presence of Toll Road Development Cikampek-Palimanan is expected to help the unemployment problem in the region Community Consultation Results highway construction plan will result in reduced economic activity, especially along arterial roads CikampekCirebon.The presence of Toll Road Development CikampekPalimanan is expected to help the unemployment problem in the region Problem of land acquisition is particularly the case in the boarding school pesantren in Babakan Ciwaringin Cirebon. Rejection done because according to the toll road plan that will take the land area of 30 hectares and over pesantren complex. EIA III-130 Condition of Village Road Facilities & Infrastructure STA 89 139 + Cable PLN 90 340 Interchanges Sdang STA, STA Sdang Railways 91 356 + Cable Telkom, Province / National Road STA 91 552 + + Telkom, PLN, PDAM, STA County Road 98 632 PLN + Cable + Cable Telkom sd / STA 123 670 there is a cable PLN + Telkom. Village Road STA 119 130 + Cable PLN, Subang Interchanges 129 310 STA, STA and STA 27 212 126 122 Gas Pipeline Pertamina, County Road 129 310 STA. Provincial Road 130 044 STA, Provincial Road STA 130 044 PLN + Cable + Cable Telkom, STA County Road 149 742 PLN + Cable + Cable Telkom Interchanges kalijati STA 178 400 PLN + Cable + Cable Telkom Village Road STA 180 169, County Road 187 290 STA Public Health conditions Environmental Sanitation in the area is viewed from the ownership of toilet and Waste Water Management System as a means family waste management and RT, respectively 60% and 57.6%. while awareness to improve housing conditions in accordance with the criteria of a healthy home reaches 60%. Source of clean water for drinking water generally subscribe to PDAM water and when not to use ground water, source water use comes from the river water. Environmental sanitation in this area seen from the ownership of toilet and Waste Water Management System (SPAL) as a means of management of the family or household waste. Mediumkan keadaran to improve housing conditions in accordance with the criteria of a healthy home reaches 72%. Source of clean water for drinking water generally subscribe shallow ground water and river water and spring water. Environmental sanitation in this area seen from the ownership of toilet and Waste Water Management System (SPAL) as a means of management of the family or household waste. Mediumkan keadaran to improve housing conditions in accordance with the criteria of a healthy home reaches 72%. Source of clean water for drinking water generally subscribe shallow ground water and river water and spring water. Environmental sanitation in this area seen from the ownership of toilet and Waste Water Management System (SPAL) as a means of management of the family or household waste. Mediumkan keadaran to improve housing conditions in accordance with the criteria of a healthy home reaches 72%. Source of clean water for drinking water generally subscribe shallow ground water and river water and spring water. Environmental sanitation in this area seen from the ownership of toilet and Waste Water Management System (SPAL) as a means of management of the family or household waste. Mediumkan keadaran to improve housing conditions in accordance with the criteria of a healthy home reaches 72%. Source of clean water for drinking water generally subscribe shallow ground water and river water and spring water. STA 195 952 PLN and Telkom have cable, there are 196 496 Gas Pipeline STA, STA 197 399 Village Road until there is 201 096 STA PLN and Telkom cables, gas pipes there is 202 255 STA, STA Palimanan Interchanges 205 575 + Pipe + pipes PLN PDAM Environmental sanitation in this area seen from the ownership of toilet and Waste Water Management System (SPAL) as a means of management of the family or household waste. Mediumkan keadaran to improve housing conditions in accordance with the criteria of a healthy home reaches 72%. Source of clean water for drinking water generally subscribe shallow ground water and river water and spring water. Source : Summary from Consultant’ 2008. EIA III-131 CHAPTER IV SCOPE OF STUDY SCOPING RESULT 4.1 The result of scoping has been done previously at the time of preparing the KAANDAL could in Figure 4.1 Diagram of Water Scoping. Furthermore, to study the impact of forecasting there are two effects that originally (in the KA-ANDAL), including the impact of the hypothetical important, but after the review is not a priority of the significant impacts that should be studied further. Both effects are: a. The emergence of land speculators Understanding the mechanism for land acquisition based on Presidential Regulation No. 36 Jo. No. 65 Year 2006 on Land Procurement for the implementation of Development for Public Interest, it will be difficult for the emergence of opportunities for the emergence of land speculators. This is considering phasing of land acquisition activities under Presidential Regulation are very clear and tight, where the presence of TPT and P2T also observe the process of land acquisition. The phasing is as follows: Phase I: Approval and request location Phase II: Dissemination, inventory and Land Price Assessment Team Phase III: Deliberation and Normative List Stage IV: Payment and Release of Rights Letter (SPH) Phase V: UGR Custody Court b. The emergence of public disappointment to the value of the land compensation Based on Presidential Regulation No. 36 Jo. No. 65 In 2006, the value of compensation based on two aspects: 1. Local market price based on the real price recommendations by the Land Price Appraisal Team. 2. Discussion So the price of land acquisition is expected to comply with the agreement. In the EIA IV-1 event of dispute will be resolved legally. Thus the value of the land compensation has been a collective agreement that is acceptable by all parties. SCOPE OF STUDY AREA 4.2 The scope of the study area boundary is required in order to focus the assessment on an object of study from an area of particular area. The study area boundary is the resultant of the boundary below (see in Figure 4.2.) 1. Project Boundaries Project boundaries, namely the scope of where the project activities will be carried out either during pre-construction, construction, and operation. This project boundary includes 60 m wide ROW along ± 16.4 km. 2. Ecological Boundaries Ecological limits set by dispersion effect through the medium of air and noise (± 200 m left and right of way), and water in the vicinity of the location within a radius of 500 m. Field observations indicate that the direction of emission of pollutant dispersion and leads to parallel the road because of the influence of movement caused by the flow of traffic. It is also based on the forecast distribution of vehicle emissions that will operate the air and water media approach is an ecological boundary. 3. Social Boundaries Social boundary is a space around the site of activity, where the ongoing socioeconomic and cultural interaction based on dynamic groups of people, which is expected to experience a fundamental change because of the development activities of Cikampek-Palimanan toll road. Type of major and significant impacts on the social component into consideration social boundaries among others: • Loss of property rights / land tenure, livelihoods and reduced incomes that will lead to the increase in dissociative process due to land acquisition activities. • Dependent comfort and increased risk of disease due to increased air and noise pollution impacts. • EIA Disruptions of socioeconomic mobility due to project activities. IV-2 4. Administrative Boundaries Is the space where people are free to conduct socio-economic and socio-cultural in accordance with laws and regulations in force in the room, in this case the administrative boundaries include areas such as in Table IV.1 below. Table IV.1 No. 1 Administration Boundaries of The Project Regency Purwakarta Sub-district Bungursari Campaka Cibatu Pabuaran Cipeundeuy Kalijati 2 Subang Purwadadi Pagaden Subang Cipunagara Cibogo 3 Indramayu Gantar Trisi Kertajati Dawuan Jatiwangi 4 Majalengka Ligung Palasah Sumberjaya Ciwaringin 5 Cirebon Gempol Palimanan EIA VIllage Cinangka,Cikopo Cimahi, Cisaat Kertamukti Karyamekar Cipasungsari Karangmukti Wantilan, Sawangan Marengmang Kaliangsana, Batusari Wanakerta Balingbing, Sumurgintung, Gembor Jabong, Sukamelang Cisaga Wanasari Cibogo, Pada Asih Sumur Barang Bantar Waru, Sanca Cikawung Mekarjaya, Palasah Kertawinangun Sukawana Pasir Melati, Balida Mandapa Jatiwangi, Surawangi Jatisura, Ciborelang Beusi, Tegal Aren Cisambeng, Majasuka Bongas Kulon Bongas Wetan Panjalin Lor Panjalin Kidul Budursora, Babakan Ciwaringin, Galagamba Kedung Bunder, Kempek Pejagan IV-3 EIA IV-4 CHAPTER V FORECASTING IMPORTANT IMPACTS 5.1 IMPACT FORECASTING Forecasting the impacts of this study was performed on the hypothetical impact of the expected significant results from the Cikampek-Palimanan Toll Road Development project activities both during the pre construction, construction and construction phase. Based on the results of the previous scoping, significant impacts that may occur due to the hypothetical project activities of Cikampek-Palimanan Toll Road Development described below. 5.1.1 Pre-Construction Phase In the pre-construction activities, the assessment carried out on a route that has been determined the Governor of West Java Province. Size and allocation of land use will be released; can be seen in Table II.5 in advance (Chapter 2). Most of the land crossed by the Cikampek-Palimanan toll road is an agricultural land (irrigated) and HGU controlled by large companies (forestry). Community-owned land is generally a mixture of garden land and vacant land controlled by the population. Settlement residents who missed the motorway route is generally located in the vicinity of the intersection of the toll lane plan for the National road / street district. Number of people directly affected by the project as follows: 1. Section I of as many as 230 families 2. Section II, as many as 164 families 3. Section III KK 216 4. Section IV does not exist 5. Section V as many as 454 families 6. Section VI as many as 454 families As written on the results of scoping, pre-construction stage activities that will have impacts are activity survey and measurement of highway alignment and land acquisition activities. The impact expected to arise are as follows: EIA V-1 a. The emergence of community unrest Locations for Cikampek-Palimanan Toll Road Development Project include Purwakarta, Subang, Majalengka, Cirebon and Indramayu, in West Java, starting from Cikampek (Sta. 91 +500) extends until Palimanan area (Sta. 207 +000). In general, the width of the toll road space plan (ROW) of about 60 m. Especially on the highway segments with the excavation in the (deep cuttings), width rumija will reach 100 m, so that the construction of this highway is needed land with an area of 765.6 ha +. Activities that produce significant impacts on pre-construction phase include: 1) Surveys and measurements to determine the road alignment plan tot, for technical planning, as well as to determine the extent of land and buildings that need to be freed. 2) Exemption of ± 765.6 ha of land consisting of yard area, settlements, rice fields, houses, bushes, forest and garden. - The cutting of lands of farmers / community. Against a broad peasant landowners, cutting does not cause problems, but the farmers are relatively narrow land owners would be a problem. These problems, can lead to further problems both to the project which delayed the implementation of employment or on the environment of social unrest and a poor public perception of the project. At the time of social survey for the purposes of this study, population group owners / users of land and buildings to be affected by the project claim to fret, especially associated with the possibility of losing sources of livelihood and do not satisfy indemnity / compensation to be received. Meanwhile, the community preference survey respondents have no objection basically exempt land interests of toll road construction, as requested in the form of "appropriate compensation both on land and buildings". This clearly indicates there has been unrest among the citizens of the land users and / or building. Impact on social parameters such unrest dissociative process is expected to increase socialization, especially if not done properly, even the potential to improve the process of dissociative into social conflicts openly. From the description, it can be concluded that the potential impact of unrest quite large, considering that the original quality of the social environment for dissociative EIA V-2 process parameters are classified as good (no anxiety), became worse because the process of dissociative citizens rise to unrest which openly expressed by residents. The number of people affected by this negative spread in this region is relatively smaller than the area of project site (Section I, II, III.V.VI). However, this impact can be cumulative with the impact caused by other activities (e.g, procurement / acquisition of land), and in turn can lead to the emergence of social conflict that could disrupt social safety and security components, so that relatively large intensity as possible in order to hamper the implementation construction project. Therefore, the nature of the impact on the social component of this culture, considered an important negative category (B /-P). b. The emergence of Social Conflict Cikampek-Palimanan toll road development plan is facing one of the obstacles in the form of rejection of the plan for land acquisition, especially in the area around Babakan Ciwaringin boarding school. Various responses and reactions that oppose land acquisition plans in the region have been raised primarily by how many times the boarding community. These problems require special attention by both government and implementing projects in order to obtain a solution to solve. This issue has nothing to do with the rejection of Cikampek-Palimanan highway construction plan, but it is expected the formulation of alternative plans for road does not pass through or interfere with boarding area. These problems need to be examined properly in order to avoid social conflict. This impact is expected to arise from a survey of activities for technical planning, environmental surveys and inventory surveys and measurements for procurement purposes (acquisition) of land. Community preference survey results are basically the respondent does not object to the planned toll road along the land acquisition does not perform activities or disrupt the activities of the toll road boarding. If this issue is not handled properly, it has the potential to improve the process of dissociative into social conflicts openly. From the description, it can be concluded that the potential impact of refusal on the land acquisition activities in the boarding area, considering the quality of the original commander of the social environment for dissociative process parameters are classified as good (no anxiety), became worse because the process of dissociative residents from escalating into conflicts that are expressed as if by residents. The number of people negatively affected by relatively smaller spreading areas (Section I, EIA V-3 II, III.V.VI) rather than the project site area. However, this impact can be cumulative with looks that caused by other activities (eg, procurement / acquisition of land), and in turn can lead to the emergence of social conflict that could disrupt kamtibmas components, so that relatively large intensity as possible in order to hamper the implementation construction project. Therefore, the nature of the impact on the social component of this culture, considered an important negative category c. Reduced incomes Besides land acquisition activities will result in dibongkamya housing there is also the land acquisition plan plantation population where most of the plants which were above the crop and economic value as a source of income of the population. With the release of land for plantations certainly will eliminate a source of livelihood (livelihood) their families which in turn will reduce the level of income locals. This occurs mainly on the location of the highway alignment on land that serves as a commercial production, such as coconut plantations. As a result of this land acquisition area! be narrowed so that will impact the income decline. The impact can be categorized as large, considering who was there (have) a source of livelihood and income, to be lost at all because the land will be used for development purposes Cikampek-Palimanan toll road. However, there are replacement compensations for land acquisition, which is the source of livelihood that would be expected to be used to transfer the loss of livelihoods into productive assets. Analogous to the effect that occurred in economic activity, the number of people affected around the project site, dispersion effects are also limited in the area are exempt (Section I, II, III. V. VI), did not spread to the entire project site. Nevertheless, the impact categories considered important negative (B /-P), with consideration include: • greater intensity because of livelihood and income is being lost at all, and will greatly affect the socio-economic lives of families affected population; • can be time consuming, more than one stage of the plan of activities, especially if not done properly mitigation; • can result in a derivative form of anxiety about the future of family life, which then accumulates to the impact if other unrest that arise, can lead to social conflict. EIA V-4 5.2 CONSTRUCTION PHASE In these activities have an impact on the environment is the activities of a preparatory phase which includes the construction of labor mobilization, mobilization of heavy equipment, construction / operation of base camps, procurement, and that is the implementation phase of construction such as highway and street cleaning RUMIJA entrance, transportation of materials and material, subgrade preparation, excavation and embankment, the work piles, bridge work, bridge construction, construction of pavement layers, auxiliary building works (drainage / culverts etc. i) disposal and disposal work. Forecast of environmental impacts that will occur during the construction phase are described as follows: 5.2.1 Impacts on Physical-Chemical Components a. Reduced Air Quality Forecast gas emissions that would occur in the construction stage the project comes from heavy vehicles (dump trucks, water tank car, truck mixers, etc.) used during a construction / development Cikampek-Palimanan toll road, were analyzed by using the Gauss type source modeling area with the help of software SCREEN 3 USEPA. Construction activities that could potentially lead to decreased quality due to increased exhaust emissions and dust particles originated from the activities: 1. Mobilization of heavy equipment and materials Mobilization of heavy equipment and materials and materials such as the mobilization of bulldozers, excavators, wheel loaders, motor graders, prime mover, tire roller tandem roller, water / full tank trucks, dump trucks, pick ups, concrete mixers cause air quality degradation. From the results obtained modeling the concentration of CO, HC, NO2, SO2, and the maximum dust as a result of mobilization of heavy equipment found at a distance of 77 m as stated on the label 5.1. The safe distance to meet the quality standards for the parameters of CO starts at a distance of 1000 m, the parameters NO2 safe distance to meet the quality standards begins at a distance of 1900 m. For SO2 and HC parameters a safe distance to meet the quality standards begins at a distance of 50 m. Parameters dust EIA V-5 safe distance to meet the quality standards begins at a distance of 2000 m. Magnitude of impact can be negative and can be categorized as large. Table V.1 Estimated Maximum Concentration (ug/m3) Due to Mobilization Activities At 77 m distance Location U1 U2 U3 U4 U5 U6 U7 U8 U9 U10 CO 3954 4183 3954 4297 3839 3952 4068 4412 4412 4526 C max at 77m distance (ug/m3) HC N02 S02 1162 6364 965 1152 6374 965 1160 6374 965 1152 6305 965 1166 6312 965 1132 6270 965 1132 6328 965 1132 6306 965 1162 6234.1 965 1184 6327 965 Dust 3441 3436 3397 3396 3379 3374 3402 3357 3402 3505 Source: measurement, 2008 2. Operation of the base camp Operation of the base camp activities will greatly affect the air quality conditions around the base camp area, especially if the placement of base camp locations adjacent to existing residential location is less than 200 m. The existence of the operation of generators and the mobilization of water tanks and pickup trucks cause air quality degradation. For this activity modeling results obtained from the concentration of CO, HC, NO2, SO2, the maximum dust found at a distance of 77 m as shown in Table V.2 and a safe distance to meet the quality standards begins at a distance of 50 m for the parameters of CO, whereas the HC parameter starts at a distance 200 m, the parameters NO2 safe distance to meet the quality standards begins at a distance of 700 m. For SO2 safe distance parameters to meet the quality standards begins at a distance of 50 m. Parameters dust safe distance to meet the quality standards begins at a distance of 500 m. Magnitude of negative impacts and categorized as moderate. EIA V-6 Table V.2 Estimated Maximum Concentration (ug/m3) Due to Basecamp Operation Activities At 77 m distance Location U1 U2 U3 U4 U5 U6 U7 U8 U9 U10 CO 1106.8 1335.8 1106.8 1449.8 991.8 1104.8 1220.8 1564.8 1564.8 1678.8 C max at 77m distance (ug/m3) HC N02 S02 224.9 1483 31.122 214.9 1493 31.122 222.9 1493 31.122 214.9 1424 31.122 228.9 1431 31.122 194.9 1389 31.122 194.9 1447 31.122 194.9 1425 31.122 224.9 1353.1 31.122 246.9 1446 31.122 Dust 593.7 588.7 549.7 548.7 531.7 526.7 554.7 509.7 554.7 657.7 Source: measurement, 2008 3. Subgrade preparation As a result of land clearing and preparation of subgrade conducted at the project site, using bulldozers, excavators, concrete breaker, dump trucks, and pick ups. These activities impact air quality degradation (elevated levels of dust and gas pollutants.) For the preparation of the subgrade modeling results obtained from the concentration of CO, HC, NO2, SO2, the maximum dust found at a distance of 77 m as shown in the appendix, and a safe distance to meet the quality standards begins at a distance of 50 m for the parameters of CO, whereas the HC parameter starts at a distance of 500 m, the parameters NO2 safe distance to meet the quality standards begins at a distance of 1000 m. For SO2 safe distance parameters to meet the quality standards begins at a distance of 50 m. Parameters dust safe distance to meet the quality standards begins at a distance of 1000 m. Magnitude of negative impacts and categorized as large. Table V.3 Estimated Maximum Concentration (ug/m3) Due to Subgrade Preparation Activities At 77 m distance Location U1 U2 U3 U4 U5 U6 U7 U8 U9 U10 EIA CO 2263 2492 2263 2606 2148 2261 2377 2721 2721 2835 C max at 77m distance (ug/m3) HC N02 S02 594.1 4300 425.5 584.1 4310 425.5 592.1 4310 425.5 584.1 4241 425.5 598.1 4248 425.5 564.1 4206 425.5 564.1 4264 425.5 564.1 4242 425.5 594.1 4170.1 425.5 616.1 4263 425.5 Dust 3534 3529 3490 3489 3472 3467 3495 3450 3495 3598 V-7 Source: measurement, 2008 4. Excavation and embankment work In the soil excavation and embankment work is expected to give a huge contribution to the decline of air quality because of the volume of this activity is very large. In addition, the increases of gas pollutants also occur as a result of the operation of heavy equipment at work or tamp the soil to flatten the pile. Emission source derived from excavators, prime mover, dump trucks, and pick ups. For excavation and fill activities modeling results obtained from the concentration of CO, HC, NO2, SO2, the maximum dust found at a distance of 77 m, the distance is safe to meet quality standards begins at a distance of 50 m for the parameters of CO, HC parameter while starting at a distance of 400 m, N02 safe distance parameters to meet the quality standards begins at a distance of 1000 m. For SO2 safe distance parameters to meet the quality standards begins at a distance of 50 m. Parameters dust safe distance to meet the quality standards begins at a distance of 1000 m. Magnitude of negative impacts and categorized as large. Table V.4 Estimated Maximum Concentration (ug/m3) Due to Excavation and Embankment Activities At 77 m distance Location U1 U2 U3 U4 U5 U6 U7 U8 U9 U10 CO 1700 1929 1700 2043 1585 1698 1814 2158 2158 2272 C max at 77m distance (ug/m3) HC N02 S02 428.5 3382 323.9 418.5 3392 323.9 426.5 3392 323.9 418.5 3323 323.9 432.5 3330 323.9 398.5 3288 323.9 398.5 3346 323.9 398.5 3324 323.9 428.5 3252.1 323.9 450.5 3345 323.9 Dust 3458 3453 3414 3413 3396 3391 3419 3374 3419 3522 Source: measurement, 2008 5. Road works and pavement layers On-street pavement work operated heavy equipment, among others, from the concrete pump, generator, concrete breaker, grinder, motor graders, stamper, concrete vibrator, asphalt mixing, plan, asphalt finisher, prime over, tire rollers, tandem rollers, water / full tank trucks, dump trucks, pick-ups and concrete mixers. So the impact of air quality degradation, because elevated levels of pollutant gases (gases SO2, CO, NO2) and dust. EIA V-8 For road work and road pavement layers activities of the modeling results obtained the concentration of CO, HC, NO2, SO2, the maximum dust found at a distance of 77 m as shown in Table V.5 and a safe distance to meet the quality standards begins at a distance of 50 m for the parameters of CO, whereas HC parameter starts at a distance of 1000 m, the parameters NO2 safe distance to meet the quality standards begins at a distance of 1000 m. For SO2 safe distance parameters to meet the quality standards begins at a distance of 50 m. Parameters dust safe distance to meet the quality standards begins at a distance of 1000 m. Magnitude of negative impacts and categorized as large. Table V.5 Estimated Maximum Concentration (ug/m3) Due to Road Works Activities At 77 m distance Location U1 U2 U3 U4 U5 U6 U7 U8 U9 U10 CO 5793 6022 5793 6136 5678 5791 5907 6251 6251 6365 C max at 77m distance (ug/m3) HC N02 S02 1503 10370 700.4 1493 10380 700.4 1501 10380 700.4 1493 10311 700.4 1507 10318 700.4 1473 10276 700.4 1473 10334 700.4 1473 10312 700.4 1503 10240. 700.4 1525 10333 700.4 Dust 4094 4089 4050 4049 4032 4027 4055 4010 4055 4158 Source: measurement, 2008 6. Bridge Works Construction equipment used during construction works such as bridge piles tool, compressors, concrete pump, cutting machine, generators, cranes, concrete breaker, grinders, motor graders, stamper, concrete vibrator, prime mover, tire rollers, tandem rollers, asphalt mixing plan, asphalt finisher, water / full tank trucks, dump trucks, pick ups, concrete mixer during operation will cause the spread of impact, especially for dust at work can also be reached in an urban or other activities nearby, the impact took place when the ground work for the bridge construction. For bridge construction activity modeling results obtained from the concentration of CO, HC, NO2, SO2, the maximum dust found at a distance of 77 m as shown in EIA V-9 Table V.6 and a safe distance to meet the quality standards begins at a distance of 50 m for the parameters of CO, HC parameter while starting in distance of 1000 m, the parameters NO2 safe distance to meet the quality standards begins at a distance of 1000 m. For SO2 safe distance parameters to meet the quality standards begins at a distance of 50 m. Parameters dust safe distance to meet the quality standards begins at a distance of 1000 m. Magnitude of negative impacts and categorized as large. Table V.6 Estimated Maximum Concentration (ug/m3) Due to Bridge Works Activities At 77 m distance Location U1 U2 U3 U4 U5 U6 U7 U8 U9 U10 CO 7757 7986 7757 8100 7642 7755 7871 8215 8215 8329 C max at 77m distance (ug/m3) HC N02 S02 2092 14220 717.5 2082 14230 717.5 2090 14230 717.5 2082 14161 717.5 2096 14168 717.5 2062 14126 717.5 2062 14184 717.5 2062 14162 717.5 2092 14090. 717.5 2114 14183 717.5 Dust •m/i 4439 4400 4399 4382 4377 4405 4360 4405 4508 Source: measurement, 2008 On the road works are not carried out forecasts of air quality degradation as a result of tire friction, because the road work done watering on a regular basis so that its influence is very small. Reduced air quality due to increased particulate dust environment on the road that are not paved and maneuver of vehicles transporting material. Increased dust particles in the environment that occurred in residential areas will have an impact on population health including skin irritation, eye irritation, and respiratory tract irritation and disruption comfort. The impacts of declining air quality are expected to occur during the construction phase due to the work of mobilization of equipment and materials, land clearing and earthwork. The intensity of the impacts are relatively high, because the activities will be conducted every day for 30 months. The impact of continued deterioration of air quality is the disruption of public health. EIA V-10 EIA V-11 Table V.7 Impacts of Air Pollution Component Impact Cause irritation if excessive NAB Acceptable Threshold Level 260 ug/m3 shortness of breath and can cause bronchitis and lung Fibriosis 160 ug/m3 CO effects on the central 10.000 ug/m3 nervous system if the levels of CO are inhaled 15 ppm Release of this gas with continuous for 10 hours. The concentration of CO in the exposure can cause leukemia and room according to WHO Ranker standard industry should not exceed 50 ppm for 8 hours Gas carbon monoxide (CO) Participate inhaled through the lungs to bind hemoglobin (Hb) to carboxy hemoglobin (CoHb) and is 100 ug/m3 unable to bind oxygen (O2) and lead the process of oxygenation (O2 transport) to the network This is hampered due to affinity of CO for bind hemoglobin 200 times 265 ug/m3 The smell was detected at levels of 1 ppm, less comfortable in the chest at the level of 15 ppm for 1 hour, discomfort in the levels of 25ppm and the levels of SO ppm for 1 minute of pain arising in the substrunal area. greater dart O2. Excess levels of CO cause serious problems that begin with shortness of breath and severe headaches. Dizziness. mind weakening, eyesight and hearing. In severe poisoning can result in fainting followed by death. 3 ug/m3 Interfering with the weakened system pemafasan pemafasan SO2 gas is felt on the threshold of 0.1 ppm. At levels of 0.19 ppm for 24 hours several days in a row, can cause death. Standard WHO set 10-13 mg/m3 for 8 hours / day. At a concentration of 6-12 ppm can cause irritation to the nose and throat, inflammation of the eyes Tensa (at a concentration of 20 ppm) and swelling of the lungs runway / crack sound. system lungs and airways so easily infected lungs called Bronchiolisis Fibosa Cystica and other lung diseases. Excess sulfur dioxide gas causes an unpleasant smell and can cause EIA V-12 Component Impact NAB Acceptable Threshold Level eye conjunctiva, dizziness, nausea, coughing, staggering, and pulmonary edema and can result in death. 1. Judging from the number of people affected The number of people affected quite a lot of other people who are in the project site is also located in the vicinity of haul road construction material, then the effects considered important. 2. Judging from the distribution of impact area According to the wide spread of the impact of the project site along the 116.4 km with ROW width of 60 m, the dispersion effects can be categorized as particularly important for the dust can even reach the area of the nearest residential or other activities, so that the area is fundamental to environmental changes, the impact categorized arising important. 3. In terms of intensity and duration of the impact The impact lasts for mobilization of heavy equipment and material progress, duration of effect lasts for 30 months but a temporary place in the construction stage, then the effects can be categorized as not important. But in terms of intensity of impact will decline in air quality (Lead, hydrocarbons, SO2 gas. CO, NO2), although very small. For dust and Carbon Monoxide (CO) will increase to greater and contributes to air quality, and impacts that will occur is predicted quite important. 4. In terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. 5. The effects are cumulative, so that can be considered important. 6. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. The environmental impact will be felt by the community, especially the location of residential areas public facilities that are part of the Village area Cinangka, Bungursari, Purwakarta, Cimahi, Cempaka, Purwakarta, Wanakerta Village, District Purwadadi, Subang regency, Wanasari Village, District Cipunegara, Subang regency, Cikawung Village, District Trisi, Indramayu district, Kertawinangun Village, EIA V-13 District Kertajati, Majalengka, Jatisuro Village, District Jatiwangi, Majalengka, Village Tegal Aren, District Ligun, Majalengka, Babakan Village, District Ciwaringin, Cirebon Regency , Centella asiatica Village, District Palimanan, Cirebon regency. Thus the effect of the reduced air quality in the construction stage for large scale assessed the impact and importance of significant impacts (B /-P) with the following considerations: b. Increased Noise Construction phase activities that have the potential as a source of increased noise impact is: 1. Mobilization of heavy equipment and materials Mobilization of heavy equipment and materials and materials such as the mobilization of bulldozers, excavators, wheel loaders, motor graders, prime mover, tire rollers, tandem rollers, water / full tank trucks, dump trucks, pick ups, concrete mixer result in increased noise. As seen in figure.5.1 forecasts based on the calculation of the noise level generated from operating at the same time high enough that is equal to 93 dB (A) at a distance of 15 m from the source. When compared with the current condition of the average noise level of about 76.5 dB (A) the amount of negative impacts and categorized as large. EIA V-14 Operation of the base camp Basecamp operating activities will greatly affect the noise level around the base camp area, especially if the placement of base camp locations adjacent to existing residential location is less than 200 m. The existence of the operation of generators and the mobilization of water tank trucks and pick-up will result in increased noise. Based on the calculations as shown Figure 5.2 estimates the noise level generated from operating at the same time high enough that of 96 dB (A) at a distance of 15 m from the source. When compared with the current condition of the average noise level of about 76.5 dB (A) the amount of negative impacts and categorized as large. 3. Work due to subgrade preparation EIA V-15 As a result of land clearing and preparation of subgrade conducted at the project site, using bulldozers, excavators, concrete breaker, dump trucks, and pick ups. These activities result in increased noise. Based on such calculations is shown Figure 5.3 estimates the noise level generated from operating at the same time high enough that of 108 dB (A) at a distance of 15 m from the source. When compared with the current condition of the average noise level of about 76.5 dB (A) the amount of negative impacts and categorized as large. 4. As a result of excavation and embankment work In the soil excavation and embankment work is expected to contribute substantially to increased noise because of the volume of this activity is very large. In addition, increase in noise also occurs as a result of the operation of heavy equipment at work or tamp the soil to flatten the pile. Sources of noise originating from the excavator, prime mover, dump trucks, and pick-ups. EIA V-16 Based on such calculations is shown Figure 5.4 estimates the noise level generated from operating at the same time high enough that is equal to 106 dB (A) at a distance of 15 m from the source. When compared with the current condition of the average noise level of about 76.5 dB (A) the amount of negative impacts and categorized as large. 5. Road works and pavement layers On-street pavement work is operated with heavy equipment, among others, from the concrete pump, generator, concrete breaker, grinders, motor graders, stamper, concrete vibrator, asphalt mixing plan, asphalt finisher, prime over, tire rollers, tandem rollers, water / full tank trucks, dump trucks, pick-ups and concrete mixers. Which impacted on the increase in noise. Based on such calculations is shown Figure 5.5 forecasts of noise generated during operation of heavy equipment that is simultaneously a high of 108 dB (A) at a distance of 15m from the source. When compared with the current condition of the average noise level of about 76.5 dB (A) the amount of negative impacts and categorized as large. EIA V-17 6. Due to Bridge Works Construction equipment used during construction works such as bridge piles tool, compressors, concrete pump, cutting machine, generators, cranes, concrete breaker, grinders, motor graders, stamper, concrete vibrator, prime mover, tire rollers, tandem rollers, asphalt mixing plan, asphalt finisher, water / full tank trucks, dump trucks, pick ups, concrete mixer during operation will result in increased noise at this job also can reach the area! the nearest residential or other activities, the impact took place when the ground work for the bridge construction. Based on such calculations is shown Figure 5.6 estimates the noise level generated from the operation of heavy equipment at moderately high of 112 dB (A) at a distance of 15m from the source. When compared with the current condition of the average noise level of about 76.5 dB (A) the amount of negative impacts and categorized as large. EIA V-18 In general, forecasts from the calculation of noise level caused by the use of construction tools such as such as bulldozers, excavators, pile, dump trucks, compressors and others ranged between 54 to 82 dBA, at a distance of 15 m from the source of noise, as can be seen in the following table: The environmental impact will be felt by society, especially in residential location and area of public facilities that are part of the territory Cinangka Village, Sub-district Bungursari, Purwakarta Regency (STA 91 +500), Cimahi Village, Cempaka Subdistrict, Purwakarta Regency (STA 105 +000), Wanakerta Village, Sub-district Purwadadi, Subang Regency (STA 117 +000), Wanasari Village, Sub-district Cipunegara, Subang Regency (STA 136 +000), Cikawung Village, Sub-district Trisi, Regency Indramayu (STA 157 +500), Kertawinangun Village, Sub-district Kertajati, Regency Majalengka (STA 179 +000), Jatisuro Village, Sub-district Jatiwangi, Regency Majalengka (STA 187 +000), Aren Tegal Village, Sub-district Ligun, Regency Majalengka (STA 191 +000), Village Babakan, Ciwaringin Sub-district, Cirebon Regency (STA 200 +000), Pegagan Village, Sub-district Palimanan, Cirebon Regency, (STA 207 +000). Table V.8 Estimated Noise of Heavy Equipment at 15m Distance Source Bulldozer Excavator Stake tool Dump Truck Pick Up Compressor Concrete Mixer Concrete Pump Cutting Machine Generator Crane Concrete Breaker Grinder Wheel Loader Motor Grader Stamper Concrete Vibrator Prime Mover EIA SL2 dB(A) 72 66 82 69 65 61 63 62 59 58 63 74 70 63 70 70 58 65 V-19 Tire Roller Tandem Roller Asphalt Mixing Plan Asphalt Finisher Water/full Tank Truck Source: Measurement, 2008 54 54 64 64 69 For the noise caused by transporting the material and erection will be much felt in the intersection area (over / under pass) with an existing road where there are residential areas. As for the bridge construction activities, generally located far from residential areas. The main increase in noise will occur in areas outside of transportation activities in areas such as plantations, rice fields and settlements. Changes in noise level for a long time in this area will be a stampede of animals in the vicinity of the source impact and the possibility of migration of wildlife. Various kinds of impacts resulting from the high level of noise on public health and environmental comfort is described as follows: 1. Hearing Loss 2. Conversations Disorders 3. Sleep Disorders 4. Psychological Disorders 5. Disruption of work productivity 6. Health Problems Forecast the impact of increased noise on the environment is classified as a major and significant impact (B /-P), because its intensity exceeded environmental quality standards and result in further disruption of public health and comfort. The basis of the following considerations: 1. Judging from the number of people affected The number of people affected quite a lot of other people who are in the project site is also located in the vicinity of haul road construction material, then the effects considered important 2. Judging from the distribution of impact area According to the wide spread of the impact of the project site along the 116.4 km with ROW width of 60 m, the dispersion effects can be categorized as particularly important for the dust can even reach the area! the nearest residential or other activities, so that the area is fundamental to environmental EIA V-20 changes, then the effects are categorized important. 3. In terms of intensity and duration of the impact The impact lasts for mobilization of heavy equipment and material progress, duration of effect lasts for 30 months but a temporary place in the construction stage, then the effects can be categorized as not important. But in terms of intensity of impact will occur will increase to bigger and contributes to the increase in noise, and the impacts that will occur is predicted quite important. 4. In terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. 5. The effects are cumulative, so that can be considered important. 6. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. c. Reduced Surface Water Quality In the construction phase of a potentially reduce the quality of surface water originated from operating activities of the base camp, the mobilization of heavy equipment, the operation of the base camp, subgrade preparation work, excavation and embankment work, transport of soil and building materials, employment agencies and layers of road pavement, drainage work. Excavation and fill activities would reduce the quality of surface water is derived from the impact of soil erosion, thus increasing the level of river water turbidity in the project area. Activity creation / operation of the base camp which is expected around 1225 container workers (from section I to section VI). With this, it will be necessary facilities and accommodation to meet the needs of sanitation and maintenance of heavy vehicles, so that would interfere with the existence of surface water and groundwater in the area. The quality of surface water was observed in river water quality around the site Palimanan-Cikampek toll road development plan. Surface water quality measurement is conducted on 10 locations. EIA V-21 Table V.9 No 1 Measurement Result From Each River Parameter Physical : Suspend Solid Result Unit mg/L S1 S2 S3 S4 S5 S6 S7 SB S9 S10 15 18 73 21 10 61 14 0 13 3 Note: Regulation of Republic Indonesia No. 82/2001 Water quality classification specified as 4 (four) class i.e - First class (I) : Raw water which can be used for raw drinking water, and / or similar usage - Second class (II) : Raw water which can be used for recreation infrastructure, river fishery cultivation, Animal husbandry, irrigation and / or similar usage - Third class: (III) : Raw water which can be used for river fishery cultivation, animal husbandry, irrigation and / or similar usage - Fourth class (IV) : Raw water which can be used for irrigation and / or similar usage - ϕ) Based on radioactivity analysis result by National Nuclear Energy Agency / BATAN - sub contracting S1 S2 S3 S4 S5 = River Ciherang = River Cilamaya = River Cibodas = River Ciasem = River Cilamatan S6 S7 S8 S9 S10 = River Cipunegara = River Cipanas = River Cimanuk = Kanal Ciliwung = River Ciwaringin The decline of water quality derived from the toll road development activities resulting from spills of materials and activities of domestic workers. Material spills will increase the solids suspension in time around the site activity. Based on the environmental setting in which the TSS values measured at each sampling point location as described in Table V.9 above, so that with the expected increase in TSS for: Given: 1. TSS levels measured in the recipient water bodies (C1) 2. Water discharge in receiving water bodies (Q1) 3. Construction Waste discharge (Q2): 10 m3/day 4. TSS levels of construction (studies analogue) (C2): 60 mg / l So that the resulting TSS levels (C3) on each water body based on the following formula, shown in Table V.10. EIA V-22 C3 = Table V.10 c1 15 18 73 21 0 61 14 0 13 3 (C1 × Q1) + (C 2 × Q 2) (Q1 + Q 2) TSS level Produced (C3) on each water bodies Q1 344.92 508.21 105.42 203.73 120.54 389.24 146.45 495.56 465.56 232.56 Q1 Q2 65 65 65 65 65 65 65 65 65 65 C1*q2 10 10 10 10 10 10 10 10 10 10 5173.8 9147.7 7695.6 4278.3 1205.4 23743. 2050.3 0 6052.2 697.68 C2*q2 650 650 650 650 650 650 650 650 650 650 q1+q2 c3 354.92 518.21 115.42 213.73 130.54 399.24 156.45 505.56 475.56 242.56 16.41 18.91 72.31 23.06 14.21 61.10 17.26 1.29 14.09 5.56 % increase 9.39 5.04 0.95 9.80 42.13 0.16 23.28 120.00 8.41 85.20 So when compared with the initial hue environment in which the solid particles contained in the body of water before entering the site activities so there is a change of less than 30%, based on the descriptions above, then the impact is being classified. Of activities during the construction phase is expected to affect surface water quality and temporary. Based on six criteria of Important and Medium effect size (K /-P). The basis of the following considerations: 1. Judging from the number of people affected The number of people affected is people who are in the project site, then the effects considered important. 2. Judging from the distribution of impact area According to the wide spread of the impact of the project site along the 116.4 km with ROW width of 60 m, so that in the area of environmental change will occur, then the effects considered important. 3. In terms of intensity and duration of the impact effect lasted for mobilization of heavy equipment and material progress, duration of effect lasts for 30 months but a temporary place in the construction stage, then the effects can be categorized as not important. But in terms of intensity of impact will increase, but not great and contributed to the decrease of surface water quality, and impacts that will occur is predicted quite important. 4. In terms of the number of environmental components affected by the impacts EIA V-23 arising from these may cause some impact of derivatives, so that can be categorized as not important. 5. The effects are cumulative, but can be categorized as critical. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. d. Impaired Surface Water Flow Disruption of surface flow conditions is caused by the activities of cleaning and preparing land, earthwork (excavation / embankment), construction work and the road pavement. Landscape changes that occur will be caused by the stripping of vegetation cover the soil, increasing slope (excavation / fill), soil compaction and soil surface coating will have an impact on the increased rainwater runoff ( runoff coefficient ). This activity will take place along the highway (116.4 km) width of 60-100 meters. The impact of increased runoff will run continuously until the phase of toll road operations. Based on the coefficient of run-off (SNI 03-3424 - 1994), for roads with concrete or asphalt pavement (0.70 - 0.95), pathway (0.40 -0.70) compared with the suburbs (0.60-0,70), the garden from 0.45 to 0.60, Hills 0.70 to 0.80, it can be estimated that for the corridor area at the time of formation of the Pan Toll road agency (land leveling) will be a decline in discharge run-off, whereas at the time road pavement will increase the discharge run-off. Referring to the river basin area, the impacts on the natural flow of the rivers, will not have much effect. Thus, development process of this toll road will have small negative impacts. Effect of impact and the distribution will be local, so that the aspect of interest becomes unimportant (K /-TP). Disruption of other hydrological conditions is disruption of the flow of surface and ground water flow caused by the accumulation and compaction of the road. This activity will cause the weir effect that will result in changes in the direction of water runoff and increasing water level. As explained in chapter IV, that the impact of the presence of the existing road has led to the emergence of a new pool area at the intersection of the road with a river in the area of undulating hills, and improve surface water / flood plain areas that mainly occurs during the rainy season. In the area of intersection with the children of lowland river and will require the EIA V-24 accumulation of soil to support the road with the absence of an appropriate engineering techniques will create new puddles. The emergence of this new overflow area will cause environmental changes of the environment of dry land into the wetlands environment, causing a decrease in certain life and improve the lives of others (mosquitoes and other aquatic animals). pointed to problems in general, where environmental conditions in this area have been degraded so that has occurred imbalance of water availability in the dry season and rainy season, the existence of these new pools to provide increased availability of water during the dry season (small reservoirs). On the plains / basin, hoarding land for road agencies has hindered the flow of surface thus increasing the surface water level and cause flooding. The potential is in the river valley and river Cimanuk Ciwaringin and wetland areas between Indramayu and Majalengka. Increased water level caused by the increase in the national road agency between Cikampek - Cirebon has led to increased water level in the rainy season as high as one meter and the presence of a high water level in over a longer period has resulted in the death of several types of plants. The impact of these effects can be said of the weir (B). And with the nature of the impact is quite extensive, continuous, cumulative and did not return, and then the aspects of interest will be negative important (B /-P). e. Erosion Occurrence Erosion is the transfer of a period of soil from one place to another that can be caused by a mechanical process, the flow of water and wind. Erosion is caused by mining deposits that are related to cut and fill will be quite intensive in the geomorphology unit, undulating hills with texture and structure of relatively erosive and high-intensity rainfall in the region. For this condition, where generally the condition of land have been degraded, the rate of erosion in this area will reach between 10 tons / ha / year to 45 tons / ha / year. EIA V-25 Changes in levels of erosion due to land clearing activities is characterized by loss of land cover or factor "C" from a few calculations, will cause increased erosion of more than 100%. Increased levels of erosion due to excavation and embankment activities caused by the loss of forest cover, changes in land management factors and changes in soil structure reaches more than 300% scale. The increase due to land preparation activities (grading) is caused by a change in the slope of the land, the rate can be increased up to 265%. Increased erosion rate derivative impact of sedimentation. In addition to quarry management activities, the impact of land stripping and excavation activities embankment in this area to increase the rate of erosion is Great. As with land stability, is considered as the important aspects of impacts, the significant aspects will also have negative impact (B /-P). f. Environmental Aesthetics Disorders Changes in land use, will occur from the activities of land clearing, excavation and landfill and construction and the road pavement. Land used for the road which was originally used for plantation crops, forest production, dry field, mixed farms, and housing and public facilities, will turn into the road toll and completeness. These conditions will have an impact in the form of land use change and the impact of derivatives in the form of disturbance to flora and fauna, microclimate in the vicinity of the road (edge effects) primarily temperature and humidity, changes in environmental aesthetics, public accessibility problems, and declining revenue. Aesthetic impact of the environment caused by the project procurement activities are scattered land on the highway and scattering dust that covered everything above ground objects (buildings, plants) in the vicinity of the path through which material transport vehicle. Embankment material would be imported from outside the project site using material transport vehicles (dump trucks). Judging from the amount of material removed with a relatively high frequency of transport, the retail segments of the material on impassable roads can also cause traffic accidents. The possibility of such effects will take place at the time of transport soil material and can be ignored when the job is completed. The aesthetics only occurs in segments of intersection with the existing roads and driveway. Judging from the many other effects that arise are then included a small impact to the EIA V-26 nature of the negative impact of Small and Unimportant (K /-TP). g. Groundwater Flow Disturbance Due to embankment and excavation work Given the location of this project partly through hilly areas and in the implementation of development there will be dug up to about 20 m (depth), the soil excavation activities conducted for the road may cause disruption of groundwater flow and will alter groundwater flow patterns. This change will cause the flow resistance of the land at the bottom. In addition, disruption of ground water can also cause damage to the road / street construction because surface water is not channeled to the balk. These conditions will also affect the provision of clean water for communities in the southern part of this toll road. Work the soil in the form of excavation / urugan to obtain a certain level that is higher places dug and place a lower than planned diurug (stockpiled). Excavation / penggupasan ground by bulldozers, and the results kupasannya pushed to a lower place. In some places the soil excavation carried out on the layers of the aquifer that would potentially enough underground water, the resulting increase in flow of water out of the ground. Ground water discharge on the slopes of excavation of this toll road will result in these slopes become unstable and would easily have avalanches. Magnitude of impacts that will occur is estimated to big. Significant level of impact was determined through criteria: The number of people affected quite a lot and spread the impact is wide enough, because the projects are carried out in several locations that many productive aquifer that will be truncated. In terms of the intensity of the impact of disturbance will increase the ground water flow is decreasing ground water level due to interrupted by the excavation. The impact will last long even though the work was discontinued. The impact that will happen is permanent and irreversible. Another component that is affected by water supply problems for residents around since they rely on dug wells as sources of clean water. In addition to the discharge of ground water as spring water can cause landslides on the slopes where springs emerge. Thus, interference with the flow of ground water due to work digging and storage can be considered as large and negative important impact (B /-P). EIA V-27 h. Slope Stability Disorders To meet the criteria of the highway (road gradient maximum of 4%), highway construction activities will require cutting the ridge slope and accumulation in the area (cut and fill). Cut and fill activities will have an impact on the landscape changes and the original land form along the 116.4 km with a width between 80 to 100 meters. Work includes clearing and preparing land preparation, soil surface compaction and regional basis in the traffic lane (including lane stops and intersections), addition of this work also includes excavation and embankment or excavation followed by the formation, compaction, soil or material testing grained, and maintenance of a prepared surface to pavement material placed on top. Earthwork (excavation / embankment), includes excavation embankment to determine the basis of road surface, compaction of soil, excavation of canals and other utilities and transportation activity materials / sand. This activity will have an impact on physiographic conditions in the form of decreased land stability, increased soil erosion, subsidence / settlement and increased sedimentation. The impact of slope stability problems will continue to impact the stability of the soil. Hill cutting or trimming activities will result in a decrease in slope stability compared with conditions. Similarly, the activity accumulation in the low to form a landscapestreet will also lead to instability heap when compared with before any activity. The impact of slope stability problems could provide continued impact of highway transportation problems in the operation stage as the naturally existing roads. More than half the planned highway route will pass through the undulating hills of low slope above 15 degrees, there is even a steep valleys with slopes over 60 degrees. Avalanches, landslides in affected areas, cliff cuts would occur given the type of rock layers form the loop between the gravel containing gravel, sand and clay as well as the slope of the bedding planes of rock. From the discussion above, the impact of the earthwork (excavation / embankment) on slope stability, will be related to soil stability and have a continued impact of the EIA V-28 effects of slope stability problems is Great, and from the aspect of interest the impact is important negative (B /-P). 5.2.2 Biological Environment Components a. Reduced Vegetation Type or Land function Farming Agriculture and Natural Vegetation Due to Land Work This planned toll road would cross several areas of study where many common types of productive land rice fields and gardens. Rice estates in the northern part of West Java which is along the coast line as found in Subang and Indramayu a source of food commodities for which type of agricultural commodity crops grown and produced food is rice (Oryza sativa var IR 64, Ciherang, Sadane), and other agricultural commodities such as maize (Zea mays), yams (Ipomoeae batatas) and cassava (Manihot esculenta) and vegetables such as spinach, beans, chili, soy, ginger and other. Land work that includes cleaning and stripping, excavation and stockpiling of soil preparation time for the road affect land conversion from rice estates to local roads, and downsizing the area of productive land. Wetland area also has socio-economic functions that are important to society as they relate to the provision of jobs for the farmers and cultivators or agricultural laborers in the paddy field cultivation. Thus clearing the land for the preparation of the road is wide-ranging impact on livelihoods, land use and declining food production. Cikampek-Palimanan Toll Road is expected to result in land use change covering an area of 239.6 ha. Contraction in agricultural commodities is impacting land large enough in section I where the agricultural area irrigated area and rain fed area affected 40.5 ha, an area of 39.8 ha section II, section III, covering an area of 31, 2 Ha, section IV 35, 1 Ha, section V and section VI 42.3 50.7 Ha area. Total of all agricultural land in the study area of about 27,513 ha. The impact is considered in small category. Meanwhile, in terms of intensity and duration of the impact on an ongoing basis, in terms of human beings affected by land clearing is limited to the location / site project, then the negative impact arising categorized as not important. In terms of the number of environmental components affected by the impacts arising EIA V-29 from these may cause some impact of derivatives, so that can be considered important. No cumulative impacts due to released land because owners mutually agree to the value of compensation. On the basis of analysis of the impact of the above, then the whole can be argued that the effects of the loss / reduction in the cultivation of vegetation due to land clearing work is categorized as small and significant negative impact (K / - P). In addition to the rice fields, other productive land also affected includes mixed farms with cash crops such as bamboo, cashew, teak, rubber, sugarcane, cocoa, coconut, mango, banana estimated area of mixed farms, which are cut off approximately ± 33,15 ha are numerous in the surrounding area of Subang and Indramayu. In the area is covered also the loss of forest area consists of teak and acacia forests are also partly been cultivated by the people, with estimates for an area of 15.6 hectares of teak forest located at STA 91 +350 to 129 +600 as well as from STA 129 +600 to 177 +200; then to acacia area of 28.0 hectares located from the STA 239 +600 177 +200 sd. With the land clearing activities in the ROW, the impact of land clearing which will form the cutting garden / open border, this activity will remove or destroy the existing vegetation and long-term (permanent) medium-effects will modify the microclimate changes due to changes duration of irradiation. Cleaning and stripping the poor will also encourage the occurrence of landslides and a decrease in shallow ground water. Based on a review of the importance of impact of the loss of natural vegetation, it can be stated as follows: first in terms of the number of people affected by where the number of people affected is limited to the location of land clearing / site project, but because of the amount not large, then the effects are categorized less important. Second, the impact will spread around the areas around the project site where the area is fundamental to environmental changes, so that we can say the effects considered important. In terms of intensity and duration of the impact, the impact lasts for construction that is now clearing the land, then the effects can be categorized as not important. Then reviewed in terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. However, the effects it is not cumulative, so that can be categorized as not important. And the effects are generally reversible after the efforts of regular and appropriate by the Activity Manager, which can be categorized as not important. EIA V-30 By analyzing the impact of the above, then the whole can be argued that the effects of the loss / reduction of natural vegetation from land clearing work is categorized as a minor negative impact and insignificant (K /-TP). b. Disturbance of Fauna 1. Due to Ground Work When the ground work which includes preparation of the cleaning and stripping of land, excavation and stockpiling of using various mechanical equipment such as bulldozers, saws, dump trucks, rolling machinery (rollers), loaders and others. When the land clearing and land preparation is done on the basis of the project site, which is to cut brushwood used chain saw, while for cleaning roots and stumps are used excavators, where this activity will lead to increased noise contribution but its impact on the fauna is less important. Exfoliated soil layer as well as logging and land clearing will affect the loss of some plants that serve as habitat for some animals and groups of reptiles, aves and other insects. As a further result when variations of flora / fauna, vegetation lost, the next life will be disrupted due to plants that serve as nesting places as well as a place to get food for the types of certain birds will be lost, or the separation / fragmentation by the road that will cut habitat for wildlife. Judging from some important determinants of the first impact area in terms of distribution of the impact of the spread will impact the project site covers approximately the area where the area is fundamental to environmental changes, so that we can say the effects considered important. To two terms of intensity and duration of the impact during the current construction land clearing, then the effects can be categorized as not important. In terms of the number of environmental components affected by the impacts arising from these derivatives may cause some impact, other than that due to the encounter, too type-species of bird that is protected so that their impact can be considered important. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. By analyzing the impact of the above, then the whole can be argued that the effects of the loss / decrease in wildlife due to land clearing work is categorized as a minor EIA V-31 negative impact and insignificant (K /-TP). c. Impaired Water Biota 1. As a result of Basecamp Operation The disruption of water Biota relates to the potential impacts of Cikampek-Palimanan toll road development and the decline of the quality of surface water (rivers, lakes), which in turn affect the biota of water can occur from the operation of the base camp activities, including the location of residence of workers as well as the storage location and construction equipment maintenance and fuel. On the toll road project that is long enough to reach 116 km, would be transporting thousands of liters of fuel and other petroleum products during the occupation, which fuels such as oil and other fuel can contaminate surface water, especially in some locations, this road project adjacent with a river like the river Cimanuk, Ciherang, Cilamatan, Cipanas, Cipunegara and lakes. Domestic waste from the operation of the base camp and other toxic substances originating from oil spills or Olie heavy equipment operated for road construction as well from the storage liquid material / thinner and more are expected to affect the water quality of receiving water bodies subsequent impact on water biota. From the secondary data shows in Purwakarta regency of floating net fisheries, water rapids and public waters are also quite high, while the aquaculture sector (ponds and reservoirs) forms the mainstay of the bag! Cirebon regency. The analysis of aquatic biota (planton, benthos) shows that in some rivers such as river Cipunagara and Cimanuk still has a relatively high diversity index. Impairment / disturbance of this water biota, based on review of the impact (importance of impact), it can be stated as follows: 1. Judging from the number of people affected The number of affected people who are affected to a limited water biota disturbance which is around the project site, then the effects are not considered important. 2. Judging from the distribution of impact area Distribution widespread impact not only limited to the basecamp area receiving water bodies but also about the project, so that we can say the effects is not considered important. EIA V-32 3. In terms of intensity and duration of the impact The impact took place during the construction of base camp during an operation, then the effects can be categorized as not important. 4. In terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. 5. The effects are cumulative, so that can be considered important. 6. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. By analyzing the impact of the above, then the whole can be argued that the effects on surface water quality degradation due to operation of the base camp is categorized as a minor negative impact and insignificant (K /-TP). 2. Due to land work including land clearing As a result of land clearing in the project site for cutting shrubs used chain saw, for cleaning roots and stumps are used excavators and bulldozers. These activities result in the release of material from the clay soil, so that will carry over into the river and rainwater can cause surface water turbidity. At work the land use of heavy equipment such as excavators and bulldozers. These activities result in the release of material from the clay soil, so that will carry over into the river and rainwater can cause surface water turbidity. In addition to the work of excavation and stockpiling of soil can lead to embanked natural channels or time of the excavation / piling soil on the segment of highway alignment hilly / slope, are now expected to push the level of erosion or landslides more likely to subsequently have an impact on surface water bodies. As the impact derived from this activity will experience disruption of water biota. Based on a review of the importance of impact to disturbances and / or decrease in water biota, could be offered any of the following: 1. Judging from the number of people affected The number of people affected is limited to the location of the groundwork done and embankment excavation and land clearing around the project site, and to the location of surface water bodies around the location of the toll project activity, then the effects are not considered important 2. Judging from the distribution of impact area EIA V-33 Spread the impact will spread around the area of the site and is not confined to the area of the project site but also on the receiving water bodies around the project, so that we can say the effects considered important. 3. In terms of intensity and duration of the impact The impact took place during the current construction excavation and embankment work. Although this impact is temporary and will soon be fully recovered if the work is stopped, although the volume of work is quite large, but with the management of surface water then the effects can be categorized as not important. 4. In terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. 5. Impacts arising from these are not cumulative, so that can be categorized as not important. 6. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. By analyzing the impact of the above, then the whole can be argued that the effects on surface water quality degradation due to excavation and embankment work is categorized as a minor negative impact and insignificant (K /-TP). 5.2.3 Component Socio-Economic and Cultural Environment The construction of the highway construction will have an impact on the components of socio-economic and cultural environment that includes good livelihood of the population, regional economy, social culture, social unrest, public health, facilities, infrastructure and traffic conditions. This impact can be negative or positive. At this stage the activities that have an impact on the environment are the preparatory activities (including: the construction / operation of the base amp, mobilization of heavy equipment and manpower mobilization) and implementation activities (including: the procurement of materials, subgrade preparation, excavation and embankment, bridge work, work the road, pavement layers and drainage work / culverts). Significant impacts are predicted to arise hypothetical is as follows: EIA V-34 a. Increasing Employment Opportunities The number of workers it takes about approximately 150-250 people per alignment (depending on the amount of alignment and the alignment of as many as 6 units) consisting of various levels of skills such as technical personnel, supervision, service, field workers and so on, either imported from outside the area and of local power. Qualification and number of workers from each of the elements required in the physical implementation of toll road construction is estimated as follows: • Elements of the project / owner, consisting of experts and secondary energy, • Elements of supervisors, consisting of experts and secondary energy, • Elements implementers / contractors, consisting of experts and high power and rugged power Usually part of the executive power will stay at base camp or rent a home residents around the project site. When reviewed darts much labor can be absorbed very meaningful project for the local community especially when unemployment is still high in the study area. Magnitude of the impact of labor absorption is quite large. The nature of the impact can be categorized as an important positive (B / + P), with the following considerations: • the impact can be cumulative with the impact of other activities; • intensity of impact is high, in terms of broad distribution of impacts that may exceed the area of project site; • can contribute positively to the socio-economic components, such as revenue and business opportunities, as well as project a positive image. b. Increased Business Opportunities At this stage of construction required substantial material either for material such as category C minerals, rocks, gravel or other building materials such as cement, asphalt, iron, and others. Material needs are about 40% planned to come from this area also opened opportunities associated with trying to project activities, especially by employers of building materials and the like in the research area. The amount of impact these activities to try quite a big chance. Judging from the nature of the important positive impact can be categorized as (B / + P), with consideration include: • the impact can be cumulative with the impact of other activities; • intensity of impact is high, in terms of broad distribution of impacts that may exceed the area! project site; EIA V-35 • can contribute positively to the socio-economic components, such as revenue and business opportunities, as well as project a positive image. Business opportunities will also occur due to land transport activities and other materials. People who have the ability to carry out this work as a partner the project can exploit this business opportunity. c. The emergence of Social Jealousy This impact will arise if the labor recruitment activities do not consider the aspirations of local residents around the project site. Having different aspirations articulated, both by residents at the time of execution of social surveys, and when this socialization EIA study further reinforces this. Relatively large scale impact, considering not only the social jealousy will arise from job seekers resident in the Sub-district around the construction of toll roads, but from other regions. The nature of these impacts will also be considered an important negative (B /-P) with consideration include: • the number of people affected will be fewer than that will benefit directly from development activities Cikampek Palimanan Toll Road; • intensity of impact is high, in terms of broad distribution of impacts that may exceed the area of project site; • the impact of social jealousy if accumulates with community unrest has the potential to cause social conflict and disrupt social safety and security. d. Disruption of population accessibility This impact will arise primarily in the ordinary work of underpass / overpass where this toll road alignment plan will cut the public road a lot, necessitating underpass / overpass of 5 pieces. In addition, other activities that allegedly have an impact on this parameter is the work of Interchanges / Inter Change (1C). Interchanges to be constructed on existing Cikampek Palimanan toll road, 6 units namely: kalijati 1C, Subang 1C, Cikedung 1C, Kertajati 1C, Sumberjaya 1C, Palimanan1C. During this time many people use the existing road infrastructure for daily mobility activities primarily to transport agricultural products either by public vehicles, motorcycles, etc. EIA V-36 Magnitude of impact is probably quite small, considering that these activities be done in stages. In addition, with the construction of interchanges is expected to replace the road that had been used by the people and reduce the impact nature of potential impacts will also be quite negative and not significant (K /-TP) with consideration include: • the number of people affected will be fewer than that will benefit directly from Cikampek Palimanan Toll Road development activities; • intensity of impact is classified, in terms of the broad distribution of impacts occurring in the vicinity of the project site area; e. Traffic disruption As a result of mobilization of heavy equipment and transporting materials Material transportation activities, materials and project equipment will increase the density / volume of traffic on segments of road that passed and can cause disruption to smooth traffic. During the period of construction equipment will be mobilized heavy equipment for earthwork activities (such as: bulldozers, excavators, dump trucks, motor graders, rollers (tandem rollers), vibro roller, a water tank) and concrete pavement on the job (such as: cranes, truck trailers, concrete dump trucks, concrete mixer trucks, concrete finisher). During the development process Cikampek-Palimanan toll road, impact on traffic flow in the joints of the existing road as a whole is not too large, because the new road construction site will be outside the area's largest existing roads .- The effect will occur in the junction area new roads and national roads, especially during the interchange construction, bridge (overpass) and underpass as shown on the map above determination of the toll road route. Besides, the access road to the project site which is usually around the start point and end point location of the project, and at intersections with local roads, farm roads, the road route plantation and mining companies. Disturbance occurs by the number of vehicles that operate in and out of the project site through this access road. EIA V-37 Based on estimates that have been made, and with a capacity of vehicles (as required) to soil 5 m3/truck and stone and asphalt pecan 8 tons / truck, vehicles need to transport minerals and soil deposits as well as road and bridge construction materials is estimated to be as presented in Table V.11. Construction work for the segment Cikampek - Palimanan planned for 30 months. The traffic volume in the joints of the haul road is a material will increase with the existence of material transport vehicle traffic. For the joints of Primary arterial road traffic volume increase was not significant, but for segments of roads regency and village road traffic volume increased significantly from 50% to 100% of the volume of vehicles passing by. It was very influential on the level of service on the road regency and village roads. The impact of traffic disruption caused great assessed. The following considerations described as a basis for determining the impact of interest rate: • The number of people affected includes residents along the highway or residents outside the study area, whose land traversed material transport vehicle. • The total area of distribution of the impact spread to the outside of the study area along the highway and other roads outside the study area through which material transport vehicle. • The impact is going to happen take place during the transport activity and accumulation of material with high intensity in the presence of vehicles passing by ± 24 carrier per day. • Components of the affected environment are a means of further impact on roads and other components. • The nature of cumulative impacts • The impact that happened to turn around Based on the above description, the impact of increased traffic density due to mobilization of materials, including important negative effects (B / - P). Except for the addition of the volume of traffic mentioned above, other effects of material transportation activities is resulting in accelerated damage to public roads in its path, lower the ambient air quality in the dry season, increasing the number of traffic accidents and congestion. EIA V-38 Table V.11 No Estimated Additional Volume of Vehicle Trip Type of Activities Soil Work Excavation Embankment Road Exvacation ROW work ROW preparation Class A Aggregate Base Asphalt Pavement work Bituminous prime coat Bituminous tack coat Asphalt treated base course 10 cm Asphalt concrete binder course 6 cm Asphalt concrete surface course 5 cm Concrete Construction Pre-press Steeling 1 2 3 4 5 Unite Volume Trip Vehicle/day M3 M3 M3 3,5 Juta 7,0 Juta 2,5 Juta 700.000 1.400.000 500.000 233 467 167 M2 M3 3,4 Juta 1.1 Juta 137.500 46 It It ton ton ton 4,0 Juta 2,4 Juta 0,35 Juta 0,2 Juta 0,2 Juta 500.000 300.000 43.750 25.000 25.000 167 100 15 8 8 M3 Kg 20.000 5.000 2.500 626 82 Total 1221 Source: Engineering Estimation, September, 2007 Due to Bridge Development, Overpass, Underpass and Interchanges Development activities of bridge, overpass, underpass and interchanges is expected to have an impact on traffic disruption, especially on existing roads (road regency / village / neighborhood) that intersect and overlap. Traffic disruption will occur at the commencement of construction works and the place where the work is carried out. The concentration of this traffic will cause queuing and traffic disruption, especially if the implementation of the work done at rush hour. The impact that occurred was assessed. The following considerations described as a basis for determining the impact of interest rate: • The number of people affected includes the existing road users. • The total area of distribution of localized impacts in the vicinity of the location. • The impact that will occur during the implementation of work with low intensity • Component of the affected environment is the infrastructure of existing roads and will impact further on other road users' comfort disorder. • EIA Nature of impact is not cumulative and can be turned around. V-39 Based on the description above, the impact of this work to disruption of traffic including important negative effects (S / - P). f. Damage to Public Roads Mobilization and demobilization of heavy equipment and general road infrastructure construction materials are mainly from mineral mining area category C to the location of the project site. Material transportation activities will be to destroy the existing road infrastructure; particularly on village streets that have a carrying capacity of the road capacity is smaller than a passing truck tonnage. Given that the condition of roads in the study area, especially through which the transport of construction materials in general in a stable condition, the damage to road infrastructure caused predicted> 10% of the entire infrastructure of the existing road, so the impact can be categorized as moderate. The following considerations described as the basis for determining the impact of interest rate: • The number of people affected includes residents along the highway or residents outside the study area, whose land traversed material transport vehicle. • The total area of distribution of the impact spread to the outside of the study area along the highway and other roads outside the study area through which material transport vehicle. The impact is going to happen take place during the transport activity and accumulation of material with high intensity in the presence of passing vehicles per day. • A component of the affected environment is a means of further impact on roads and other components. • The nature of cumulative impacts • The impact that happened to turn around Based on the above description, the impact of road infrastructure due to mobilization of materials, considered as important negative impacts (S /-P). g. Damage to Public Utilities (Water Pipe, Gas Pipe) Result of Basic Soil Preparation and Land Clearing EIA V-40 Public utility disruption will occur due to land clearing activities. Types of public utility projects that can be affected include electricity, telephone, and particularly water and gas networks. Locations of clean water pipe or gas can be found a lot in Cirebon regency. Judging from the number and type of public utilities that will be affected by the project, the scale effects were moderate. The following considerations described as the basis for determining the impact of interest rate: • The number of people affected includes residents about the toll road or residents outside the study area are the area through water pipes. • The total area of distribution of the impact spread to the outside of the study area along the highway and other roads outside the study area through which the water pipe. • The impact is going to happen take place during the preparation of the subgrade. • Components of the affected environment are public facilities and continued impact on other components. • The nature of cumulative impacts • The impact that can be reversed Based on the above description, the impact of clean water facilities damaged due to subgrade preparation activities are considered as significant negative impacts (S / P). h. The destruction of social and public facilities Due to Soil Preparation and Cleaning of Land Activities excavation to subgrade preparation will be done along the 116.4 km with an average width of 60 m. for the preparation of the subgrade excavation depth normal average 60-100 cm to remove the layer of humus / top soil and building on it. In some places, this condition will result in the dismantling of some social facilities / fasum who skipped the highway alignment, especially in dense residential areas. Similarly, in the area plan Palimanan 1C (a place of worship). Judging from the number of public facilities / social facilities such as places of worship large enough, it EIA V-41 can be said to have a medium impact magnitude. The following considerations described as the basis for determining the impact of interest rate: • The number of people affected includes residents about the toll road or residents outside the study area are the area through water pipes. • The total area of distribution of the impact spread to the outside of the study area along the highway and other roads outside the study area through which the water pipe. • The impact is going to happen take place during the preparation of the subgrade. • Components of the affected environment are public facilities and continued impact on other components. • The nature of cumulative impacts • The impact that can be reversed Based on the above description, the impact of social facilities damaged due to soil preparation activities including significant negative impact (S /-P). 5.2.3 Components of Public Health a. Increased Patient ARI An increasing number of disease events is derived from the decrease in the impact of environmental cleanliness, the pool of water due to constraints on river flow and increased levels of dust due to construction of Cikampek- Palimanan toll road along the road, especially near or through residential areas. As a result of these effects can cause variations in disease, hygiene and the presence overflow water decreased due to obstacles can cause diarrhea or gastroenteritis, the emergence of mosquito breeding places, especially through residential areas. This may facilitate the occurrence of disease caused by mosquito bites, especially accompanied by extreme climate change. While increased levels of dust particles can cause irritation of the respiratory tract and eventually causing respiratory tract infections. If seen from the number of people who will be affected which reached 500 families (<10% of the population along the highway corridor), then much of an impact can be categorized as small. EIA V-42 The following considerations described as the basis for determining the impact of interest rate: • The number of people affected includes residents about the toll road or residents outside the study area are the area through water pipes. • The total area of distribution of the impact spread to the outside of the study area along the highway and other roads outside the study area through which the water pipe. • The impact is going to happen take place during the preparation of the subgrade. • Components of the affected environment are public facilities and continued impact on other components. • The nature of cumulative impacts • The impact that can be reversed Based on the above description, the impact of ARI patients due to subgrade preparation activities including the negative impact was not significant (K / - TP). 5.2.4 Post-Construction Stage 5.2.4.1 Components of Physical-Chemical Environment a. Reduced Air Quality Forecast of environmental impact that will happen is the air quality pollution that originates from the toll road operations and maintenance of Cikampek-Palimanan Toll road. From the results of measurements of air quality in residential locations around the project site be seen that the tone early for all parameters at 10 sampling locations are still below the quality standard. With the operation of Cikampek-Palimanan toll roads, then ambient air will decline due to exhaust emissions from motor vehicles. Types of vehicles that would use these roads is to start from class I to V. Transport vehicles that use fuel will cause air pollution from exhaust emissions from burning fuel. Exhaust gas released from the burning of them, CO, SO2, NOx, HC and particulate matter (PM). These gases will EIA V-43 be dispersed to the atmosphere and spread according to wind speed and direction. So the environment or ambient air quality will change. Impact of information is the disruption of public health and comfort of the surrounding environment. Forecast gas emissions will happen comes from vehicles using CikampekPalimanan, and has conducted air quality prediction in 2015 in each of the toll roads as shown in Figure 5.7 to Figure 5.12. From the picture was concluded that air quality concentration is very high when close to its source. The farther from the emission source then the lower concentration. Figure V.1 EIA Estimated Air Qualities in Sadang-Kalijati Section 2015 V-44 Figure V.2 Figure V.3 EIA Estimated Air Qualities in Kalijati-Subang Section 2015 Estimated Air Qualities in Subang-Cikedung Section 2015 V-45 Figure V.4 Figure V.5 EIA Estimated Air Qualities in Cikedung-Kertajati 2015 Estimated Air Qualities in Kertajati-Sumberjaya 2015 V-46 Figure V.6 Estimated Air Qualities in Sumberjaya-Palimanan 2015 The impact of air pollution is mainly caused because the increased content of dust particles and will affect the health of residents living near Cikampek-Palimanan toll road, including skin irritation, eye irritation, disturbance of the respiratory tract. Another component that will be affected due to declining air quality is polluted by emissions from vehicles using the toll road is the vegetation that grows in the surrounding plants. Response of plants to the polluted air is different among them: 1. Impact of O3 - Pale surface of the upper and lower leaves and patches of necrosis - The occurrence chlorosis leaf so the color turns yellow - Creation of spots or patches of leaves until the leaves are purple, dark brown or red. This leaf damage occurs in young leaves and old leaves of plants / plant that is sensitive to O3 among vegetable crops (tomato, spinach, peanut, onion), crops (corn) and ornamentals (chrisantenum, petunias, pine). 2. Impact of SO2 EIA V-47 Impact of SO2 on plants / plant can cause acute damage to the vegetation in the form of necrosis and drying of leaf tissue. After a time will cause death of leaf types of plants / plant that is sensitive to SO2 in the air are ornamental plants (cosmos / cottonwoods, daisies, violets, flowers butterflies), plants fruit / vegetables, food crops (sweet potatoes, spinach, squash, peppers, carrots and bean salad). 3. Impacts of NO2 The effects of NO2 in the air to plants / plant is going to happen when a high content of NO2. Impact includes leaf blister and necrosis and leaf fall. On the content of NO22 ppm with a time ekpose 2 hours can cause damage to tomato leaves, beans and cucumbers. The types of plants that are categorized as sensitive to NO2 include vegetable crops (lettuce, red beans and cabbage), ornamental plants (Hibiskus, Azalea, sunflower and Malaleuca), fruitcrops (citrus). Source: Effect of Pullution on plants, Jhon Naeeke 1993. 4. Impact of Flour (not from vehicle exhaust emissions) Impact of fluorine, hydrogen-Flouride and can accelerate the corrosion process. In plants causes the collapse of sponge cells, followed by the lower surface stomata associated with the epidermis, followed by chloroplast damage and palisade tissue damage and damaged vascular tissues. Percentage increase in air quality was measured at each section along the Cikampek-Palimanan Toll Road Plan obtained by comparing data from the Environment Rona with data from the forecast are as follows: Table V.12 Air Quality Improvement in Cikampek-Kalijati Section % Improvement Distance 100 200 300 400 500 600 700 800 900 EIA HC CO N02 1110.54 1158.12 421.46 636.12 665.05 217.10 385.98 405.08 109.35 263.24 277.52 56.47 190.13 201.54 24.98 152.12 162.03 8.60 131.87 140.98 -0.12 106.95 115.09 -10.85 93.12 100.71 -16.81 SO2 -72.54 -83.30 -88.98 -91.76 -93.42 -94.28 -94.74 -95.31 -95.62 Dust 3607.28 2154.38 1388.31 1012.43 788.53 672.11 610.11 533.79 491.43 V-48 1000 1500 2000 81.02 44.76 15.78 88.14 -22.02 50.45 -37.64 20.33 -50.13 -95.89 -96.72 -97.37 454.38 343.33 254.57 Table V.13 Air Quality Improvement in Kalijati-Subang Section % improvement Distance 100 200 300 400 500 600 700 800 900 1000 1500 2000 HC CO N02 1181.57 1155.82 853.05 679.31 663.66 479.55 414.49 404.16 282.61 284.55 276.83 185.98 207.16 200.99 128.42 166.91 161.55 98.49 145.48 140.55 82.55 119.10 114.69 62.93 104.45 100.34 52.04 91.64 87.79 42.52 53.25 50.18 13.97 22.57 20.11 -8.85 SO2 -72.59 -83.34 -89.00 -91.78 -93.43 -94.29 -94.75 -95.31 -95.63 -95.90 -96.72 -97.38 Dust 7140.16 4302.70 2806.61 2072.52 1635.27 1407.89 1286.81 1137.77 1055.04 982.69 765.81 592.47 Table V.14 Air Quality Improvement in Subang-Cikedung Section % improvement Distance HC CO N02 100 2758.54 1113.36 1365.92 200 1638.26 637.84 791.42 300 1047.58 387.11 488.50 400 757.75 264.09 339.87 500 585.11 190.81 251.34 600 495.34 152.70 205.30 700 447.54 132.41 180.79 800 388.69 107.44 150.61 900 356.03 93.57 133.86 1000 327.46 81.44 119.21 1500 241.83 45.10 75.30 2000 173.40 16.05 40.20 EIA SO2 -53.69 -71.84 -81.41 -86.10 -88.90 -90.36 -91.13 -92.08 -92.61 -93.08 -94.46 -95.57 Dust 12406.1 7504.89 4920.65 3652.64 2897.37 2504.62 2295.47 2038.03 1895.13 1770.15 1395.53 1096.12 V-49 Table V.15 Air Quality Improvement in Cikedung-Kertajati Section % improvement Distance 100 200 300 400 500 600 700 800 900 1000 1500 2000 HC CO 782.44 1264.56 436.61 729.78 254.26 447.81 164.79 309.46 111.50 227.05 83.78 184.20 69.03 161.37 50.86 133.28 40.78 117.69 31.96 104.06 5.53 63.18 -15.60 30.51 N02 492.09 260.05 137.70 77.66 41.91 23.31 -13.41 1.22 -5.54 -11.46 -29.20 -43.37 SO2 -77.70 -86.44 -91.05 -93.31 -94.66 -95.36 -95.73 -96.19 -96.44 -96.67 -97.33 -97.87 Dust 9579.25 5785.90 3785.80 2804.40 2219.85 1915.88 1754.00 1554.76 1444.15 1347.42 1057.48 825.75 Table V.16 Air Quality Improvement in Kertajati-Sumberjaya Section % improvement Distance 100 200 300 400 500 600 700 800 900 1000 1500 2000 EIA HC 7277.14 4386.00 2861.60 2113.62 1668.10 1436.42 1313.05 1161.19 1076.89 1003.17 782.19 605.57 CO N02 978.10 1506.58 555.58 876.95 332.81 544.97 223.50 382.08 158.39 285.05 124.53 234.60 106.50 207.73 84.31 174.66 71.99 156.30 61.22 140.25 28.92 92.12 3.11 53.66 SO2 -76.58 -85.76 -90.60 -92.97 -94.39 -95.12 -95.51 -96.00 -96.26 -96.50 -97.20 -97.76 Dust 5481.67 3294.18 2140.80 1574.86 1237.77 1062.48 969.14 854.24 790.46 734.68 567.48 433.85 V-50 Table V.17 Air Quality Improvement in Sumberjaya-Palimanan Section % improvement Distance 100 200 300 400 500 600 700 800 900 1000 1500 2000 HC 555.04 298.33 162.97 96.55 57.00 36.42 25.47 11.99 4.50 -2.05 -21.67 -37.35 CO 393.00 199.79 97.92 47.93 18.16 2.68 -5.57 -15.72 -21.35 -26.28 -41.05 -52.85 N02 542.36 290.62 157.88 92.75 53.96 33.78 23.04 9.82 2.48 -3.94 -23.18 -38.56 SO2 Dust -75.81 1809.29 -85.29 1061.03 -90.29 666.50 -92.74 472.91 -94.20 357.61 -94.96 297.64 -95.37 265.71 -95.86 226.41 -96.14 204.59 -96.38 185.51 -97.11 128.32 -97.69 82.61 From the table above can be explained that the air quality parameters that need to be managed is the HC, CO, NO2 and Dust this is due to still see an improvement with an average of over 30% of the hue data measured at distance 2000 m. From the description on the effects of several air pollutants to vegetation parameters are explained also that a long exposure at low concentrations can cause damage to the productivity of vegetation is through flowers, fruit and leaves. The impact of the toll road operations in the form of air pollution and incidence of vehicle exhaust gas emission is relatively long or age appropriate PalimananCikampek toll road activities that is over 20 years. With the Cikampek-Palimanan toll road operations, then the potential to reduce air quality and potentially exceeds the standard. If the initial hue such conditions coupled with the activities and operation of toll roads and will be exposed to every day (24 hours) into the general environment of residential areas, commerce, shops, and industrial and public facilities and vegetation as well as mixed farms, then this condition will affect negative form of disturbance of public health. In addition to affecting public health pollution air quality due to exhaust emissions EIA V-51 from motor vehicles and highways will also be affected by the impact on vegetation around the Cikampek-Palimanan. Vegetation that will be affected by air pollution was mainly affected areas roadside vehicle exhaust emissions by vegetation type lading, gardens and yards that have a socio-economic value, aesthetic and ecological. Thus the effect of the reduced air quality due to activities and operation of CikampekPalimanan toll roads is classified as large and negative impact important (B /-P) with consideration include: 1. Reviewed from the number of people affected The number of people affected quite a lot of other people around the highway, then the effects considered important. 2. Judging from the distribution of impact area According to the wide spread of the impact of the project site along the 116.4 km with ROW width of 60 m, the dispersion effects can be categorized as particularly important for the dust can even reach the area of the nearest residential or other activities, so that the area is fundamental to environmental changes, the impact categorized arising important. 3. In terms of intensity and duration of the impact The impact will last for toll road operations, is permanent, then the effects can be categorized as critical. But in terms of intensity of impact will decline in air quality (lead, hydrocarbons, gas, SO2, CO, NO2), although very small. To dust and Carbon Oxide (CO) will increase to greater and contributes to air quality, and impacts that will occur is predicted quite important. 4. In terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. 5. The effects are cumulative, so that can be considered important. 6. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. b. Increased Noise The increased noise in the environment is expected to occur because the sound engine of the vehicle when the Cikampek-Palimanan toll road operations. Noise will be felt by residents who live or move around it with a distance of less than 25 m (population at risk), the emergence of the noise comes from the engines of vehicles EIA V-52 of Class I to V are passing on the Cikampek-Palimanan for 24 hours. Forecast noise levels while at the operational as shown in the figure below shows that the noise level at distance 5 m high that is equal to 94 dB (A), but the noise level will decrease when away from noise sources. Figure V.7 Estimated Noise During Operational Stage Percentage improvement of noise measured at each section along the CikampekPalimanan Toll Road Plan obtained by comparing data from the Environment Rona with data from the forecast are as follows: Table V.18 Improvement of Noise Cikampek-Kalijati Section Distance 5 25 50 75 100 150 200 300 400 500 EIA % improvement 68.21 43.20 32.43 26.13 21.66 15.36 10.89 4.59 0.12 -3.34 V-53 Table V.19 Improvement of Noise Kalijati-Subang Section Distance 5 25 50 75 100 150 200 300 400 500 Table V.20 Improvement of Noise Subang-Cikedung Section Distance 5 25 50 75 100 150 200 300 400 500 Table V.21 % improvement 72.22 46.61 35.59 29.14 24.56 18.11 13.53 7.08 2.51 -1.04 Improvement of Noise Kertajati-Sumberjaya Section Distance 5 25 50 75 100 150 200 EIA % improvement 75.43 49.35 38.12 31.55 26.88 20.31 15.65 9.08 4.42 0.80 . Improvement of Noise Cikedung-Kertajati Section Distance 5 25 50 75 100 150 200 300 400 500 Table V.22 % improvement 23.24 4.92 -2.97 -7.59 -10.86 -15.48 -18.76 -23.37 -26.65 -29.19 % improvement 73.17 47.42 36.34 29.85 25.25 18.76 14.16 V-54 300 400 500 Table V.23 7.68 3.07 -0.50 Improvement of Noise Sumberjaya-Palimanan Section Distance 5 25 50 75 100 150 200 300 400 500 % improvement 87.31254954 59.46513901 47.47191209 40.45632408 35.47868517 28.46309716 23.48545825 16.46987024 11.49223133 7.631274641 The increased noise in the environment due to the Toll road operations CikampekPalimanan, will be exposed to the environment every day which is a residential area, trade, shops and industrial and public facilities. Further impact of continuous noise would result in disruption of public health. The impact is felt over a relatively long road operation or more than 20 years. Forecast the environmental impacts of increased noise impact is classified as a large and significant negative (BA-P), with consideration: 1. Judging from the number of people affected by the number of people affected quite a lot of other people around the highway, then the effects considered important. 2. Judging from the distribution of impact area 1. According to the wide spread of the impact of the project site along the 116.4 km with ROW width of 60 m can be considered important even to reach the area nearest residential or other activities, so that in the area! The fundamental environmental changes can occur, then the effects considered important. 2. In terms of intensity and duration of the impact 3. The impact will last for toll road operations, is permanent, then the effects can be categorized as critical, Noise will increase to even greater and the impacts that will occur is predicted quite important. EIA V-55 4. In terms of the number of environmental components affected by the impacts arising from these may cause some impact of derivatives, so that can be considered important. 5. The effects are cumulative, so that can be considered important. 6. The effects are, in general, can be turned around after the efforts of regular and appropriate by the Management Activity, which can be categorized as not important. b. Changing of Land Use Cikampek- Palimanan toll road operations will have an impact on the improvement of service quality directly and arterial roads into the joints of other primary local collector roads in the regency of Purwakarta, Subang, Indramayu, Majalengka and Cirebon. In addition, this road will improve accessibility by transport from Sumatra to Java via the motorway and vice versa. This will encourage land use changes resulting from easy access. The impact will occur in locations that are still empty area or garden area, so the impact of small scale. Thus the impact of changes in land use improvement due to the operation of toll roads are categorized as small impact. The following considerations described as the basis for determining the impact of interest rate: • The number of people affected includes residents about the toll road as well as outside it. • The total area of distribution of impacts across the region through which the toll road regency. • The impact is going to happen take place during the operation of toll roads. • Components of the affected environment are the space of land and soil and continued impact on other components. • The nature of cumulative impacts • The impact that happened to turn around Based on the above description, the impact of changes in land use due to activities and operation of toll roads include as the negative impact and not significant (K /-TP). EIA V-56 5.2.4.2 Component of Social Environment, Economy and Culture a. Increased employment opportunities Toll road operations will require new workers as both administrative and operational personnel in the field. The diversity of labor needed depends on a variety of qualifications, expertise / skills. It is necessary for improvement of training for workers. In addition, the main priority of employment opportunities will be given to prospective employees who are in the area around the toll road operations. Taking into account the energy absorption and the number of job seekers (including unemployment) in the Sub-district around the study area, it can be concluded that the scale effects are classified employment categories. Meanwhile, the important positive impact can be categorized as (B / + P), with consideration include: • the impact can be cumulative with the impact of other activities; • intensity of impact is high, in terms of broad distribution of impacts that may exceed the area) project site; • can contribute positively to the socio-economic components, such as revenue and business opportunities, as well as the existence of a positive image of toll roads. In addition, the existence of employment opportunities and business opportunity is estimated to increase economic activities in the region. It can also cause secondary effects such as improvement incomes. Amid the current economic difficulties and the need for job opportunities, the estimated number of workers absorbed in this activity pertained to the nature of the impact of broad categories can be considered an important positive (B / + P), with consideration include: • the impact can be cumulative with the impact of other activities; • intensity of impact is high, in terms of broad distribution of impacts that may exceed the area! project site; • can contribute positively to the socio-economic components, such as revenue and business opportunities, as well as the existence of a positive image of the highway. b. Disruption of kinship in the neighborhood Communities around the project has a very strong kinship ties internally and externally, especially social relationships among residents. The existence of the toll EIA V-57 road, which divides the territory that had been, fused inter-village, village thought to have an impact on the disruption of kinship ties. This impact will arise primarily in the operation of toll roads where accessibility is higher and mobility between villages / village across the street to be disturbed. The magnitude of impact is relatively large, given the amount of dependence of population to access the old road. The nature of the impact of negative impacts will be quite important (B /-P). c. Changes in Public Perception The availability of the toll road is expected to increase the accessibility community and enhance the region's economy. In addition, the existence of employment opportunities and business opportunity is estimated to increase economic activities in the region. It can also cause secondary effects such as improvement incomes. It is estimated that the number of workers absorbed in this activity pertained to the nature of the impact of broad categories can be categorized as an important positive (+ P), with consideration include: • the impact can be cumulative with the impact of other activities; • intensity of impact is high, in terms of broad distribution of impacts that may exceed the area of project site; • can contribute positively to the socio-economic components, such as revenue and business opportunities, as well as the existence of a positive image of the highway. d. Occurrence of Traffic Accidents At the beginning of the operation of Cikampek-Palimanan toll roads, encouraging consumers to use these roads with maximum speed (100 km / h). Condition of road surface made of layers of concrete will increase the friction factor with a car wheel, so on the condition that non-standard tires will result in an accident (broken tire). Similarly, in the integration with arterial roads (road intersection) is usually not sufficient with signs, so that at the beginning, the operation might easily lead to accidents because the vehicle left the freeway bypassed arteries. Considered of density improvement and service level of traffic generated from the toll road operations, the changes to traffic conditions will have a small scale, so that the EIA V-58 impact is a small negative impact. e. Traffic disruption As a result of the operation of toll roads Activities and operation of toll roads is expected to affect the activities of vehicle traffic on access roads around the entrance and the exit of the emergence of highway traffic congestion. Traffic disruption will occur during the operation of toll roads. Traffic congestion this will cause the queue and interrupt the smooth traffic on access roads around the toll booth and will last as long as there is no management efforts to resolve the issue. The impact that occurred was assessed. The following considerations described as a basis for determining the impact of interest rate: • The number of people affected include the user's access roads and highways • The total area of distribution of localized impacts in the vicinity of the location. The impact is going to happen take place safely with low intensity. • Components of the affected environment are the infrastructure stage operas! and will impact further on the problems of access and convenience of road users of the highway. • Nature of impact is not cumulative and can be turned Based on the above description, the impact of road maintenance work on traffic problems including the negative impact was not significant (S /-TP). Along with the development of the area around the highway, either linked directly or indirectly by the existence of the highway, then the frequency / volume of traffic on the highway will also experience improvement. Improvement of traffic volume was also at one time can reduce the level of highway service, at least at the level of C so it does not meet highway standards. In a relatively short time (± 5 years), improvement of traffic volume on the toll road is estimated to have fairly rapidly. The estimate in based on analog! with the improvement in traffic volume highways such as Padalarang - Cileunyi toll roads in West Java, where the improvement averaged 28.5% per year. The volume of daily traffic using the road toll, based on traffic loading models using the help of software EIA V-59 (software) computer Transportation Planning (TRANPLAN), for each projection year, presented in the table below. Table V.24 Traffic Volume Projection Interchange Section: Cikampek-Kalijati Year Type I (vehicle) 2008 2010 2015 2025 2035 4,087 4,905 6,631 13,264 21,776 951 3,908 1,141 4,690 1.543 6,340 3,087 12,683 5,067 20,823 INTERCHANGE Kalijati-Subang 8.996 9.926 14.514 29.034 47.666 2008 2010 2015 2025 2035 5613 1306 5368 7295 1698 6976 9852 2292 9420 17924 4171 17139 24732 5755 23649 INTERCHANGE Subang-Haur Selatan 2074 483 1983 2881 670 2755 4376 1018 4185 10195 2372 9749 17783 4138 17004 12.287 15.969 21.564 39.234 54.136 2008 2010 2015 2025 2035 Type II-A (vehicle) Gol M-B (vehicle) Total (Vehicle) 12.287 15.969 21.564 39.234 54.136 INTERCHANGE Haur Selatan-Palimanan 2008 2010 2015 2025 2035 2699 2881 3855 6994 12259 628 670 897 1628 2853 2581 2755 3686 6688 11722 5.908 6.306 15.310 15.310 26.834 Source : SID Cikampek – Palimanan section 116 Km, year 2007. In relation to the improvement of traffic volume as described above, whenever the driver's behavior is no concern for driving on the highway, the congestion and potential accident even occurred. The analysis above shows that the size and weight of the impact is quite significant, impact can take place continuously during the operation of toll roads. As a result of Toll Road Maintenance Highway maintenance activities are expected to have an impact on aspects of facilities and infrastructure in the form of traffic disruption, especially on the road repaired. Traffic disruption will occur at the time of execution of road maintenance work and the place where the work is carried out. The concentration of this traffic will cause queuing and traffic disruption, especially if the implementation of the work EIA V-60 done at rush hour. Assessed impacts occurring large. • The following considerations described as a basis for determining the impact of interest rate: • The number of people affected includes the toll road user because the highway is the freeway proper, where travel by road should not be any interference. • The total area of distribution of localized impacts in the vicinity of the location. • The impact that will occur during the implementation of work with low intensity. • Components of the affected environment are the highway infrastructure and will impact further on comfort disturbances highway other users. • Nature of impact is not cumulative and can be turned Based on the above description, the impact of road maintenance work on traffic problems including the negative impact was not significant (B /-TP). 5.3 SUMMARY Cikampek - Palimanan Toll Road Development Plan along ± 116.4 km consists of 6 sections, starting from the Village Cikopo (Tol Jakarta-Cikampek 91 +350) to Purwakarta Regency Village Pegagan (Toll-Cirebon Palimanan Sta 207 +350) in Palimanan Regency Cirebon. The length of each section-5 respectively as follows: • Section I Cikampek - kalijati (27.05 km) Early projects (STA 91 +350) in the Village Sub-district Cikopo Bungursari Purwakarta Regency (Cikampek Junction) on the Jakarta-Cikampek toll road and ends at STA. 118 +400 at Village Sub-district Kaliangsana kalijati Subang Regency. • Section II kalijati - Subang (+ 11.2 km) Starting from the STA 118 +400 in the Village Kaliangsana Sub-district of Subang Regency kalijati until at Village STA 129 +600 Cisaga Sub-district of Subang Regency Subang. • Section III Subang - Cikedung (+ 28.7 km) Starting from the STA 129 +600 in the Village Sub-district Cisaga Subang Subang regency until STA 158 +300 in the Village Sub-district Cikawung Trisi Indramayu regency. EIA V-61 • Section IV Cikedung - Kertajati (+ 18.9 km) Starting from the STA 158 +300 in the Village Sub-district Cikawung Trisi Regency Indramayu to STA 177 +200 in the Village Sub-district Kertawinangun Kertajati Majalengka Regency. • Section V Kertajati - Sumberjaya (± 16.1 km) Starting from the STA 177 +200 in the Village Sub-district Kertawinangun Kertajati Majalengka Regency until STA193 +300 at, Village Sub-district Sumberjaya Sumberjaya Majalengka Regency. • Section VI Sumberjaya - Palimanan (+ 14.45 km) Starting from the STA 193 +300 in the Village Sub-district Sumberjaya Sumberjaya Majalengka Regency until STA 207 +750 in the Village Sub-district Pegagan Palimanan Cirebon Regency. Forecast of the impact that will arise and location of occurrence for each toll road section can be seen in Table V.25 until 5:.7 the following. EIA V-62 EIA V-63 Table V.25 Summary of Impact Occurred During Pre-Construction Stage For Each Section Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Community Unrest Only landowners who obtain compensation, tenant farmers will not get compensation. Only landowners who obtain compensation, tenant farmers will not get compensation. Social Conflict People are generally agree to the development plan, no potential of social conflict. Reduced Income Land acquisition will reduce source of income for some residents who work on the paddy field. Type of Impact EIA Section III STA 129+750 s/d STA 158+450 Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 Only landowners who No Community Unrest obtain compensation, tenant farmers will not get compensation. Only landowners who obtain compensation, tenant farmers will not get compensation. Toll road will cut the islamic boarding house, and some residents do not agree with land acquisiton. Only landowners who obtain compensation, tenant farmers will not get compensation. People are generally agree to the development plan, no potential of social conflict. People are generally agree to the development plan, no potential of social conflict. People are generally agree to the development plan, no potential of social conflict. People are generally agree to the development plan, no potential of social conflict. Potential of social conflict due to some residents do not agree on land acquisition on Islamic boarding house in Ciwaringin Land acquisition will reduce source of income for some residents who work on the paddy field. Land acquisition will reduce source of income for some residents who work on the plantation. Land acquisition will reduce source of income for some residents who work on the plantation. Land acquisition will reduce source of income for some residents who work on the plantation. Land acquisition will reduce source of income for some residents who work on the plantation. V-64 Table V.26 Summary of Impact Occurred During Construction Stage For Each Section Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Reduced Air Quality Impact caused by Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works (Sta. 92+600-92+850, Sta 98+700-98+800, Sta 1 04+550-1 04+900, Sta 11 3+700-1 13+800, Sta 11 6+800-1 16+900) Impact caused by Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works Sta 122+450-122+600 Sta 123+550-1 23+700 Sta 126+300-126+650 Impact caused by No settlements in Sta Mobilization heavy 158+450-1 77+350 equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works Sta 129+950-1 30+000 Sta 131 +400-1 31 +500 Sta 132+050-132+150 Sta 132+300-1 32+450 Sta 132+600-1 32+700 Sta 136+700-136+900 Sta 149+800-149+950 Increased Noise Impact caused by Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works, road works, and pavement work (Sta. 92+600-92+850, Sta 98+700-98+800. Sta 104+550-1 04+900, Sta 11 3+700-1 13+800, Sta 11 6+800-1 16+900) Impact caused by Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works, road works, and pavement work Sta 122+450-1 22+600 Sta 123+550-1 23+700 Sta 126+300-126+650 No settlements in Sta D Impact caused by 158+450-1 77+350 Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works, road works, and pavement work Sta 129+950-130+000 Sta 131 +400-1 31 +500 Sta 132+050-132+150 Sta 132+300-1 32+450 Sta 132+600-132+700 Type of Impact EIA Section III STA 129+750 s/d STA 158+450 Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 Impact caused by Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works Sta 180+300-180+600 Sta 187+000-187+400 Sta 188+200-188+550 Sta 188+700-1 89+000 189+800-190+200 Impact caused by Mobilization heavy equipment and materials, Operation of the base camp, ground preparation work, foundation, excavation and embankment work, and Bridge Works Sta 194+700-1 94+800 Sta 198+000-1 98+050 Sta 199+000-1 99+250 Sta 199+900-200+000 Sta 200+200-200+400 Sta 200+600-201 +200 Sta 201 +400-201 +500 Sta 202+400-202+550 Sta 205+800-205+850 Sta 206+850-207+000 Impact caused by Impact caused by Mobilization heavy Mobilization heavy equipment and materials, equipment and materials, Operation of the base Operation of the base camp, ground preparation camp, ground preparation work, foundation, work, foundation, excavation and excavation and embankment work, and embankment work, and Bridge Works, road works, Bridge Works, road works, and pavement work and pavement work .Sta 180+300-1 80+600 Sta 194+700-194+800 Sta 187+000-187+400 Sta 198+000-198+050 Sta 188+200-1 88+550 Sta 199+000-199+250 Sta 188+700-1 89+000 Sta 199+900-200+000 189+800-190+200 Sta 200+200-200+400 V-65 Type of Impact Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Section III STA 129+750 s/d STA 158+450 Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 Sta 136+700-1 36+900 Sta 149+800-149+950 Reduced Water Quality Disruption of Ground Water flow Soil erosion Environmental aesthetic disruption EIA Sta 200+600-201+200 Sta 201+400-201+500 Sta 202+400-202+550 Sta 205+800-205+850 Sta 206+850-207+000 Impact caused by Impact caused by Impact caused by Impact caused by Impact caused by Impact caused by Mobilization heavy Mobilization heavy Mobilization heavy Mobilization heavy Mobilization heavy Mobilization heavy equipment and materials, equipment and materials, equipment and materials, equipment and materials, equipment and materials, equipment and materials, Operation of the base Operation of the base Operation of the base Operation of the base Operation of the base Operation of the base camp, ground preparation camp, ground preparation camp, ground preparation camp, ground preparation camp, ground preparation camp, ground preparation work, foundation, work, foundation, work, foundation, work, foundation, work, foundation, work, foundation, excavation and excavation and excavation and excavation and excavation and excavation and embankment work, River embankment work, River embankment work, River embankment work, River embankment work, River embankment work, River Ciherang (STA 95+000), Cibodas (STA 120+000), Cilamatan (STA 138+500), Cipanas (STA 161+500) Cimanuk (STA 180+000) Ciwaringin (STA River Cilamaya JSTA. River Ciasem River Cipunegara (STA 201+000), Kanal Ciliwung 102+500). (STA.123+000) 142+0001 (STA 205+500) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Ciherang (STA 95+000), River Cilamaya (STA. 102+500) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cibodas (STA 120+000). River Ciasem (STA.123+000) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cilamatan (STA 138+500), River Cipunegara (STA 142+000) Erosion caused by mining Erosion caused by mining Erosion caused by mining /quarry deposits /quarry deposits /quarry deposits associated with cut and fill associated with cut and fill associated with cut and fill activities. activities. activities. This impact is due to This impact is due to This impact is due to transporting project transporting project transporting project materials / soil spills on materials / soil spills on materials / soil spills on the road the road the road Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) ) River Cipanas (STA 161 +500) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cimanuk (STA 180+000) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Ciwaringin (STA 201+000), Canal Ciliwung (STA 205+500) Erosion caused by mining /quarry deposits associated with cut and fill activities. This impact is due to transporting project materials / soil spills on the road Erosion caused by mining /quarry deposits associated with cut and fill activities. This impact is due to transporting project materials / soil spills on the road Erosion caused by mining /quarry deposits associated with cut and fill activities. This impact is due to transporting project materials / soil spills on the road V-66 Type of Impact Section I STA 91+500 s/d STA 188+550 (Purwakarta -Subang) Section II STA 118+550 s/d STA 129+750 Ground Water Disruption This impact caused by excavation work in to obtain appropriate road geometry. There will be a hilly area in section I (slope generally 15-30%) (Purwakarta -Subang and Subang-Pamanukan] This impact caused by excavation work in to obtain appropriate road geometry. There will be a hilly area in section II (slope generally 15-30%) Slope Stability Disorder This impact caused by excavation work in to obtain appropriate road geometry. There will be a hilly area in section I (slope generally 15-30%) This impact caused by excavation work in to obtain appropriate road geometry. There will be a hilly area in section II (slope generally 15-30%) Gangguan Terhadap Biota Caused by clearing and air (ikan) land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Ciherang (STA 95+000), River Cilamaya (STA.102+500) Increased Employment Opportunities EIA Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cibodas (STA 120+000), River Ciasem (STA.1 23+000) Section III STA 129+750 s/d STA 158+450 (Subang-Bandung dan Subang-Pamanukan). This impact caused by excavation work in to obtain appropriate road geometry. There will be a hilly area in section III (slope generally 5-15%) This impact caused by excavation work in to obtain appropriate road geometry. There will be a hilly area in section III (slope generally 5-15%) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cilamatan (STA 138+500), River Cipunegara (STA 142+000). Impacts due to the Impacts due to the Impacts due to the absorption of labor absorption of labor absorption of labor (between 150-250 people) (between 150-250 people) (between 150-250 people) in surrounding villages and in surrounding villages and in surrounding villages and sub-district particularly on: sub-district particularly on: sub-district particularly on: Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 (Cirebon-Bandung) (Cirebon-Bandung) (Cirebon-Bandung) slope generally 3-5 % slope generally 0-3 % slope generally 0-3 % slope generally 3-5 % slope generally 0-3 % slope generally 0-3 % Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cipanas (STA 161+500). Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Cimanuk (STA 180+000) Caused by clearing and land preparation activities, earthwork (excavation / embankment), construction work and the road pavement. (In all the irrigation channels that are cut off) River Ciwaringin . , (STA 201+000), Kanal Ciliwung -(STA 205+500) Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on: Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on: .Sta 180+300-1 80+600 Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on: Sta 194+700-194+800 V-67 Type of Impact Improvement of Business Opportunity Social Jealousy EIA Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Section III STA 129+750 s/d STA 158+450 (Sta. 92+600-92+650, Sta Sta 122+450-122+600 Sta 98+700-98+600, 123+550-123+700 Sta Sta 104+550-104+900, 126+300-126+650 Sta 113+700-113+600, Sta 116+600-116+900) Sta 129+950-130+000 Sta 131+400-131+500 Sta 132+050-132+150 Sta 132+300-132+450 Sta 132+600-132+700 Sta 136+700-136+900 Sta 149+800-149+950 Impact due to the need for material supply For excavation category C materials (stone, gravel) or Concrete materials (cement, asphalt, iron), in surrounding villages and sub-district Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on:: Sta 122+450-122+600 Sta 123+550-123+700 Sta 126+300-126+650 Impact due to the need for material supply For excavation category C materials (stone, gravel) or Concrete materials (cement, asphalt, iron), in surrounding villages and sub-district Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on:Sta 129+950-130+000 Sta 131+400-131+500 Sta 132+050-132+150 Sta 132+300-132+450 Sta 132+600-132+700 Sta 136+700-136+900 Sta 149+800-149+950 Impact due to the need for material supply For excavation category C materials (stone, gravel) or Concrete materials (cement, asphalt, iron), in surrounding villages and sub-district Impacts due to the absorption of labor coming not from surrounding villages and sub-district particularly on: (Sta. 92+600-92+850, Sta 98+700-98+800, Sta 104+550-104+900, Sta 113+700-113+800, Sta 116+600-116+900) Section IV STA 158+450 s/d STA 177+350 Impact due to the need for material supply For excavation category C materials (stone, gravel) or Concrete materials (cement, asphalt, iron), in surrounding villages and sub-district Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on: Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 Sta 187+000-187+400 Sta 188+200-188+550 Sta 188+700-189+000 189+800-190+200 Sta 198+000-198+050 Sta 199+000-199+250 Sta 199+900-200+000 Sta 200+200-200+400 Sta 200+600-201+200 Sta 201+400-201+500 Sta 202+400-202+550 Sta 205+600-205+650 Sta 206+650-207+000 Impact due to the need for material supply For excavation category C materials (stone, gravel) or Concrete materials (cement, asphalt, iron), in surrounding villages and sub-district Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on:Sta 194+700-194+800 Sta 198+000-198+050 Sta 199+000-199+250 Sta 199+900-200+000 Sta 200+200-200+400 Sta 200+600-201+200 Sta 201+400-201+500 Sta 202+400-202+550 Sta 205+800-205+650 Sta 206+850-207+000 Impact due to the need for material supply For excavation category C materials (stone, gravel) or Concrete materials (cement, asphalt, iron), in surrounding villages and sub-district Impacts due to the absorption of labor (between 150-250 people) in surrounding villages and sub-district particularly on:. Sta 180+300-180+600 Sta 187+000-187+400 Sta 188+200-188+550 Sta 188+700-189+000 189+800-190+200 V-68 Type of Impact Accessibility Disruption Type of Impact EIA Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Section III STA 129+750 s/d STA 158+450 Section IV STA 158+450 s/d STA 177+350 These impacts will arise especially in underpass /overpass work activities where the toll road alignment plan will cut many public roads, especially on Sta: 92+920; 94+670;95+975; 97+S89;98+500;100+000; 101+100,103+418, 104+044, 106+205, 107+325, 109+518 113+525,114+805, 116+116, 116+950, 117+532 Impact caused by Mobilization heavy equipment and materials, Sta: 92+920,97+589, 104+044, 107+325,109+518, 113+525 116+950 These impacts will arise especially in underpass /overpass work activities where the toll road alignment plan will cut many public roads, especially on Sta: 118+425,119+070, 121+100, 121+825, 122+585, 123+855 124+831, 126+180, 127+350, 128+286, 128+550, 129+122 These impacts will arise especially in underpass /overpass work activities where the toll road alignment plan will cut many public roads, especially on Sta These impacts will arise especially in underpass /overpass work activities where the toll road alignment plan will cut many public roads, especially on Sta: 160+845,163+536, 164+651,165+975, 167+675,169+500, 171+060, 172+021, 172+851, 173-112, 176-155, 177+488 Impact caused by Mobilization heavy equipment and materials, Sta: 119+070,123+855 126+180,128+286 Impact caused by Mobilization heavy equipment and materials, Sta: 130+012,136+135 139+806,142+736 149+711 Impact caused by Mobilization heavy equipment and materials, Sta; 92+920;94+670;95+975; 97+589; 98+500; 100+000; 101+100, 103+418 104+044, 106+205. 107+325 Impact caused by Mobilization heavy equipment and materials, Sta: 118+425,119+070 121+100,121+825 122+585,123+855 124+831,126+180 Impact caused by Mobilization heavy equipment and materials, Sta: 130+012,131+575 133+100,133+566 134+735,136+135 136+870.138+433 Section II STA 118+550 s/d STA 129+750 Section III STA 129+750 s/d STA 158+450 Section I STA 91+500 s/d STA 188+550 130+012,131+575, 133+100, 133+566, 134+735,136+135 136+870,138+433,139+389 139+806,140+860,142+736 144+800,147+863,149+711 153+453,154+250,155+480 158+888, Section V STA 177+350 s/d STA 193+450 These impacts will arise especially in underpass /overpass work activities where the toll road alignment plan will cut many public roads, especially on Sta 179+002,182+500,184+80 2,187+281,188+250, 189+070, 190+673,191+ 550,192+712 Impact caused by Impact caused by Mobilization heavy Mobilization heavy equipment and materials, equipment and materials, Sta: Sta: 158+888,169^00 173+512 179+002,182+500 184+802,187+281 189+070,190+573 192+712. Impact caused by Impact caused by Mobilization heavy Mobilization heavy equipment and materials, equipment and materials, Sta: 160+845,163+536 Sta: 164+651,165+975 179+002,182+500 167+575,169+500 184+802,187+281 171+060,172+021 188+250,189+070 190+573,191+550 192+712. Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 These impacts will arise especially in underpass /overpass work activities where the toll road alignment plan will cut many public roads, especially on Sta: 194+698,195+289,195+ 938, 196+425,197+289, 198+191, 199+446, 200+030,200+030 200+716,201+535,202+ 123, 205+776,206+418 Impact caused by Mobilization heavy equipment and materials, Sta: 195+289,200+030 Impact caused by Mobilization heavy equipment and materials, Sta: Section VI STA 193+450 s/d STA 207+900 V-69 109518,113+625,114+805 127+350,128+286 116+116,116+950,117+53 128+550,129+122 2 Increased ARI patients EIA 139+389,139+806 140+860,142+736 144+800,147+363 149+711,153+453 154+250,155+480 158+888 Caused by clearing and Caused by clearing and Caused by clearing and land preparation activities, land preparation activities, land preparation activities, earthwork (excavation / earthwork (excavation / earthwork (excavation / embankment), Sta embankment), Sta 91+552 embankment), Sta 126+122 (Gas) 127+212 130+901 (Gas) PLN (PDAM) Sta 103+421 (Gas) PLN (Gas) PLN Caused by clearing and Dampak ini terjadi akibat Caused by clearing and land preparation activities, land preparation activities, keg. penyiapan tanah earthwork (excavation / earthwork (excavation / dasar dan pembersihan embankment), lahan pada jembatan lama embankment), yang menghubungkan antara dua village. The impact of derivatives The impact of derivatives The impact of derivatives decreasing cleanliness decreasing cleanliness decreasing cleanliness environment, the environment, the environment, the occurrence of puddle of occurrence of puddle of occurrence of puddle of water due constraints on water due constraints on water due constraints on river flow and river flow and river flow and improvement dust levels improvement dust levels improvement dust levels due to construction of toll due to construction of toll due to construction of toll roads roads roads (Sta. 92+600-92+850, Sta 129+950-130+000 Sta 122+450-122+600 Sta 98+700-98+800, Sta 131+400-131+500 Sta 123+550-123+700 Sta 104+550-104+900, Sta 132+050-132+150 Sta 126+300-126+650 Sta 113+700-113+800, Sta 132+300-132+450 Sta 116+800-116+900) Sta 132+600-132+700 Sta 136+700-136+900 Sta 149+800-149+950 172+651,173+612 176+655,177+488 201+535,202+123 205+776, 206+418 Caused by clearing and land preparation activities, earthwork (excavation / embankment), PLN Caused by clearing and land preparation activities, earthwork (excavation / embankment), No settlements in Sta 158+450-1 77+350 Caused by clearing and land preparation activities, earthwork (excavation / embankment), near school No settlements in Sta 158+450-1 77+350 The impact of derivatives decreasing cleanliness environment, the occurrence of puddle of water due constraints on river flow and improvement dust levels due to construction of toll roads Sta 180+300-180+500 Sta 187+000-187+400 Sta 188+200-188+550 Sta 188+700-189+000 189+800-190+200 Caused by clearing and land preparation activities, earthwork (excavation / embankment), Gas : Sta 196+496 dan 202+255 Caused by clearing and land preparation activities, earthwork (excavation / embankment), near mosque The impact of derivatives decreasing cleanliness environment, the occurrence of puddle of water due constraints on river flow and improvement dust levels due to construction of toll roads Sta 194+700-194+600 Sta 198+000-198+050 Sta 199+000-199+250 Sta 199+900-200*000 Sta 200+200-200+400 Sta 200+600-201+200 Sta 201+400-201+500 Sta 202+400-202+550 Sta 205+800-205+850 Sta 206+850-207+000 V-70 Table V.27 Type of Impact Ringkasan Jenis Dampak Yang Timbul Pada Tahap Pasca Konstruksi Di Setiap Section Sepanjang Trase Jalan Tol Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Section III STA 129+750 s/d STA 158+450 Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 194+700-194+800 Sta 198+000-198+050 Sta 199+000-199+250 Sta 199+900-200+000 Sta 200+200-200+400 Sta 200+500-201 +200 Sta 201 +400-201 +500 Sta 202+400-202+550 Sta 205+800-205+850 Sta 206+850-207+000 Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 194+700-1 94+800 Sta 198+000-198+050 Sta 199+000-199+250 Sta 199+900-200+000 Sta 200+200-200+400 Sta 200+600-201 +200 Sta 201 +400-201 +500 Sta 202+400-202+550 Sta 205+800-205+650 Sta 206+850-207+000 Impact caused by Operation and maintenance of toll roads Reduced Air Quality Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan (Sta. 92+500-92+850, Sta 98+700-98+800, Sta 104+550-104+900, Sta 11 3+700-1 13+800, Sta 11 6+800-1 16+900) Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 122+450-1 22+600 Sta 123+550-123+700 Sta 126+300-126+650 Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 129+950-130+000 Sta 131+400-131+500 Sta 132+050-1 32+1 50 Sta 132+300-1 32+450 Sta 132+600-1 32+700 Sta 136+700-136+900 Sta 149+800-149+950 No settlements in Sta 158+450-1 77+350 Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 180+300-1 80+600 Sta 187+000-1 87+400 Sta 188+200-188+550 Sta 188+700-1 89+000 189+800-190+200 Increased Noise Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan (Sta. 92+600-92+850, Sta 98+700-98+800, Sta 104+550-104+900, Sta 11 3+700-1 13+800, Sta 11 6+800-1 16+900) Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 122+450-122+600 Sta 123+550-1 23+700 Sta 126+300-1 26+650 Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan Sta 129+950-130+000 Sta 131+400-131+500 Sta 132+050-1 32+1 50 Sta 132+300-132+450 Sta 132+600-1 32+700 Sta 136+700-136+900 Sta 149+800-149+950 No settlements in Sta 158+450-1 77+350 Impact caused by Operation and maintenance of toll roads Cikampek-Palimanan .Sta 180+300-1 80+600 Sta 187+000-187+400 Sta 188+200-1 88+550 Sta 188+700-1 89+000 189+800-190+200 Increased Employment Opportunity Impact caused by Operation of toll roads Impact caused by Operation and maintenance of toll roads Impact caused by Operation and maintenance of toll roads Impact caused by Operation and maintenance of toll roads Impact caused by Operation and maintenance of toll roads EIA V-71 Type of Impact Section I STA 91+500 s/d STA 188+550 Section II STA 118+550 s/d STA 129+750 Section III STA 129+750 s/d STA 158+450 Section IV STA 158+450 s/d STA 177+350 Section V STA 177+350 s/d STA 193+450 Section VI STA 193+450 s/d STA 207+900 Social Kinship Disruption Impact caused by Operation and maintenance of toll roads Sta : (Sta. 92+60092+850, Sta 98+70098+800, Sta 104+550-1 04+900, Sta 11 3+700-1 13+800, Sta 11 6+800-1 16+QOO) Impact caused by Operation and maintenance of toll roads Sta : Sta 122+450-122^00 Sta 123+550-1 23+700 Sta 126+300-126+650 Impact caused by No settlements in Sta Operation and 158+450-1 77+350 maintenance of toll roads Sta : Sta 129+950-1 30+000 Sta 131 +400-1 31 +500 Sta 132+050-1 32+1 50 Sta 132+300-1 32+450 Sta 132+600-1 32+700 Sta 136+700-1 36+900 Sta 149+800-149+950 Impact caused by Operation and maintenance of toll roads Sta : .Sta 180+300-1 80+600 Sta 187+000187+400 Sta 188+200-1 88+550 Sta 1 88+700189+000 189+800-1 90+200 Impact caused by Operation and maintenance of toll roads Sta : Sta 194+700-1 94+800 Sta 198+000-1 98+050 Sta 199+000199+250 Sta 199+900200+000 Sta 200+200200+400 Sta 200-^00-201 +200 Sta 201+400201+500 Sta 202+400202+550 Sta 205+800205+850 Sta 206+850207+000 Changing of Public Perception Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Traffic Accidents Impact caused by Operation of toll roads . Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads Impact caused by Operation of toll roads 1C Palimanan, due to 1C Diamond shape using fly over on arterial road Cirebon-Bandung Impact caused by Operation of toll roads 1C Palimanan, due to 1C Diamond shape U turn on arterial road CirebonBandung Traffic Disruptions EIA V-72