- Bachmann
Transcription
- Bachmann
maritime.application Integrated Automation Systems Complete ships and offshore plants with up to 20,000 I/OS automated A system availability over 99.96 % confirmed by customers Together with our CUSTOMERS we develop perfectly integrated automation solutions maritime.application BACHMANN KEEPS YOU ON COURSE We automate the offshore and shipbuilding sector: Safely, flexibly and in a modular system Bachmann electronic offers customers worldwide in the marine and offshore sector sophisticated automation solutions. All our activities are focused on the benefit to the customer: We deliver tailored solutions and set ourselves the highest standards. Meeting highly specialized market and customer requirements has long become a standard task for us. With Bachmann solutions you are benefiting from the technologies of the market leader: Over 40 years of experience in the automation sector provide the critical edge in know-how to bring your marine solutions quickly to market, with the optimum support of our worldwide network of technical branches. Since 1970 Bachmann has been growing with every new challenge. Amongst the largest global manufacturers of machines and plants in the marine and offshore sector, the name Bachmann is recognized as a benchmark for first-class automation and control technology. Thinking ahead, setting new directions, and implementing today the customer requirements of the future – these are the key principles of Bachmann’s philosophy. The requirements placed on the automation of modern machines and plants have increased tremen- dously in recent years, demanding from suppliers a high degree of flexibility, openness and innovative know-how. Our customers are provided with highly reliable complete solutions that increase the productivity and controllability of their applications, release the resources required for their core business activities and ensure reliable use long into the future. The harsh conditions of the marine and offshore industry place tough demands on machines and plants. That’s why Bachmann solutions have the toughness to match: They stand out on account of their extremely high availability, very long service life of over 20 years, and the use of state-of-the-art technologies. This enables us to guide our customers to success. Technically and financially. THE SAFE FUTURE OF YOUR MARINE AND OFFSHORE PLANT Everything under control with Bachmann system solutions Our broad and modular product range meets really every customer requirement. We provide you with a homogeneous and holistic system solution that also ensures a high level of availability and is future proof. We offer you everything from a single source and in the highest quality. Integrated automation One tool One hardware Open Flexible Web-based … the right solution for every requirement Redundancy Scalable with standard components Network redundancy with warm standby / hot standby Maximum availability Integrated diagnostics Automatic switching within one cycle Affordable Technologically tested … secures productivity and plant availability maritime.application Maritime&Offshore Essentials Perfect engineering tools Certified Impressive redundancy Maintenance through integrated CBM Integrated power management Open communication with all standards ... for the maximum availability and efficiency of your ships and offshore plants Condition Monitoring System O ver 15 years of CMS expertise O ver 3,000 CMS installed worldwide T he world’s first GL certification of a PLC-integrated CMS Individual retrofit solutions made to measure … because a weather forecast on its own is not enough Power Management Fully integrated solution Easily scalable Individually adaptable templates Measuring, protecting and synchronizing Responding in milliseconds ... for developing highly innovative solutions using our templates THE BACHMANN SYSTEM The automation solution for marine and offshore We have the big picture and are always thinking ahead for you. Our innovative solutions ensure the efficient engineering for your plants. This is what the intelligent automation of state-of-the-art marine and offshore plants looks like. maritime.application AUTOMATION Top technology without limits 08 COLD CLIMATE Solution for every environment 10 12 SOLUTION CENTER All-in-one engineering MARITIME&OFFSHORE ESSENTIALS Efficiency at all levels REDUNDANCY Safety net in case of emergency POWER MANAGEMENT Grid measurement at the highest level SAFETY CONTROL Safety without compromise MODEL BASED DESIGN Regulation, sequence and HIL/ simulation fully under control CONDITION MONITORING SYSTEM More safety, greater yield M1 WEBMI PRO SCADA and HMI of the future 26 24 20 22 13 16 18 TOP TECHNOLOGY WITHOUT LIMITS Automation Automate your offshore plant with Bachmann, secure in the knowing that every eventuality is covered. Our automation systems stand out on account of their extraordinary robustness, high performance and open interfaces. The latest and most innovative platform for your requirements. Openness in hardware and software Equipped for challenging climates The M1 system operates as a real-time system. Different open-loop and closed-loop control programs are adapted in modules and run simultaneously in a preemptive multitasking environment. Like the hardware, the software system is also modular and can be structured and extended as required following our “no limits” principle. The controller offers additional reserves for expansions or plant-specific adaptions. The ColdClimate modules of B achmann electronic are the solution for all applications in demanding climatic conditions, especially where maximum plant availability is critical. The ColdClimate modules are first choice, especially when demanding environmental conditions (e.g. temperature, air humidity, salt spray) are involved. For you this means: Safe operation, even with extreme transient temperatures as low as -40 °C and when condensation is present. Functionality means “ready-to-use” The modular M1 system offers an extensive range of hardware, consisting of over 200 devices and modules. This system contains a large number of configurable modules for all necessary plant functions, such as visualization, networking, closed-loop control and diagnostics, to provide you with all the basic functions from the start. Here we place great importance in ensuring that all tools are developed according to international standards, and can also be integrated and parameterized flexibly. 8 maritime.application System concept Scalable and open In order to minimize complexity and maximize ease of maintenance, all components of the M1 controller system are consistently developed as part of a modular system. In this way, optimum scalability is ensured for a wide range of requirements. The M1 system perfectly combines the openness of a PC-based controller with the reliability of industrial hardware platforms. A state-of-the-art system architecture designed for effective networking capability enables it to be integrated easily in the area of the controller and plant peripherals. Regardless of the type of ship or offshore and marine application involved: We offer you products for tailored solutions. Meeting highly specific requirements has long become a standard task for us. Loading system Thruster Power management Stabilization system Ship management Alarm & monitoring Condition monitoring system Rudder control Machine plants Heeling compensation ROV Dynamic wave compensation Certified systems Internationally accredited test institutes verify the conformity of our Bachmann systems with the most important global standards and thus provide approval for the most demanding applications. 9 SOLUTION FOR EVERY ENVIRONMENT ColdClimate Anyone working in extreme climatic conditions values a reliable partner. Bachmann is renowned worldwide for its quality promise to supply products with only the highest level of reliability. 10 maritime.application We are glad that our customers are so demanding. They are looking for unique solutions for challenging environments, particularly wherever maximum plant availability is critical. On shipboard applications in particular, or in offshore installations such as wind turbines, oil and gas production platforms, ColdClimate modules are the first choice. Whether it is condensation or operating temperatures between -30 °C and +60 °C (extreme temperatures between -40 °C and +70 °C), Bachmann solutions can withstand them all. The ColdClimate modules are the ultimate answer to extreme climatic conditions. Our quality promise is also based on a number of testing procedures that go far beyond the mandatory minimum standard – starting with the 100 % test for all modules in an active RUN IN, to extreme temperature change phases in climatic chambers, right through to measuring compliance with standards in the company’s own EMC 3 meter absorber chamber. Wide temperature range and condensation proof The perfectly matched ColdClimate versions of M1 modules and terminals have two things in common: A very large operating temperature range and moisture condensation resistance. Thanks to a special polymer-based protection of the electronic modules, reliable operation is also ensured when condensation is present. The modules can be used at extreme temperatures from -40 °C to +70 °C, and reliable uninterrupted operation is guaranteed in the temperature range from -30 °C to +60 °C when condensation is present. Thanks to the high quality protection for temperatures between -40 °C and +85 °C, all ColdClimate components can be stored without any restriction. Bachmann products are also ideally equipped for other severe environmental conditions: For example for operation in high altitude conditions at low pressure and reduced heat capacity. And not to be forgotten: severe mechanical stresses caused by shock and vibration that are no match for Bachmann controllers. 11 ALL-IN-ONE ENGINEERING SolutionCenter The Bachmann SolutionCenter represents a genuine milestone in the reduction of engineering costs. A single all-round software solution covers all aspects of the engineering process – from configuration, programming, closed-loop control, motion, communication, safety, visualization, right through to testing and commissioning. One tool for everything Project engineering SolutionCenter – the all-in-one engineering tool Thanks to the highly modular Eclipse plug-in concept, the SolutionCenter can be expanded simply, even for integrated user-specific requirements. Programming Visualization arameterization and P communication Tools and add-ons Diagnostics and service 12 The SolutionCenter is perfectly matched to Bachmann devices and systems, and was designed in collaboration with experienced users. It saves time, generates synergies and increases usability. Users can benefit from the integrated operating concept and avoid the manual entry of redundant or unnecessary data. An open system Bachmann offers control system developers the latest in modern and standardized development tools. The M1 system can be programmed in IEC PLC languages, and highlevel languages C/C++ or Java. Extensive closed-loop control tasks can be modeled and simulated and can be tested and run directly online on the system. The M1 controller supports all standard networks such as Ethernet TCP/IP, PROFINET, EtherCAT, CAN bus or Modbus. The configurators required are also included as well as diagnostic and testing tools. maritime.application EFFICIENCY ON ALL LEVELS Maritime&Offshore Essentials With features such as the Project Manager, the Maritime&Offshore Essentials package supports the workflow of a programmer, starting from the list of measuring points of the shipyard right through to the creation of the PLC program. Diagnostics and service The system can be commissioned and optimized with a high degree of transparency thanks to the tools integrated in the SolutionCenter. The various monitoring and debugging tools can be used in a wide range of applications and considerably reduce commissioning times. Increased system availability is also possible thanks to efficient process diagnostics. Visualization Visualization and plant operation are webbased and protected with access authorizations and SSL encryption. A security concept that has already been tried and tested in thousands of different plant configurations. Freely configurable and parameterizable controller application during the runtime The M1 marine automation system gives the opportunity to adapt the functions you provide to your customer to his specific requirements. This can be carried out without the need for an expert system or any specialists. Your customer or end user are thus able to make these adaptions themselves. A configuration layer makes it possible to map or parameterize Measuring point list is supplied by the shipyard. Import list created from the information in the measuring point list. hardware and software during operation. It is also possible to define the number and scope of these parameters. This ensures that the application is always in a safe and operable state. Project manager The Project Manager supports the workflow of a programmer starting from the list of measuring points of the shipyard right through to the creation of the PLC program. The Project Manager ensures the error-free generation of the PLC program by a project designer or service technician in a very short time. Even if your customer stipulates some special requirements shortly before the deadline, these can be included very simply and, more importantly, without any risk of programming errors. Your service technicians can set parameters to modify important functions. All possible function parameters are already pre-tested 100 % in advance in order to avoid the need for troubleshooting on board the ship. MOE functions – »Ready-to-use« Holistic project development and management LC program P Programs and functions Logic operations Variables Visualization Object creation Connecting objects with the PLC variables Simulation Generation of PLC simulation code 3D animation Documentation Connection diagrams Ordering data Technical data Project manager The reading in of the import list generates all objects. Editing of object parameters if necessary adding of new objects. PLC program is generated. Project Manager supports the workflow of a programmer. 13 Bridge Alarm & monitoring Cruise control Configuration Maneuvering controls Information management Automatic track keeping Remote diagnostics Autopilot Teleservice Simulation Alarm & monitoring Cabin Extending alarm system Information system Active heave compensation Cranes Deck Winches Gangways Cable drums Trenchers ROV A frames Alarm & monitoring Dynamic position Machine control room Energy management Drive control Rudder control Ship automation general Diesel electric drive control Transient recorder Anchor & winch control Ballast compensation control Condition monitoring Machine/cargo room Motor control Fuel conditioning Process control Water treatment 14 Network 1 Network 2 maritime.application 2nc Master CPU (optional) Connection to I/O stations MODBUS NMEA SAE J1939 Connection to I/O stations or third-party system MODBUS NMEA SAE J1939 15 SAFETY NETWORK IN CASE OF EMERGENCY Redundancy Control Bachmann automation solutions stand out on account of their highly robust design and maximum availability. Nevertheless, no single system can guarantee complete freedom from failure on its own. The use of a redundancy system enables you to increase the availability of your installation or ship effectively and sustainably. Malfunctions and failures in important operating components reduce the uptimes of machines and plants. In addition to this, they often lead to consequential damage and lengthy repairs. This involves considerable costs, and the production downtime leads to financial losses. Redundancy systems increase the capabilities of automation systems through the feature of single fault tolerance. This makes it possible to ensure continuous productivity – even while maintenance or modifications are being carried out on the plant – 24 hours a day, 7 days a week. Bachmann’s redundancy solutions enable you to increase the availability of your plant effectively and sustainably: System variants that are tailored to meet any particular requirement enable you to optimize productivity and operational reliability. The seamless embedding in the proven hardware, engineering and programming concept already in place, together with the robustness of tried and tested Bachmann components, guarantee Redundant systems have a reputation for being complex, expensive and extraordinarily labor-intensive for programming and operating. Not so with Bachmann redundant solutions: They offer full real-time capability, are easy to program and are fully integrated into the engineering environment. 16 maritime.application Hot standby redundancy Network redundancy included Two master CPUs utomatic synchronization A of master CPUs Bumpless switchover edundancy cycles up to 1 ms R possible the highest level of operational reliability, thus maximizing yield. This optimum combination not only guarantees single fault tolerance throughout but also multiple fault tolerance in many cases. nhanced diagnostic and E programming interfaces for monitoring and evaluating the redundancy status Operator Terminal reely adjustable switchover F time, automatic switchover in the event of a fault Warm standby redundancy Network redundancy included Two master CPUs Master B Master A Slave Station iagnostic interface for D monitoring and evaluating the redundancy status laves decide the CPU from S which the data packet is to be used (voter) Configurable switchover time Operator Terminal Another benefit of the integration is the voting mechanism used by all Bachmann terminal devices. After being configured once in the application program, redundant process variables here can be used and processed as a single variable without having to manually read or write the values twice. Management and fault detection are completely handled by the system, thus reducing the workload for the user. With Bachmann systems, redundancy can be tailored to meet the requirements at hand. The use of standard components offers a wide choice of powerful CPUs which can communicate with the substations either via copper or fiber optic connections. Combined with the product variants, this results in the most economical solutions – from simple network redundancy to protection from communication failures, right through to the virtually fully available system. onfiguration and monitoring C in the SolutionCenter Slave Station Fault detection integrated in the end points Scalable and cost efficient utomatic switchover between A variables and process value sources within one PLC cycle Time synchronization of all stations Short switchover times The switchover time is a quality feature of a network redundant system. Typical systems often operate using a ring topology. In the event of a failure the network devices reroute the data packets. However, the detection of a fault and the subsequent switching takes time. The redundancy solutions from Bachmann directly integrate the detection and switchover operation in the communication end points. This approach allows considerably better switchover times, and any topology can be selected thanks to the comprehensive Ethernet conformity. Master B Master A omparison of master CPUs C not integrated Network redundancy One master CPU edundant communication R (cyclical and acyclical) ully autonomous, double F communication guarantees optimum reliability for any selected transmission medium (copper/fiber optic) Master CPU edundant Ethernet-based R networking, full support of TCP/ IP-based parallel communication Slave Station Operator Terminal reely selectable network topolF ogy: Radial, linear, ring and combinations imple configuration in developS ment environment, integrated diagnostics (status, quality) rogramming interface, libraries P and system variables for easy creation of applications witchover in the same S PLC cycle 17 GRID MEASUREMENT AT THE HIGHEST LEVEL Power Management Initiatives such as the All Electric Ship (AES) require the increasing stability and controllability of shipboard energy grids. Capacity bottlenecks must always be prevented and the ship’s engines must always have power available. The coordination of grid protection, the real-time monitoring of loads, and the fast and targeted supply of electrical energy are fundamental requirements here. Fully integrated solution and yet easily scalable Several technology modules are available for the power management alone. The GSP274 module provides Bachmann’s experience in the automation of decentralized energy generation units for maritime applications. It ensures the 18 safe, reliable and automated synchronization of generators to the ship’s power grid. To do this the module measures the grid at three points and actuates two circuit-breakers via a relay output, taking the switch delay into account. The GMP232 grid measurement and protection module from Bachmann integrates the protection maritime.application &R PS OL Q H MS MS KH@ O C D Ø " N L 5 1 RQH V 7H C Ø WH MP 2 G Q W D F F W R 9 ' ($ Synchronization: Monitoring of synchronization conditions MP 3 MP 2 M Event lists Data recorder GCB M LG H G Loads Loads G rid monitoring Additional G to the GMP232 module – Q/V protection (reactive power/ undervoltage monitoring) MP 1 GCB Power Lines Control Lines, Measuring Lines Fastbus (Fibre optic) MP 1/2/3 Measuring Points 1/2/3 O D Ø " N LXP9ROW W R % ' ( : 0 H GL dditional to the GMP232 A module: 4 additional voltage inputs (total 7; GMP 3), 1 additional current input (total 4; GMP 3) MP 3 MP 1 FF Grid voltage: 480 V GCB G NC W D Grid measurement Power Management Control MP 1 HQ 3³5Ø-.1#Ø"$13 &LA' "N GSP274 – functions GCB MP 2 " &QH 7H VWH RQ GCB G 3³5Ø-.1#Ø"$13 &LA' CØ & Q H &RPS The system must ensure that sufficient load reserves are always available at the busbar. In order to do this, generators are automatically started and synchronized, and loads with a low priority disconnected. To record faults with a high level of accuracy, the GMP232 and GSP274 are equipped with an integrated data recorder. This enables up to 16 measuring channels to be recorded with precise synchronization for four seconds at a maximum resolution of 100 µs. The recording can be triggered remotely or activated in the event that predefined limit values are exceeded. The measuring data is then available in the SolutionCenter or as an exportable file in the Comtrade format. In the KH @ Tasks of the power management system To handle all these tasks, the M1 marine automation system comes with a high performance processing unit and offers high speed and reliable networking options at the same time. The M1 automation system allows a high degree of flexibility whilst still ensuring a high level of functional integration at the same time. Development engineers can thus be certain that they can even implement non-standard tasks. Operating and maintenance personnel appreciate the safe and reliable diagnostic options for system events. The data can be fully integrated in the central alarm & monitoring system. This therefore reduces maintenance work and enables abnormal system loads to be detected early on before they can cause significant damage. *X A central power management control unit enables you to implement advanced real-time power management solutions with remote technology modules connected by fiber optic cables. This ensures that the coordination between the power generation units and the dynamically changing load demands is straightforward and reliable. High performance PLC H Maritime power supply event of a fault, this makes it possible to safely and reliably reconstruct the causes without any additional effort. DJ and monitoring functions in the conventional control tasks. The third module GM260 can be used for measuring the grid. Modular software modules with standard and easy to operate interfaces round off the package. Loads Loads G ertification – C VDE AR 4105: Grid and system protection; requires two-channel measuring and tripping; mandatory in Germany when connecting energy generation plants to the low-voltage grid Unit certificate FGW TR3: Simplifies the issuing of plant certificates. Plant certificates must be issued in Germany in order to obtain the “system services bonus” (= higher feed-in tariff). 19 SAFETY WITHOUT COMPROMISE Safety Control Modern safety solutions using a programmable safety controller make it possible to implement functions that go far beyond the conventional emergency-stop chain. Bachmann offers a complete safety package that is used successfully in a wide range of different applications under the toughest conditions. In modern machine and plant building, the protection of personnel and systems is regulated by the new Machinery Directive. This directive and the associated safety standards stipulate the use of the latest methods and measures in the implementation of safety devices in order to ensure the optimum protection of people and goods. In addition to this, each safety component is developed and tested under the supervision of a certification body. Operators of offshore installations and also shipping companies not only benefit from the increased personal protection provided but also benefit financially. 20 Critical signals can already be acquired and evaluated using several sensors. An approved component such Bachmann’s “safety control” PLC, combined with the integrated testing and monitoring functions, eliminates the need for multiple acquisition whilst keeping life cycle costs low. Safety engineering under control The safety components of Bachmann are ideal for use on ships and offshore plants. Operational control, safety engineering and operating maritime.application devices are perfectly matched and offer open communication. The fastest possible response times, intuitive operation and comprehensive diagnostic options guarantee the highest possible level of safety. All Bachmann safety modules are certified with the highest safety category SIL3 and PL3 for machines and systems. The safety modules can be arranged within the plant control system as required, thus enabling the implementation of individually tailored solutions. Safety channels that are not required can be used as standard digital I/ Os without any restrictions. Safety relays can be replaced thanks to the 2A outputs of the remote SDO208 output module. This saves space, wiring effort and additional costs. With the integration of the Safety Developer in the SolutionCenter engineering tool, Bachmann makes safety programming easy for the user on the basis of established standards such as IEC 61131-3 and PLCopen Safety. Benefits for manufacturer and operator Programmable safety engineering makes practical implementation and daily use easy. It enables the secure monitoring of all the internal states of an installation during operation, including the safety circuits, also via teleservice functions. Bachmann offers you tailored solutions based on the experience gathered from the successful use of control components in offshore installations all over the world. Keeping it safe with Bachmann All the safety modules of Bachmann, together with the necessary programming tools and function blocks, have all been certified by the TÜV Süd certification body. UL508 approval also ensures safety when operating in North America. All modules are available as coldclimate versions. Safety is thus also guaranteed in extreme environmental conditions. Safety standards and regulations I EC60945 I EC61508 I SO13849 E N954 I EC62061 E N61511 21 REGULATION, SEQUENCE & HIL/SIMULATION FULLY UNDER CONTROL Model Based Design The challenges placed on the automation in offshore applications and on ships are constantly increasing. The growing size of plants and the introduction of new technologies have also increased the complexity of operational control programs. New development techniques for creating these programs are needed in order to minimize the development effort required on the one hand, and to bring out technically mature and highly available plants on the other. If simple analytical advanced calculations can no longer describe or predict the response of a system, practical experimentation is the only solution. Models and prototypes are used to obtain findings and develop a solution. However, what happens if the production of these pilot systems is too expensive, offers only restricted use, or if practical tests are simply too dangerous? Today’s answer is: digital simulation. The actual systems are emulated in a program in the form of a simulation model. Irrespective of the type 22 of modeling, mathematical interrelationships are used to describe the behavior of the system. If these simulation models are recalculated with different environmental conditions and parameters, this is the equivalent of a prototype test in virtual form. Safe, affordable, repeatable as required and fully automated. M-Target for Simulink® enables the simple use of model-based simulation, taking the actual automation solution into account. maritime.application Simulation: Solution development on the computer model and direct download to the M1 controller. Quality and efficiency The use of high quality algorithms increases product quality and plant yields. The increasing efficiency of plants can be achieved through the use of new close-loop control and optimization concepts. Solutions which are developed with the help of M-Target for Simulink® or 20-sim 4C can fully demonstrate their strengths in these disciplines. The MATLAB®/ Simulink® tool from MathWorks is well-established on the market. 20-sim is the modeling and simulation software developed by Controllab. It offers tools for modeling dynamic systems. Both products provide support for creating a simulation model of the subcomponent to be automated. Standard modeling methods can be used on the one hand. Alternatively, it is also possible to use the interfaces to several commonly available domain-specific simulation programs in order to utilize part simulations that have already been created. The algorithms required for automation are then created directly in the simulation environment and their functional suitability checked. Automatic code generation As soon as the simulation has produced satisfactory results, i.e. when no weaknesses in the requirements specification and no algorithm errors can be identified, the compilation from the simulation language into executable code for the M1 controller is executed at the push of a button. This is machine compiled by the system, thus eliminating the possibility of any random errors. After code generation, the executable automation program can then be tested immediately on a hardware-in-the-loop test rig equipped with actual controller components or on the actual plant. Cost efficiency “Getting to market faster with the better solution” – this is the paradigm of our global economy. The many programming options of the Bachmann M1 automation system help here. Calculable investments that are also inexpensive compared to their benefits pay for themselves quickly. The customer-friendly license model of M-Target for Simulink® does not involve any unit-based purchase of licenses and thus has no negative effect on product profitability. 20-sim can be purchased directly from the manufacturer and has the M1 already integrated as target. Highlights of model based design Development of automation algorithms (open-loop and closed-loop) directly in Controllab/20-sim or MATLAB®/ Simulink® A utomatic code generation and transfer to the M1 controller O nline communication between the development environment and the PLC program for convenient parameterization and diagnostics Integrated simulation modes for the I/O modules used in the application I ntegrated interfaces to visualization systems and other PLC systems I ntegrated interfaces to automation programs created in conventional programming languages (IEC61131-3, C/C++) Support for hardware-in-theloop systems (HIL) 23 MORE SAFETY, GREATER YIELD Condition Monitoring System Drives for drilling equipment, excavator pumps, pipe handling systems, propulsion systems, control systems etc. are some of the critical equipment used in shipbuilding. The prevention of breakdowns and therefore also any unexpected downtimes for this critical equipment is the task of the 24/7 condition monitoring system for ship operation. In conjunction with a method of forecast modeling, the CMS is required to detect potential fault conditions before actual damage becomes noticeable and critical. This should likewise provide sufficient time for implementing preventative measures and repairs or procuring spare parts. First CMS to be fully integrated in an automation solution The wear occurring on plants is primarily determined by the way in which the plants are subject to stress. “Stand-alone” condition monitoring systems were developed primarily for condition based maintenance. Having access to the relevant process variables online makes it possible to take the latest operating states of the ship into account. The M1 marine automation system is the first fully integrated and programmable CMS solution available that provides the appropriate hardware modules required for incorporating the various signals, as well as the necessary software. The 24 M1 system analyzes the data combined from oil, water and vibration sensors with operating hours and operating conditions, as well as environmental factors such as waves, wind and currents. The wear process is closely related to the way in which the machines are used. It is even possible for environmental conditions and the movement of the ship to accelerate the wear process even with minor loads. Minimizing system downtime The system failures of shipboard machines can cause the failure of the ship’s entire operation, thus resulting in a correspondingly high financial loss. For decades, every ship has been equipped with a central “alarm and monitoring system” that warns the crew in the event of a critical fault or critical values. The integration and use of analyzed CMS data is the next step towards minimizing system faults and notifying the crew in good time and as extensively as possible. However shipboard machinery is subject to a slow process of wear due to the stress maritime.application it is exposed to during operation. This stress depends on environmental factors and on the way in which the crew operate the system. This slow process of wear cannot be handled by the conventional AMS system. Marine M1 automation solution The IACMS Integrated Automation & Condition Monitoring System from Bachmann combines the control functions with the condition monitoring (CMS) and functions as a redundant data server for the AMS system. The operating personnel receive an online warning message in good time about the increasing wear, thus enabling the owner to reduce the life cycle costs of the fleet. Major benefits for crew and owner The use of IACMS means that different systems on board can be controlled with the same hardware and software. This improves understanding and simplifies training for the crew, whilst at the same time reducing initial costs for the owner. If CMS data is fed to the ship management system, it is possible to make a continuous assessment of the current status and availability of the ship. Increased performance and know-how This display of online and on board information about the machine status with the same hardware that these systems are controlled and regulated with is not the only expertise that we offer. Follow-up control An example of the monitoring screen of an operator station. This example is of a semi-submersible with six controllable thruster s and four gensets driven by diesel engines. Follow-up control Hydraulic power-pack or frequency converter M Azimuth sensor indication Critical components that can be monitored with condition monitoring systems. Indication duties Driving Motor M Azimuth sensor indication Seal Radial roller bearing Axial roller bearings Propeller Main gear Seal Thrust bearing Radial roller bearing 25 SCADA AND HMI OF THE FUTURE M1 webMI pro The widespread global use of Internet-enabled devices has taken place at breathtaking speed. Their simple and intuitive operation is impressive. Internet and software applications no longer have a fixed location but can be used from anywhere in the world. With ‘M1 webMI pro’, Bachmann electronic is impressively demonstrating its technology leadership: Each M1 controller is turned into the central server for fixed or mobile HMI devices. Engineering and maintenance – an important cost factor Benefits of M1 webMI pro at a glance: alue displays with high V refresh rate ny browser-based device A becomes an HMI peration and visualization O when and where you need it oss-free scaling to all screen L sizes s safe as Internet banking A (HTTPS) hort refresh in the browser S instead of time-consuming software rollouts se of the application on U different devices (smartphone, tablet or stationary HMI devices) I ntegration in higher-level SCADA applications 26 Plants are becoming increasingly more complex with ever increasing requirements. This also naturally increases the effort required for engineering and maintenance as well. It is often not only necessary to allow for local visualization in the field, but also for the connection to a control center, a separate visualization for teleservice and sometimes also solutions for mobile terminal devices. Often each requirement here has to be implemented with separate applications. With many visualization products, the handling of different terminal devices and screen resolutions is also not possible. Pure web visualization for the Bachmann M1 Bachmann electronic is now launching a powerful product for pure web visualizations on the market called ‘M1 webMI pro’. A slim-line web server that is directly installed on the M1 controller enables the connection of any visualization devices such as smartphones but also powerful operator terminals. Provided the necessary authorizations are in place, the application can now be accessed from anywhere in the world. Thanks to ‘M1 webMI pro’ all the important information can be shown in a single view and with stunning definition. Perfect graphic results can be achieved on any visualization page without any losses in quality when scaling and zooming. This is thanks to the extraordinary benefits of HTML5 and SVG (scalable vector graphics), the basis for all graphic objects. State-of-the-art project engineering and simple delivery The ‘atvise builder’ engineering tool is used for drawing process pictures, configuring animations and events as well as for other settings. A number of ready-made graphic objects and layouts, as well as the flexible reuse of pages using parameter transfers make it possible to create visualizations efficiently. Integrated editors even allow the drawing of new SVG graphic objects or the creation of additional functions with user-defined Java scripts. Once the visualization is completed, this is transferred to the web server via FTP with just a single click. This makes the delivery of visualizations to large and distributed installations child’s play. Time-consuming software installations to all HMI devices involved become completely unnecessary. The latest version of the application is always shown as soon as a client connects with the central web server or reloads the web page. Special installations or a restart maritime.application Client Client Client Client Ethernet/Internet PLC M1 webMI pro of the HMI devices are no longer necessary. All operator units are thus automatically brought up-to-date – without any interruption and irrespective of time and place. Increased efficiency included The development of web technologies had to allow from the outset for a wide range of different terminal devices, since different screen sizes and resolutions are normally used. Visualization design in ‘M1 webMI pro’ is much easier however, since only a single application has to be created for all devices. If the visualization solution is also implemented directly on the controller, the configuration of the relevant data interfaces is also unnecessary: The variables can be accessed directly, an OPC server or any proprietary protocols become obsolete. Ultimately, this kind of web solution not only means more efficiency in engineering but also a real increase in cost efficiency. The web ser ver on the Bachmann M1 forms the “visualization center”, any clients can access it with a web browser, regardless of time and place. the latest processors increases system efficiency. At the same time, the 64-bit data width enables the utilization of considerably more main memory which ultimately allows larger projects with more process variables (nodes). Released operating systems include Windows XP SP3, Windows 7 (32-bit and 64-bit), Windows 8 (32-bit and 64-bit), Windows Server 2008 and Windows Embedded Standard 7. Besides other minor improvements, version 2.5 also contains functions for filling in the process history (value archive) at a later time, such as when the transfer of only temporarily connected process connections is blocked. State-of-the-art visualization solution on an Apple iPad™: Ship control in pure web technology. SCADA with 64-bit power The increasing complexity and the constantly rising level of automation in a wide range of different installations require future-oriented technologies for monitoring and controlling processes effectively. SCADA systems make a key contribution here and ensure a high level of safety. This is especially the case if they offer, like the atvise® product line, operation that is not restricted to a particular location or device. The atvise scada control station combines the latest web technology with a high performance client-server architecture. While user interfaces can be displayed in web browsers without any installation required, central functions such as process connection, historization, alarm signaling can be run in highly efficient server structures. The full utilization of the internal data structures of 27 OUR CUSTOMERS Applications in the maritime sector Many of the leading global manufacturers and operators of ship and offshore plants rely on us. Together with them, we are setting new benchmarks and achieving new successes. maritime.application 30 TOGETHER ON COURSE SAM Electronics GmbH EVERYTHING IN VIEW AND WELL DOCUMENTED – ALSO ON THE HIGH SEA SAM Electronics GmbH 34 KNOW-HOW IN A TWIN PACK CSI Control Systems SAFELY THROUGH THE FOG TTI GmbH TANK MANAGEMENT WITH SAFETY Wilhelm Sander Fertigung GmbH INNOVATION THROUGH COLLABORATION Bakker Sliedrecht Electro Industrie B.V. REVOLUTIONARY PROCESS IN SHIPBUILDING Bakker Sliedrecht Electro Industrie B.V. STRAIGHT TO THE TARGET Controllab Products B.V. ON THE TRAIL DIMAR-TEC PTE LTD ALWAYS ON THE RIGHT COURSE SCHOTTEL GmbH 2,500 METERS UNDER THE SEA seatools LOTS OF SAND – AND LITTLE WATER Van Oord Dredging and Marine Contractors 68 64 60 54 56 40 44 48 52 36 TOGETHER ON COURSE Redundant controllers for diesel electric propulsion systems on ships Special safety concepts ensure a high level of reliability and safety for a ship propulsion system. New functions are continuously being integrated in the ship’s control system. A collaboration between SAM Electronics and Bachmann electronic produced an innovative concept for use with diesel electric propulsion systems. The Royal Princess with diesel electric propulsion – controlled by the Bachmann M1 automation system. 30 maritime.application SAM Electronics GmbH is a company headquartered in Hamburg, Germany, and is one of the leading international suppliers of ship automation solutions. Its offering includes systems for seagoing navigation and communication. The extensive expertise of the company in the field of shipbuilding and the shipping industry is based on over 100 years of experience. Concept: redundant propulsion also saves on cabling and enables an improved monitoring of the interfaces. If a single I/O system fails, the decentralized arrangement of the I/Os also ensures that not all of the system information is lost. Appropriate processes are triggered depending on which I/O system is no longer available. If the fieldbus to the bridge fails, for example, the drive saves the last control lever setting and initiates an alarm: The failure of a steering console is indicated and control can be switched to another console, such as in the engine control room. The main components of a diesel electric drive are the diesel generator(s), frequency inverters, propulsion motor, propeller and controller. Unlike conventional systems with two engines, Changeover to the M1 which are each coupled directly to a propeller, controller with diesel electric propulsion systems the dieThe implementation of these complex consel engines drive generators. These all feed the cepts and control tasks requires the use of a same busbar from which both the drives as well powerful controller. SAM Electronics therefore as the other loads are supplied. This therefore decided to use here the M1 automation system makes the availability of a drive independent from Bachmann electronic. “The scalable M1 of an individual diesel engine since a reduced system comes with the certificates required for propulsion capacity is still provided in the event ship applications and offers the right controller of a failure. Considerable importance is placed for every performance level, whilst still ensuron a high level of redundancy, particularly with ing downward compatibility,” explains Hermann the design of diesel electric propulsion systems Knirsch, drives and special systems manager of for cruise liners. This redundancy is always technology and design at SAM Electronics. “It based on a single thus offers the fault event. Simullevel of flexibility taneous multiple required, whilst » The scalable M1 system faults are not conthe guaranteed sidered here. The long-term availoffers the right controller propeller motors ability ensures for every performance themselves are also the level of level. « provided with two safety required s t at o r w i n d i n g for current projsystems, each fed ects and those in by a separate 6/3 the future.” Hermann Knirsch, Drives and Special Systems Manager phase, 12/6 pulse of Technology and Design, power section All SAM Electronics GmbH of a frequency interfaces i n v e r t e r. E a c h “on board” converter section The M1 controller is supplied by an independent transformer with covers all the interfaces required: Modbus its own circuit-breaker. RTU / TCP, PROFINET, CANOpen and SAE J1939 come as standard. “The Modbus UDP Distributed control has protocol was specially implemented for us at major benefits short notice by Bachmann,” explains Hermann The SAM propulsion system controller inteKnirsch, delighted with the excellent cooperagrates the frequency inverters in the ship tion. The controllers can also be expanded with system. For this various remote I/O systems serial, CAN, DeviceNet and PROFIBUS commudistributed over the entire ship are connected nication modules as required. to the controller via fieldbuses. The frequency inverters are run in active standby mode. This Integrated means that the active controller collects the controller library signals and also makes these available to the “Bachmann electronic is a cooperative partner standby controller via Ethernet. If one controloffering excellent technical support on site,” ler fails, the standby system can then take over says Verena Franzen, from Drives and Special all control tasks seamlessly. This approach Systems Technology and Application Design SAM Electronics is a subsidiary of the US company, L-3 Communications. The company is headquartered in Hamburg and has branches all over the world. The company has been developing systems for energy generation and distribution, drive engineering, maritime automation, as well as ship communication and navigation for over 100 hundred years. 31 at SAM Electronics. “The cooperation thus enabled the joint and successful integration of a SAM controller library on the Bachmann system. All the tried and tested functions are thus still available. It offers SAM also the possibility of using other previously unused fieldbus protocols such as PROFIBUS, PROFINET, Modbus/ TCP etc. In this way, components such as the frequency inverters can be integrated even better.” project. The graphical editor enables the creation and visualization of complete functions. The status of signals is very clearly displayed in different colors. Faults can be localized and rectified quickly. This graphical editor is used for maintaining the software of the old and the new system. Partial applications from existing installations that are still implemented on the previous systems can thus be used again easily for new installations. Clearly designed PLC editor New functions: Teleservice The adaption of SAM Electronic’s own PLC editor specially developed for complex applications considerably simplified the work processes for the engineering and commissioning of the first Port Wing Center Bridge I/Os I/Os Starboard Wing I/Os Ethernet fiberoptic redundant I/Os I/Os ECR Panel ECR Panel I/Os I/Os Local Panel Local Panel I/Os I/Os PROFIBUS Converter I/Os Propulsion Transf. Port 1 32 I/Os Shaftline Box Port 1 SAM Propulsion Control PROFIBUS Modbus RTU I/Os Shaftline Box Port 2 I/Os SAM Propulsion Control I/Os SAM Propulsion Control Main Switchboard AFT Generator Control IAMCS I/Os IAMCS Ethernet fiberoptic redundant Modbus TCP/UDP Modbus TCP/UDP Modbus TCP/UDP Ethernet fiberoptic redundant Modbus TCP/UDP Ethernet fiberoptic redundant Main Switchboard FWD Generator Control I/Os SAM Propulsion Control PROFIBUS Converter Converter I/Os I/Os I/Os I/Os Propulsion Propulsion Propulsion Motor Port Motor Port Transf. Port 2 Propulsion Transf. Starbd. 1 I/Os I/Os Diesel electric drive control for a cruise liner: Redundant controller design with the M1 automation system. “Another benefit of Bachmann’s M1 system is the greater CPU performance and range of interfaces compared to the controllers we PROFIBUS Modbus RTU I/Os Converter I/Os I/Os I/Os Shaftline Shaftline Propulsion Propulsion Propulsion Box Starbd. 1 Box Starbd. 2 Motor Starboard Motor Starboard Transf. Starbd. 2 maritime.application One of the two propeller motors in the cruise liner Royal Princess. used previously,” Verena Franzen continues. fault in the power supply: The drive is immediThis enables us to integrate completely new ately activated and runs at the old speed value. functions into the system. “For example, it will This offers additional safety and the availabilbe possible in future ity of the drive is always to access the system ensured in the event of a directly from shore via fault. » Bachmann is satellite. This means that diagnostics can Successful a cooperative be carried out withcooperation – partner. « out having to send with a future out a technician to the Controllers for diesel elecVerena Franzen, ship and that expert tric propulsion systems Drives and Special Systems help can be given to must be able to be inteTechnology and Design, the crew in the event grated simply into the SAM Electronics GmbH of failures,” Verena existing network strucFr anze n d e s cr ib e s tures of the ship, and masthe resulting benefits. ter the increasing require“Software updates or controller adaptions for ments with regard to functionality, safety and refurbishments can thus also be carried out at availability. “With the Bachmann M1 automaa later time from shore without any problem. tion system SAM Electronics has been comThis saves time – and money.” pletely successful in this, ” Hermann Knirsch is convinced. “We therefore aim to continue the Perfect redundancy: cooperation developed from this collaborative hot standby work for future propulsion system projects.” Another new function provided is the ‘hot standby’ function. Thanks to the high-speed Ethernet communication between the two controllers of a drive, the standby controller can be activated quickly in the event of a fault. The standby controller thus takes over as soon as the active controller fails, for example, due to a 33 EVERYTHING IN VIEW AND WELL DOCUMENTED – ALSO ON THE HIGH SEA SAM Electronics implements transient recorder with GMP232 from Bachmann Modern ships are fitted with a large number of electronic systems. These perform control and monitoring tasks and have become indispensable in today’s shipping. SAM Electronics is renowned for its innovative offering in the field of automation for maritime applications. SAM has developed a transient recorder using the GMP232 grid measuring and protection module from Bachmann as the hardware basis. This has resulted in a compact product for the measuring of grid quality on ships. SAM Electronics is a subsidiary of the US company, L-3 Communications. The company is headquartered in Hamburg and has branches all over the world. The company has been developing systems for energy generation and distribution, drive engineering, maritime automation, as well as ship communication and navigation for over 100 hundred years. 34 SAM Electronics is a subsidiary of the US company, L-3 Communications. The company is headquartered in Hamburg and has branches all over the world. The company has been developing systems for energy generation and distribution, drive engineering, maritime automation, as well as ship communication and navigation for over 100 hundred years. All relevant grid variables in view The growing complexity of the electronic infrastructure on ships increases the probability of faults. Finding the cause of the fault is also becoming more difficult. The precise logging of processes is therefore a vital necessity. “A transient recorder monitors and logs all the relevant grid variables on board continuously,” Martin Weichert, intern at SAM Electronics, explains and adds: “This makes it possible for a precise analysis of problems and fault situations to be made. However, a user-friendly and easy to understand software user interface is important here.” GMP232 grid measurement and protection module For drive technology the company relies on the M1 automation system from Bachmann. The engineers responsible chose the GMP232 grid measurement and protection module from Bachmann’s extensive product range to implement the transient recorder. “The high resolution and short response time of the module is outstanding. This therefore considerably simplifies the analysis of sporadic events in the onboard grid,” the intern underlines the benefits of the GMP232. maritime.application » Bachmann stands out for the quality of its modules, their reliability even with extreme conditions and an unbeatable support. « Martin Weichert, Intern at SAM Electronics, Drives and special systems, Technology and Design department The MX213 processor module is used in addition as an interface to the operator terminal. Software with extensive features The transient recorder can monitor up to three currents and voltages simultaneously. “Besides current and voltage values, it is also possible to record the harmonics and their power factor,” Martin Weichert explains. “The rate of change of frequency (ROCOF) is also documented.” The GMP232 comes with two relays. These can be switched to enable a fast response in the event of a fault. “Each event occurring is recorded in a high resolution scope recording,” Martin Weichert emphasizes the most important function of the transient recorder. The settings required for the recording are made in the SolutionCenter in which the recorder is seamlessly integrated. Naturally the user does not need any knowledge of the software since the operation of the transient recorder is menu-driven. The operator interface was created with the Delphi programming language. “The duration of the recording, the sample rate and the pretrigger can be set really easily,” Martin Weichert explains. A manual trigger function makes it possible to view the actual values present. The recordings are stored in Comtrade format, the standard for oscilloscope recordings, enabling them to be exported as required. the delighted intern reports. “Furthermore, Bachmann provides excellent documentation and continuous updates of its modules.” This means that another project at SAM has been successful and represents another milestone in the long partnership with Bachmann. The user-oriented, intuitive operation of the user interface was an important requirement for programming. The transient recorder is integrated in the Bachmann SolutionCenter. First choice for demanding tasks Martin Weichert is extremely satisfied with the collaboration with Bachmann. The good partnership has proved to be successful once again: “The support is simply excellent: We were provided with expert solution proposals and were able to clarify many open issues in advance,” 35 KNOW-HOW IN A TWIN PACK CSI relies on Bachmann technology for its system solutions The Dutch company CSI Control Systems is renowned for its expertise in the field of alarm and monitoring systems for the marine and offshore sector. Successful operation on the market with these kinds of solutions also requires a reliable and powerful hardware as well as extensive knowhow. Criteria that Bachmann electronic fulfills – thus providing the basis for the successful partnership between both companies. This successful combination was received by the market with a great deal of interest. 36 maritime.application 37 The 182-meter ferry Kaitaki is the largest of its kind in New Zealand waters. It is equipped with the latest alarm, monitoring and control system from CSI and Bachmann. The Dutch company CSI was founded in Vlaardingen in 1967. The ten employees are experts in the development and supply of alarm and monitoring systems for marine and offshore applications. Several thousand ships worldwide are fitted with solutions from CSI. 38 Alarm and monitoring systems for marine and CSI. “Bachmann has the necessary know-how offshore applications have to take over several and always offers innovative solutions. Another functions. For example, the level of a ship’s plus point is the fact that they come with all the ballast tanks has to relevant certifications be monitored, and for marine and offsometimes valves shore use, which con» Bachmann has the and pumps have to siderably reduces our be operated. The workload as a small necessary know-how reliable functioning company.” and always offers innoof the drive must vative solutions. also be guaranteed. Fast, robust CSI has already and affordable Their products also supplied thousands Ronald Epskamp, sechave the necessary of ships and custor manager at Bachcertification. « tomers worldwide mann, knows how with the systems important certificates required for these are: “175 Bachmann Antoinette Willemsen, tasks. “We have modules have already Director Business Development at CSI been placing our been certified by DNV trust in Bachmann GL and other instituas a reliable partner tions for use in critifor the hardware cal applications in the for around two years,” says Berry de Krieger, marine and offshore sectors.” Bachmann stand senior service engineer and co-owner of CSI. out on account of its fast delivery, competitive prices and the robust quality of its modules. Innovative modules “Another plus point is their speed,” a delighted from Bachmann Berry de Krieger explains. The response time Bachmann mainly supplies CSI with I/O modwithin the CSI system is no more than ten ules. These are used to integrate a number of milliseconds. “In the event of an emergency different sensors and actuators into the conshutdown of the main engine or if a bearing troller. “The main reason for our partnership is overheats, this is extremely important,” de the fact that the further development of these Krieger adds. Several alarms mostly occur at modules is very quick,” explains Antoinette virtually the same time. In order to reconstruct Willemsen, director of business development at the event so that the cause of the fault can Wheelhouse 19" Touch Screen 24Vdc LMS3 Valve Control 24Vdc 24Vdc Network Switch maritime.application Group Alarm Units 17" Touch Screen LMS4 56 Digital Inputs 8 Digital Outputs Network Switch 128 Digital Inputs 96 Digital Outputs 16 Analogue Inputs HCR Aft. 19" Touch Screen Network Switch Cabin Units 8597 19" Touch Screen 24Vdc 24Vdc 24Vdc Network Switch Cabinet ER Aft LMS2 Cabinet ER Aft LMS1 HCR Fwd. 19" Touch Screen 10" wide Flatpanel pc 24Vdc 10" wide Flatpanel pc 24Vdc 230Vac Log printer 19" Touch Screen 32 Digital Inputs 10 x Terminal board Analogue 8 x Terminal board Digital 12 x Terminal board Analogue 4 x Terminal board Digital I /O Unit Alarm, monitoring and control system ready for many safe journeys after the retrofit. Bow Thruster Room 24Vdc 24Vdc Fiber Optics Ring Engine Control Room Ethernet over Fiber UTP ethernet Cat5E be found, a fast and correct recording of the relevant data is needed. “Only in this way is it possible to rectify problems swiftly and effectively,” the experienced engineer summarizes. Positive response of the market The partnership between CSI and Bachmann has attracted the attention of the market. Croon Elektrotechniek, a company based in Rotterdam and one of the largest Dutch companies for the electrical equipment of ships, is already using the system solution of the two companies: “We will be using the alarm and monitoring systems of CSI and Bachmann from now on,” confirms Piet Faasse, technical manager for marine & offshore at Croon. This kind of recognition is very important for the companies involved. “The margins in the shipbuilding and shipping industry are very small. Only companies that can supply robust quality at a competitive price are considered,” Antoinette Willemsen elaborates and adds: “Together with Bachmann we have been successful here, as shown by the feedback from our customers.” For CSI the partnership has definitely been a gain: “For us a long-term collaboration with Bachmann is a simple decision.” » Delivering robust quality products worldwide and at a competitive price is a powerful sales argument. Together with Bachmann we can do this successfully. « Berry de Krieger, Senior Service Engineer at CSI 39 40 maritime.application SAFELY THROUGH THE FOG Bachmann solves complex control loop tasks on ships The requirements placed on a ship’s crew are extensive and also extremely demanding. Today many of their tasks can be taken over by state-of-the-art technology so that the crew can concentrate on the more essential tasks. The Institute for System Dynamics at the University of Stuttgart is developing for this high-performance closed-loop and open-loop control concepts, which are also suitable for the automatic track keeping of inland shipping. For this Bachmann electronic supplies the M1 automation system, thus offering a highly available solution that is certified for maritime applications. 41 ‘3G Navigation’ is part of the Technology Transfer Initiative (TTI) of Stuttgart University. Under the cover of TTI GmbH, small independent companies can be formed with their own cost center. 3G Navigation was brought to life in November 2010 with the objective of marketing automation concepts for shipping that were developed at the Institute for System Dynamics. A wide range of closed-loop control tasks are involved on a ship. In order to relieve the work for the ship’s master on the bridge, even complex tasks such as automatic track keeping or maneuvering control, which require a high degree of precision, can only function reliably with sophisticated technical systems. The M1 controller from Bachmann offers here the ultimate in performance and reliability: As it already comes with the certification needed for the sector, it is ideally suited for applications in the demanding shipbuilding industry. Wide range of functions skillfully bundled A number of different concepts for shipping have already been implemented with Bachmann hardware at the Institute for System Dynamics of Stuttgart University. These are marketed under the blanket name ‘3G Navigation’, a company founded within the framework of the Technology Transfer Initiative TTI (see margin text). “The propulsion control for example is being used daily on five cruise liners and six more will be implemented in the next few months,” explains Alexander Lutz, founder of 3G Navigation and research associate at the Institute for System Dynamics. Between two to four diesel engines, each with a rudder propeller, are individually controlled here by separate drive controllers. These are distributed in two control cabinets in the machine room and control center. A Bachmann MX213 processor module forms the core of the automation solution, and is equipped with various digital and analog I/O modules as well as a CAN module. Precision: Using the results of the position calculation, the track keeping system is able to detect deviations from the ideal course. From this the control algorithm forms manipulated variables for the rudder and keeps the ship on track. 42 “We have installed these elements in the control center. Even in the machine room with high temperatures and severe vibration, the M1 system is the ideal solution. Here we use the robust DA3284-C CAN module,” explains Alexander Lutz. Functions such as the monitoring of the universal drive shaft or teleservice are also provided. “The open structure of the Bachmann controller is a real benefit to us here. The number of interfaces available makes it possible to implement special functions on diesel engines without any additional effort, such as the J1939 diagnostic interface,” Alexander Lutz emphasizes. All systems are tested from top to bottom at his institute prior to installation on a ship. For this the engineers have a hardware in the loop simulator (HIL) at their disposal. State-of-the-art navigation A current project is the implementation of automatic track keeping on a Bachmann controller. “As a higher-level closed-loop control module, the track keeping function enables the automatic guidance of a ship along nonlinear tracks or lanes,” Alexander Lutz explains. The navigation system basically has to detect where it is, where it wants to travel to and control the rudder system accordingly. “An intricate problem, since rivers take a winding course through the land and their frequent fast currents present a real challenge, particularly when there is shipping in the opposite direction,” explains Alexander Lutz. The automation system has to offer the appropriate level of power since complicated mathematical models process maritime.application » Our tasks need maximum computing power. Bachmann also offers the openness of the M1 system and optimum availability. « Dr. Ing. Alexander Lutz, Founder of 3G Navigation and research associate at the Institute for System Dynamics at the University of Stuttgart information from GPS, radar, turn indicators and other relevant ship data into logical rudder commands. Alexander Lutz summarizes: “The core of the calculation is a model-based closed-loop control concept that combines the ideal route with the knowledge about the ship’s behavior. In this way, the ship follows the set track precisely and does not move in an uncontrolled fashion on the river.” consumption,” Dr. Lutz explains. “We are currently working on transferring the automatic track keeping system to a separate Bachmann controller,” adds Alexander Lutz. “We are also certain here that we can combine maximum computing power with total flexibility and optimum availability.” More efficiency, more safety Saving fuel This can also be combined with the cruise control system currently under development. This regulates the engine speeds for minimum fuel consumption. For example, the speed is reduced if the ship encounters increased resistant due to shallow river sections. “In such cases, higher engine speeds result in virtually no increase in speed. It only increases fuel Teleservice Applications Cruise control Maneuvering control Autom. track keeping Autopilot Alarm system Applications The benefits of automatic track keeping are obvious: The advance calculation of movement variables enables rudder operation to be kept to a minimum. This also reduces the fuel required. “However, automatic track keeping particularly offers an impressive benefit in terms of safety: The ship’s master can concentrate fully on waterway traffic,” Alexander Lutz explains. “Any disturbing water reflections, thick fog or blinding lights in the night are finally no longer a problem.” In order to provide the ship’s master with a constant overview, a map showing the waterway and the river bank in appropriate colors combined with the current radar image, is displayed on the monitor. The route through the channel, the shipping lane, is shown in black. The set course, composed of the lane and a possible lateral offset, are overlaid in red. Additional information, such as river kilometers and speed, is shown at the side of the screen. Condition monitoring Emergency operation Drive control Diverse closed-loop control tasks on a ship: M1 automation systems not only handle the drive control that has to be implemented separately for each unit consisting of engine and propeller. Monitoring functions, maneuvering control, track keeping and the autopilot are also controlled by powerful M1 solutions. 43 TANK MANAGEMENT WITH SAFETY Reducing complexity on board and increasing efficiency Market conditions are forcing shipping companies and ship owners to achieve greater efficiency with a reduced crew on board. A safe and reliable controller and monitoring system are therefore essential. Wilhelm Sander Fertigung (WSF) has developed SANSYS and the associated SANVISU operator interface, a new integrated valve control and tank management system for ships that was type tested and certified by GL. In the event of a disconnection or a failure of the main components, SANSYS provides universal redundancy and network redundancy. The system is made up of solutions from the portfolio of Bachmann electronic. The trading company was founded in 1926 and Wilhelm Sander has had its own production since 1984. The Bremen-based company initially concentrated on valves and drives and is now a system supplier of remote control systems for ship valves for the shipbuilding and offshore sector. The system is what WSF GmbH calls its ‘Task Carrier’: It gives the user complete control of the entire tank management of the ship or installation. SANSYS supplies reliable information about tanks – whether they are filled or discharged – as well about valves and pumps – whether they are working precisely. It also supplies the crew or the owner with information about the tank contents, temperatures and pressures. Single or redundant controller configuration The company, which is based in Bremen, Germany, uses the powerful MPC240 and MC200 controllers from Bachmann for the implementation. This can be designed either as a single or a redundant system. The use of a redundant control system for the WSF application can be designed for both network and CPU hot standby redundancy. The implementation is also straightforward since the hardware components and the application software are identical for a single and redundant system. With 44 CPU hot standby redundancy, both masters run synchronously. Bumpless switching is executed and updates can be carried out whilst the system is running. The software hot standby redundancy consists of an automatic system comparison as well as a time synchronization and automatic failover. Network redundancy provides protection from failures in the communication structure with a switchover time that is shorter than a PLC cycle. It features an integrated diagnostic function for the status and quality of the network connection and can be used for both cyclical and acyclical communication. Maximum safety for customers The controller is used together with the robust input and output system (IO system) consisting of densely packed I/O modules that are a match for the harshest environmental conditions in the offshore sector. “Bachmann supplies a redundant system with standard components that offer our customers maximum safety,” says Klaus Milde, technical manager maritime.application at Wilhelm Sander Fertigung. The on board power supply is also redundant in order to prevent failures and can be switched to manual or automatic. All devices are also protected from overvoltage. Further options for more functionality SANSY can communicate with other systems such as a loading PC or an alarm and monitoring system (AMS) using the interfaces provided and those established in shipbuilding. Remote maintenance is carried out using secure Internet connections or with a local update of the application using a memory card (PC, CF) or standard USB stick. Several applications can be run in parallel and autonomously using the Bachmann controller. Water ingress detection and/or condition monitoring can be added as an option to standard applications such as valve control, anti-heeling, tank content measuring, pump control, simulation, deck lighting and fan cooling if required. Condition monitoring, for example, can be used to give early warning of wear on actuating elements such as valves (flaps) and pumps. “Thanks to the extensions possible, we are well equipped for the future and can expand our portfolio without having to change the existing application,” says Klaus Milde. The SANSYS can also be controlled and the on board settings accessed from a remote workstation far away from the ship. Simple handling thanks to the Project Manager The PLC programs required are created by 45 The dialog window parts list system dialog displays the drawing of the selected device and the spare parts list, and enables the crew to order the correct spare part quickly and in a targeted way. The dialog window manual valve system dialog shows the operating instructions for the selected valve, when clicking on the tool icon. This shows the maintenance personnel how to change the modules. project designers and service technicians using the Project Manager of Bachmann’s Maritime & Offshore Essentials (MOE). “The Project Manager enables us to automatically generate our PLC software error-free in a short space of time,” Klaus Milde, technical manager at WSF, highlights and adds: “Objects such as valves, pumps and tanks can thus be created in a library and automatically linked with the PLC variables.” Frequently used valve movements with activation sequences, delay times and the activation of the required pumps can be defined so that the ship’s crew can call them up and start them. This application offers greater convenience and safety. “Thanks to the Valve Editor we can meet customer requirements right up to shortly before shipment,” says Klaus Milde and adds: “All project-related data can be parameterized. No reprogramming is required for individual fine tuning.” An OT200 operator terminal is installed in the control cabinet door in the machine room to allow local operation. All Bachmann products come with the necessary shipping approvals such as Germanischer Lloyd (GL), Lloyd’s Register of Shipping (LR), Det Norske Veritas (DNV), American Bureau of Shipping (ABS) and Bureau Veritas (BV), as well as the SANSYS and SANVISU systems. Visualization – locationindependent and scalable » Several applications can be run in parallel on the Bachmann controller. We are thus well equipped for the future and can add condition monitoring, deck lighting and water ingress detection to our portfolio without having to change the existing application. « Klaus Milde, Technical manager, Wilhelm Sander Fertigung GmbH 46 The associated SANVISU visualization system provides the operator interface for controlling and managing all SANSYS functions. Here also, the Bremen based company relies on a product from Bachmann and uses the atvise SCADA system. “The innovative and scalable visualization system and a browser, or if required Apple and Android apps, enable me to have my alarms, tank content data and more instantly in view,” Klaus Milde says. From the bridge or from the ship’s office, I can access the web application with a standard browser from any location and from any device. The installation of any additional software is unnecessary. Thanks to the vector graphics (SVG) used, the application is scalable without any loss and can maritime.application Network 1 Network 2 BRIDGE SHIP'S OFFICE Tank measuring with SANSYS is carried out as follows: Geometric data for the tanks as well as other ship-related parameters from the tank list of the shipyard, the so-called sounding list, are read in by the Bachmann controller in the form of a CSV file. The auto configuration of the individual tanks through the read operation is a key element in the standardization of the application program. Changes to the PLC source code thus become unnecessary since any adaption is carried out by inputs via the operator interface of the visualization. The reading in of a file containing the tank data saves any labor-intensive and error-prone editing of tank lists during commissioning in the shipyard. Data from the fuel system can for example be transferred to the ship owner’s cell phone. The systems from WSF also come with a type approval from the well-known shipping classification societies such as GL, DNV and LR. Wilhelm Sander Fertigung offers its customers a service for remotely monitoring systems by its qualified personnel in order to suggest targeted measures in response to changes. For this the system status is transferred to the Bremerhaven company for analysis. In recent years, the company has produced a number of innovations and further developments. From the former trading company, WSF, with its engineering, service and consulting portfolio, has grown to become a system supplier for ship building and the offshore industry. Loading computer Modbus RTU Remote maintenance MACHINE CONTROL ROOM Convenient tank content measurement Integrated tank management CPU redundant NMEA Modbus RTU Modbus RTU GPS AMS Res. MACHINE ROOM be adapted to any screen size – regardless of whether this is for a laptop, a tablet or a smartphone. The zooming of the details of all ship areas can be carried out without any problem. The SANSYS dialog windows provide operators and maintenance personnel with a particularly convenient multi-lingual feature. The SanSys manual system dialog explains the user interface, enabling new crew members to familiarize themselves with the system. Clicking the icon in the manual valve system dialog shows the operating instructions for the selected valve. This shows the maintenance personnel how to change the modules. Clicking the information icon displays the drawing of the selected device and the spare parts list (parts list system dialog). The crew can order the correct spare part quickly and in a targeted way. The relevant documentation is always provided at the correct point, thus preventing panic and misunderstanding on board in the event of a fault. 1-man bunker station 47 INNOVATION THROUGH COLLABORATION Joint development of redundant and fast controllers 48 maritime.application The Bakker Sliedrecht (Netherlands) engineers and the software developers of Bachmann electronic have developed a fully redundant solution based on the Bachmann M1 PLC. The secondary CPU (slave) takes over system control “bump-free” from the primary master CPU within one cycle. Furthermore, all data for the higher-level BIMAC alarm and monitoring system is available within the required 50 milliseconds. The next expansion stage is already planned: The first concepts for the development of a real-time update in less than 20 milliseconds already exist. The reason behind the development of this cooled drives from Bakker. Furthermore, with fast redundant control system was the technithe dynamic positioning system, they ensure cal planning of the Boskalis cable ship. Bakker that the cable ship is brought to the exact Sliedrecht has already had similar assignments position required and is also kept there.” After several times before. However, this time they all, stringent requirements are placed on the faced a new challenge: the design of a redunaccuracy of cable laying on the ocean floors. dant control system Interruptions in for the power supthe power supply system, based ply are there» The network is fully on standard compofore absolutely nents, suitable for i m p e r m i s si b l e redundant – despite the standard Ethernet since they can fact that only standard and with sufficiently result in an components have been fast cycle times. interruption of the entire offused. This is vitally Maximum shore operaimportant for maritime reliability tion and must applications in particular. « required therefore be The challenge was to prevented at all create a redundant costs. This has Bachmann automathus resulted in Anthon Knoops, tion solution. Why, the need for a Manager Engineering Automation however, was this so redundant conbei Bakker Sliedrecht important for Bakker trol and moniSliedrecht? Anthon toring system. Knoops, head of “Since we have engineering, explained: “Our customer requires already been working with Bachmann controlthe highest possible reliability for the control of lers for approximately four years, we contacted the propulsion systems. This cable ship has four them for a solution,” Anthon Knoops explained. diesel generator sets that provide a combined “Since they work with standard Ethernet and power of 7.000 kW. These power and control use no dedicated control systems, their PLCs the four azimuth thrusters and multiple moorare perfectly suited for our applications,” ing and anchor winches via four directly waterKnoops continued. Bakker Sliedrecht Electro Industrie B.V. was founded in the Netherlands in 1919. The company plans, develops and implements electrical engineering solutions in the maritime and industrial sector. Maintenance, technical acceptance and repair work complete the portfolio of the company. 49 The new N class ships sail safely with the redundant Bachmann M1 controller. Redundant network structure The networks on board of the cable ship consist of a standard Ethernet configuration that is laid out as a double ring of fiber optic cable. The various devices are connected to this double ring, including the remote IO modules and drives. The protocol used is Bluecom, Bachmann’s Ethernet protocol. All network devices can be connected to this without any additional effort. “The network is fully redundant – despite the fact that only standard components have been used,” Anthon Knoops explains. A key decision factor for Bakker was the fact that Bachmann control systems are approved by agencies such as DNV, Lloyds and Bureau Veritas: “This is vitally important for maritime applications in particular,” Knoops elaborates. Real-time protocol enables coupling of CPUs “The people at Bachmann responded to our requirements very positively. We started to work with them on the development of the redundant control system in a very relaxed and open collaboration,” Anthon Knoops recalls. The connection of all substations and the two master CPUs is based on a highly accurate time synchronization. If one of the CPUs is stopped, the other CPU takes over the program within one PLC cycle. “We know from tests that all tasks are executed error-free,” Anthon Knoops confirms. “The system as a whole is undergo50 ing final testing in a Super Factory Acceptance Test at Bakker Sliedrecht.” First-class products through collaboration at the highest level Sander Doolaege, automation engineer at Bakker Sliedrecht is delighted: “This redundant control system really is unique. Bakker Sliedrecht is the first company to use this control system in a project.” The redundant control system is combined with the BIMAC alarm and SCADA system from Bakker. “We have also developed the necessary drivers for this. The result has been very successful. We have now reached a point where we only have to take care of some minor adjustments,” Sander Doolaege says. “Of course, this has only been possible thanks to the excellent collaboration between the people at our company and the Bachmann team. The Bachmann engineers are good listeners: They give us the opportunity to explain and specify our requirements fully. They then swiftly implemented our suggestions and ideas.” The partnership particularly benefited from the direct and personal contact between the engineers at Bakker and the software developers at Bachmann. “We are growing together and are thus able to meet even major challenges,” Sander Doolaege summarizes. This means that both sides benefit from the results of their collaboration. maritime.application » The Bachmann engineers are good listeners: They give us the opportunity to explain and specify our requirements fully. They then swiftly implemented our suggestions and ideas. « Anthon Knoops and Sander Doolaege, Automation engineers at Bakker Sliedrecht Visualization of the power supply system, Bakker Sliedrecht’s BIMAC system. The four generators which reliably provide power for the thrusters and the anchor and mooring winches are shown in a redundant configuration. Overview of the cable ship’s onboard network. 51 REVOLUTIONARY PROCESS IN SHIPBUILDING Model-based simulation with Bachmann hardware Propulsion control systems for ships normally undergo factory testing or are tested with prototypes during commissioning. As these systems are becoming increasingly more complex, complete testing within a limited period of time is difficult. Bakker Sliedrecht has joined up with Bachmann electronic and Controllab to create a new model-based simulation process. The first ships, including the cable laying ship Ndurance, were tested with the new process – with great success. Bakker Sliedrecht Electro Industrie B.V. was founded in the Netherlands in 1919. The company plans, develops and implements electrical engineering solutions in the maritime and industrial sector. Maintenance, technical acceptance and repair work complete the portfolio of the company. Typical testing procedures in shipbuilding are mostly very complex. New approaches are therefore in great demand. “We were on the lookout for new options because the demanding requirements of the ship’s operators are particularly increasing the complexity of the control and monitoring systems. A reduction in diesel and energy consumption is required whilst maintaining maximum availability at the same time,” Anthon Knoops, manager of engineering automation at Bakker Sliedrecht summarizes. “Normal test procedures are no longer satisfactory here.” Together with Bachmann electronic and Controllab, we created an environment that linked a virtual model with the actual propulsion control system. All signals are exchanged between the systems. The benefits are obvious: The test engineer sits at his desk and can perform all the tests via the Bakker Integrated Modular Alarm Monitoring and Control System (BIMAC). “Far more scenarios can be run through on the virtual model than with onsite testing,” Anthon Knoops emphasizes the benefits of simulations. 52 Dynamic design process The new implementation of BIMAC also makes a new kind of design possible. “What has for a long time been standard practice in mechatronics we are now introducing in the shipbuilding sector. Instead of using fixed CAD models, we develop a dynamic model that is adapted to requirements during the design process,” explains Paul Weustink, manager of industrial projects at Controllab. Continuous testing enables faults to be identified already during the design phase and the architecture of the controller adapted accordingly. The powerful, modular M1 controller system from Bachmann electronic provides here the ideal basis: This uses standard interfaces and the system is intentionally designed as an open system. This makes the transfer of customized programs effortless. Revolutionary Procedure in Shipbuilding BIMAC has proved to be an ideal solution in practical applications: Bakker Sliedrecht was given the order from Shanghai Zhenhua Heavy maritime.application The giant cable drum on the Ndurance. Industries Co. Ltd (ZPMC) for equipping the new companies to do far more than functional testN class ships of excavator specialists Boskalis ing. “In future we will be able to show clearly with the most important electronic systems. what happens in the entire grid in the event of The order comprised the planning and supply a fault and how such faults can be prevented. of the control cabinets, the multi-drive sysThis not only applies to electronic components tems for the motors and winches, as well as but even mechanical components,” Ronald the controller system based on BIMAC – impleEpskamp stresses. mented with the Bachmann M1 conEfficient troller. Even before solution » Far more scenarios can the cable laying Model-based simship was launched, ulation makes it be run through on all relevant tests possible to save the virtual model than is could be carried time and money possible with testing out in accordance for development with the stringent p r o j e c t s: T h e on site. « r e quir ement s of construction of the cer tif ication expensive protoAnthon Knoops, and classification types for test purManager Engineering Automation bodies. From their poses is no longer at Bakker Sliedrecht headquar ter s in necessary. Tried the Netherlands, and tested conthe engineers at troller and drive Bakker Sliedrecht could test the azimuth drives models are then available for later use with of the ship, couplings, gears and diesel gennew design tasks. The early testing enables erators. The availability of the onboard grid electronic and mechanical components to be and the adherence to the strict redundancy selected precisely to requirements. All this requirements, particularly with regard to the saves costs and thus reduces the overall budautomatic control of the ship using dynamic get for shipbuilding. “We are happy that our positioning, were also successfully tested. “A efforts have been worthwhile,” says a delighted large number of certification and approval bodAnthon Knoops. “In Bachmann electronic and ies were interested in the results, so that they Controllab we have found some competent could use the test procedure for their own purpartners with whom we have jointly created poses in the future,” Ronald Epskamp, marine an innovative and as yet unique system in the sector manager at Bachmann, explained the shipbuilding sector.” significance of the project. BIMAC enables the The installed M1 controllers provide a constant stream of information on the bridge about the onboard systems via the BIMAC system. Controllab was founded at the University of Twente, Netherlands, in 1995. The company develops and sells simulation software for industry and shipbuilding. 53 STRAIGHT TO THE TARGET M1 system as target for 20-sim 4C Controllab Products B.V. is a company based in Enschede, Netherlands, and was founded in 1995 as a spin-off of the Technical University of Twente (NL). It is a specialist in complex closed-loop control tasks. The Bachmann M1 automation system was implemented as the first industrial PLC to be the target for 20-sim 4C, the compiler environment of its 20-sim modeling and simulation program. Controllab Products B.V. is a company based in Enschede, Holland, and was founded in 1995 as a spin-off of the Technical University of Twente (NL). It is a specialist in complex closedloop control tasks. The 20-sim graphical modeling tool can be used to simulate dynamic electrical, mechanical or hydraulic systems or combinations of them. Open libraries, that allow the equations behind the block diagram elements to be viewed and adapted, directly support the user for more efficient modeling. Different toolboxes for carrying out tests in the time and frequency range, for designing control structures or for creating three-dimensional mechanical models and their animation ensure the considerably user-friendly design and simulation of even complex systems. “This enables systems to be optimized very simply in terms of speed, vibration and robustness,” emphasizes Christian Kleijn, CEO of Controllab Products B.V.. From the simulation directly onto the PLC » I can now copy the simulated model directly to the PLC which controls the actual installation. « Tjeerd Heeringa, Vibration and Control consultant Heeringa Engineering 54 20-sim 4C establishes the connection of 20-sim models with the physical system and makes it into a time and cost saving tool for rapid prototyping. Thanks to the outstanding collaboration between the development teams of Controllab and Bachmann, Bachmann’s new M1com communication library can now be used to export the C code created from the 20-sim model directly to the Bachmann M1 system without any intermediate stages. The result is a success that can’t be ignored In 20-sim 4C the input and output variables of the model simulated and analyzed in 20-sim are connected directly with the channels on the corresponding M1 hardware modules. The entire configuration is then compiled and loaded onto the M1 controller. In this process, the M1com is used to maritime.application automatically copy the executable *.m file onto the PLC and install the software module in the mconfig.ini file. The 20-sim 4C user interface is used to start (and stop) the application, monitor and log the relevant variables, and modify the parameters online. All parameters of the software module are also available as SVI variables and can thus, as is usually possible in the M1 system, be embedded in other tasks (M-PLC, C/C++, Simulink®, etc.) or also in user interfaces implemented with M-JVIS. Successful users The Dutch company Royal Boskalis Westminster N.V. is an international service company that is active worldwide in 65 countries in the field of maritime infrastructures, dredging and earth moving, as well as in terminal services. Tjeerd Heeringa, senior project engineer at the company, has been working with the 20-sim modeling and simulation tool for over 15 years. He is particularly delighted with the possibility it offers to create bond graph models. This enables him to link electrical, mechanical and hydraulic systems in a model without having to deal with the descriptive equations behind them. “The ability to combine different systems in one model, to clearly display complex systems, and to determine the power flow directly are a great benefit when simulating controllers used on dredgers,” explains Tjeerd The dredger “Waterway” Heeringa. He is pleased with the integration of the Bachmann M1 as a target for 20-sim 4C: “I can now copy the simulated model directly to the PLC which controls the actual installation.” 20-sim from Controllab: Efficient modeling and simulation with a direct connection to the M1 automation system. 55 56 maritime.application ON THE TRAIL Monitoring fuel consumption in diesel engines DIMAR-TEC Pte. Ltd. is headquartered in Singapore and is a specialist in the servicing and predictive maintenance of diesel units in shipbuilding, offshore applications and onshore plants. The company has developed the Fuel Efficiency Controller (FEC) based on Bachmann’s M1 automation system: A solution that ensures ship operators the most effective output yield of the operating system. 57 DIMAR-TEC offers sensors and technical services for optimizing the output of ships engines. Ship diesel engines run on fuel oil. Unlike gasCharacteristic values oline or engine diesel, the composition of fuel measurable for the first time oil varies and therefore the energy content as With 10 to 15 sensors located at different points well. From this it is possible to calculate its calon the ship’s drive system, the Fuel Efficiency orific value using the specific density, and also Controller therefore measures these backthe fuel consumption ground parameters of a ship based on the at which the diesel engine specifications. engine is run. “The » This simplifies the “The engine manuFEC enables us to facturers determine make different charinstallation of the the SFOC value based acteristic variables systems worldwide on the international really measurable enormously and helps ISO3046-1 standard for the first time and under defined operatpresent them in real to keep commissioning ing conditions for the time in relation to and service costs engine,” Olaf Kuss the specified data,” for the customer to a explains the current Olaf Kuss explains. situation. Besides the The shipping comminimum. « density of the fuel oil, pany can therefore Olaf Kuss, CEO, the air pressure, the assess consumption DIMAR-TEC Pte. Ltd. ambient temperature values very accuand coolant temrately or compare perature, as well as the data with the many other parameters have to be taken into data of other ships. This makes it possible to account. However, an evaluation of the condraw relevant conclusions and take these into sumption data is prone to error if these are not account in day to day operation and during set for a specific ship and only based on theoregular ship maintenance. The system layout retical consumption values calculated accordand the parameterization of the FEC is carried ing to the standard. The maritime sector is not out by DIMAR-TEC for the specific ship. Taking yet aware of the fact that these errors can vary the sensor tolerances on board into account between 10 to 25 % in magnitude. ensures further optimization as well as the accuracy of the overall system and the output values. System openness and flexibility in demand Meaningful graphics allow operation at the ideal engine operating point and thus the optimization of fuel consumption: Display of the shaft power as a function of engine speed. EC in Ser vice mode: Simple setup of the ship parameters. The development of the FEC involved the meeting of some complex requirements with regard to operator guidance, flexibility of the requests and the evaluation of measured data. The unrestricted assignment of I/O signals and measuring points is a fundamental requirement here in order for the system to be used in different maritime peripheral environments. “This is important since the FEC is required to ensure the measuring and presentation of reliable consumption data on different types of ships, irrespective of the particular I/O assignment,” Olaf Kuss describes one of the key requirements for the system. Safe and straightforward parameterization and operation In collaboration with Bachmann electronic, the software specialists at Reinholz Software & Technology GmbH in Itzehoe developed a special feature for this based on the M1 automation 58 maritime.application system: free I/O assignment. “All input and output signals can be assigned individually via a WT205 web terminal or through FTP access without the operator having to intervene in the PLC program,” Karsten Reinholz describes this service oriented function. Users can thus work safely and simply with the system without any knowledge of programming. “This simplifies the installation of the systems worldwide enormously and helps to keep commissioning and service costs for the customer to a minimum,” Karsten Reinholz continues. A special service mode for the software protects particular ship parameters and prevents operator errors made by the crew. Consumption optimization in sight “The FEC based on the Bachmann automation system enables a very accurate assessment of the efficiency of the propulsion system for the first time,” DIMAR-TEC boss, Olaf Kuss, explains. However, he is also targeting the next potential optimization factors, since fuel consumption per nautical mile not only depends on the optimum efficiency of the engine. Many parameters, from propeller efficiency, to rudder setting, trim and draft of the ship, right through to the mussel fouling on the hull have Ethernet / » Using the Bachmann M1 as a basis we were able to develop a system with a flexibility and service friendliness that was previously unachievable. « Olaf Kuss, CEO, DIMAR-TEC Pte. Ltd. an effect on the power at the shaft and ultimately the resulting speed of the ship. The next project involves the measuring of these variables and their presentation for the assessment process. Ideal hardware platform: M1 automation system as the core of the FEC. / Modbus TCP 5.7” web terminal RS 232 / 422 / 485 / Modbus RTU Analog / ISDN Ethernet Commissioning in half the time with the Scope function 59 ALWAYS ON THE RIGHT COURSE Powerful ship controls with the Bachmann M1 system Schottel has become the market leader in the field of ship propulsion systems on account of its continuous further development of products, its insistence on the highest quality standards, as well as its worldwide presence and proximity to the customer. In order to meet the more demanding requirements placed on the control systems, Schottel has recently started to rely on the Bachmann M1 system. The product line ranges from thrusters up to 1.4 MW to fully controllable rudder propellers up to 6 MW, right through to complete propulsion systems up to 30 MW. Schottel has been developing and producing propulsion and maneuvering systems for ships of all sizes, application fields and waters for over 50 years. With over 800 employees worldwide, the company manufactures a wide range of rudder and control systems. 60 Some time ago Schottel decided to extend and optimize its Masterstick control system. This was because of the increased demand on the computing and processing speed of the controller and the resulting need for increased CPU performance. This was previously not fully achievable with the system used. operator console (panel) the captain can select different drive and control modes as well as other options. The console also serves to provide the captain with different visual information. Masterstick – the simple way to steer a ship The requirements placed on the new control system were very high. After intensive searching and comprehensive tests, Schottel decided to go with Bachmann’s M1 system. “The high computing power, the compact and robust design and the total openness of the M1 system absolutely impressed us,” explains Christian Böttinger, project manager for the Masterstick at Schottel. This enabled the company The Masterstick is a control system that can control up to 6 ship propulsion systems at the same time. The drive thrust and ship’s direction are controlled in combination by a joystick. The ship’s direction of movement is a result of the movement of the joystick. The degree of deflection determines the thrust. Using an Performance – robustness – openness maritime.application to implement a quick migration and meant considerable savings in time and costs: The complex control systems that already existed in C-code could be integrated into the software of the new controller simply and quickly without any major changes. High computing power required A further challenge to the ship’s steering is the implementation of the extremely complex and computing intensive controller for the “Auto-heading” function that automatically maintains the ship’s course. To do this, a quick and precise piloting of the drives is required, which permanently reads and calculates information from a compass that is attached to the automation system. The results from the calculation are then continually transferred in turn to the manually preset course so that the selected course is always held. The difficulty with all of this is in assigning the manipulated variables to the drives in real-time, according to the ship and drive specific parameters. To do this the drive’s actual values such as the steering angle, pitch signal (the propeller’s pitch control) or the rotation speed must be taken into account in the calculations in addition to the compass signal at all times. The control of the port and starboard swaying of tugboats presents a similarly complex problem. This too requires real-time computing power. If a drive fails, an optimal heading must still be precisely and quickly determined, especially when towing 61 » The decision to go with the M1 system was the right one. « Stefan Buch, Manager Electric and Electronic Development, Schottel integrated web functionality of Bachmann’s CPU also impressed Schottel. “We were thrilled with how fast visualizations could be generated and saved to the processor module’s compact flash card as a Java applet using Bachmann’s SolutionCenter,” says project leader Böttinger. With systems that are not equipped with a touch panel, a standard web browser allows for access to these applets. “These access possibilities and the security standards right up to the SSL encryption also greatly ease and simplify remote maintenance,” Christian Böttinger adds. Brilliant functionality ships for example into a harbor, which requires an extremely high degree of maneuverability. Impressive range of features The extensive array of interfaces on the MX213 CPU allow an extremely slim design of the required controller hardware. This allows the compass to be directly connected to the CPU via one of the integrated RS232 interfaces. Because the processor module can operate up to eight different CAN buses, the six important drive systems can also be operated directly without further intelligence. The The Masterstick: Simultaneous control of six ship propulsion systems. 62 Beside the high performance, the range of interfaces and the robustness of the system, the Schottel engineers appreciate the powerful SolutionCenter engineering tool. This enabled the Masterstick project to be implemented on a standard controller system in a very short time. The key benefit was the fact that Schottel’s core expertise in closed-loop control technology, which had been collected over many years and resulting in a large number of tested closed-loop control C routine modules, could be ported easily and efficiently onto the M1 controller. Schottel’s control engineers were maritime.application Gyro Compass Wind Sensor AFT Panel (group 4) Visualization Masterstick Ship Ethernet (LAN) RS232/ RS485 RS232/ RS485 router LAN STB Panel (group 3) PS Panel (group 2) CAN 24V DI Main Panel (group 1) CAN CAN Global propulsion CAN system connector plug 1 Switchbox 1 Switchbox 2 Switchbox 3 Switchbox 4 Switchbox 5 2 3 Switchbox 6 CAN Portable Panel (group 5) The high performance and the wide range of interfaces allow an extremely compact design for the ship’s control system. also impressed by the integration of MATLAB®/ Simulink® into the M1 system, which dramatically saved time during calibration. “Last but not least, the excellent and competent customer and application support from Bachmann engineers confirmed to us that our decision to go with the M1 system was the right one,” Stefan Buch, manager of Electric and Electronic Development at Schottel, sums up. 63 The Bachmann M1 automation system – packed in a pressure tube for use at great undersea depths. 64 maritime.application 2,500 METERS UNDER THE SEA Bachmann controller in the ROV (underwater robot) The Dutch company, Seatools b.v., offers complete solutions for nearly all underwater industrial applications. For several years the company has been employing the Bachmann M1 automation system in its installations. Before the customized individual solutions are constructed, their functionality has already been tried and tested in extensive simulations in the company’s development center in Numansdorp, a few kilometers south of Rotterdam in the Netherlands. In addition to the robustness of the system, the Seatools developers particularly appreciate M-Target for Simulink®, with which they generate the program code for the Bachmann controller, saving time and working directly from the familiar simulation environment. Among the most remarkable developments from the Dutch innovation center are excavator systems for precise excavation at depths of up to 2,500 meters (Grab Excavation System GES), measuring systems for precise placement of tunnel segments underwater (Tunnel Segment Measurement System TSMS) or the unmanned monitoring and control system (Remotely Operated Vehicle ROV) for precisely maneuvering fill material pipes. The Rotterdam company is the world leader for this last application: In the last few years, it has supplied more ROVs to offshore and deep-sea excavation companies than any other manufacturer. Exact filling on the sea bed The rock dump vessel La Boudeuse of the Jan de Nul Group based in Luxembourg, one of the market-leading companies in excavation and earth and stone moving in the ocean, is likewise equipped with a robot from Seatools. The La Boudeuse holds up to 4,600 tons of rocks. Via a movable downpipe they are precisely piled at a depth of up to 200 meters, for example, as a protective wall to protect subsea pipelines from the effects of currents. The controller system of the ROV is directly connected to the maneuvering unit of the ship. It takes over the dynamic positioning of the downpipe along a predefined path, without the necessity for any manual intervention. “The exact positioning of the bulk material is extremely important,” says Arjen Klop, head of sales & marketing at The company Seatools b.v. based in Numansdorp, south of Rotterdam in the Netherlands, offers complete solutions for virtually every industrial underwater applications. 65 Seatools. After all, this is used to protect for example offshore foundations reliably against undermining. » In addition to the robustness of the M1 automation system from Bachmann, the Seatools developers particularly appreciate M-Target for Simulink®, with which they generate the program code for the controller, saving time and working directly from the familiar simulation environment. « Every system is unique Every ROV is unique, being built according to the application field of the rock dumping vessel. The design depends on the maximum depth at which the fill material is to be deposited and the temperatures and flow conditions that are present there. These determine, for example, the number of thrusters that are used for the precise positioning the ROV and thus the precise orientation of the downpipe. The number of ultrasound sensors and cameras that monitor the filling of the rocks is also crucial to the system structure. Efficient simulation environment For this, Seatools uses the Simulink® simulation environment from The Mathworks Inc. “The crucially important point for our work is that the Bachmann M1 automation system is completely embedded as a target in the Simulink® environment,” says Arjen Klop, and adds: “All the components of the control system already exist as Simulink® function blocks, which saves time on the one hand, and on the other hand also ensures that the characteristics of the hardware used are correctly modeled.” Full access: hardware-in-the-loop ‘Connecting’ the two models is extremely convenient: The development environment and the controller communicate by means of an automatically created communications relationship via Ethernet and the TCP/IP protocol. Process values and variables of the M1 system can be observed in dynamic operation from the Simulink® simulation environment and recorded over time. Values, regulator parameters or module parameters are written by Simulink® directly to the controller during program execution. “This enables us to adapt the parameters online, without having to regenerate the Laborious parameterization The difficulty in parameterizing each design is estimating the behavior of the overall system under actual conditions of use. Merely the fact that the place of use may be several hundred meters below the surface of the sea requires the expensive and personnel-intensive commissioning of the system over several days. The Seatools development team therefore models the dynamic system in its entirety already in the design process. This enables the effects of modifications of subsystems to be assessed before they are implemented in practice. The simulation is based on two models: one model, the so-called ‘world model’, describes the ROV as a whole, taking into account the responses of the movable parts and valves, as well as the forces that act on the ROV from the thrusters. The second model, the ‘controller model’, describes the complete controller system of the ROV. 66 ROV (remotely operated vehicle) for monitoring and controlling stone filling by ships at sea. maritime.application The rocks precisely positioned with the ROV protect pipelines or offshore units from undermining and the effects of currents. object code for the system,” a pleased Arjen have a completely new level of safety in the Klop describes the considerable time savimplementation on the actual control system, ing and accuracy of his hardware in the loop because coding errors can be avoided,” Arjen simulation enviKlop describes the ronment. “ Since extra benefit. we can model the » M-Target for Simulink® mechanical and the Shortest enables us to achieve a electrical behavpossible speed and accuracy in ior of the overall commissionsystem together, ing saves simulating our systems we can describe money never possible before. « the reaction of the “With this developactual system very ment and hardware precisely.” environment, we Arjen Klop, can be sure that a Head of Sales & Marketing Efficient procontroller program at Seatools cess ensures that functions in short delivthe model, behaves ery times as expected on the Seatools customers expect short delivery actual controller,” says the Seatools engineer. times even for individual one-off systems. The The several days of tuning required for adaptautomatic code generation and porting to the ing the system and controller to the actual controller with the aid of the Real-Time Workworking and environmental conditions are no shop® from The MathWorks and M-Target for longer necessary. Simulink® software from Bachmann provide a key improvement: The time required for porting is reduced to zero. “Moreover, when designing complex closed-loop controllers we 67 AS MUCH SAND AS POSSIBLE AND LITTLE WATER Automation of high-precision dredgers on the sea floor When excavators are used on land, you can see every shovel moving and the sand pile getting bigger. On the sea floor, however, this same work is not quite as easy. A highly technical process is required instead: A large volume of measuring data is collected continuously, the position of the dredger has to be determined precisely, and the devices used must operate trouble-free in extreme conditions. In addition to this, the sand has to be separated from the water. These are all tasks for which Van Oord are specialists, and the company was impressed by the Bachmann M1 controller system. 68 maritime.application Van Oord is a Dutch-based, independent family business that offers solutions for demanding marine infrastructure projects. Since its founding over 140 years ago, Van Oord has been constructing and maintaining ports and building defences for rivers and coastlines in order to protect land from the hazards of environmental influences resulting from climate change. The company is also active in the construction of offshore wind parks or pipelines. Land reclamation is another one of the company’s strengths: One of its most well-known projects is the ‘Palm Jumeirah’ – one of the three palm shaped islands off Dubai. For all these projects, Van Oord has to move large quantities of sand: Trailing suction hopper dredgers are the tools for the task. Large device in operation The dimensions of these types of dredgers, such as the Vox Maxima, are enormous: Giant pumps with an output of over 31,000 kW convey the sand through suction pipes up to 100 m in length from the sea floor onto the ship. The hopper, with a capacity equal to that of 1,250 trucks, is filled in only two hours: This is the equivalent of more than ten truck loads of sand per minute. A kind of ‘mouth’ is fitted at the end of the suction pipe and is provided with ‘teeth’ to loosen up the sand on the sea floor so that it can be sucked in. The process of loading as much sand but as little water as possible at the same time is complicated. Several parameters have to be monitored and processed by the control system. outstanding: “The openness of the system helped us a great deal: We were able to continue the use of our own tried and tested programs,” Igor Jeuken expresses his delight and adds: “There are no limits to developments in the future since the M1 can be expanded without any problems.” The ColdClimate modules of the M1 controller are perfect for Van Oord: The temperature range from -30 ° to +60 °C and the operational safety even when condensation is present are impressive features. The fact that the Bachmann system also comes with the necessary type tests from ABS, DNV, LRS, BV and GL was also a key factor. Van Oord Dredging and Marine Contractors is a family-owned enterprise based in Rotterdam (NL). The company is active in the field of marine infrastructure projects. Van Oord has 4,500 employees worldwide in 25 branch offices. It has a fleet of 95 ships. Profitable collaboration Twenty engineers from Van Oord took part in a one-day training program in Bachmann’s Veendaal offices in Holland, and nine of them were then trained up as specialists for the Bachmann controller system at Bachmann’s headquarters in Feldkirch. “Our engineers gained an excellent impression of the high standard maintained by Bachmann during development and production,” Igor Jeuken explains. “We were very pleased to meet the experts at Bachmann, who are also available to us for » We’ve been impressed by the openness and flexibility of the Bachmann M1 controller system. « Impressive M1 performance Van Oord has developed the Vodas automation system for these kinds of tasks. On the Vox Maxima this determines the exact position and dredging depth of the suction dredger, as well as measuring the vacuum, the sand and the water flow. As in other applications, Van Oord was faced with the increasing demands placed on the actual control system and its interfaces to its Vodas system. For this reason, the company started looking some time ago for a replacement for its previously used controller platform and came across Bachmann: “The Bachmann system is being used on an increasing number of ships so that we have been able to have a closer look at it. The first impression was already promising and we were pleased with the compact, robust design,” Igor Jeuken, technical manager at Van Oord, describes the initial contact. The technical evaluation and a comparison with other controller systems showed that the operation of the M1 was Igor Jeuken, PA Engineer at Van Oord special technical issues.” The combination of Bachmann’s M1 and Van Oord’s experience will allow more efficient and more precise work in the future. “We intend to use the M1 more for the automation of our processes,” Igor Jeuken sums up. “Our aim is to own the most stateof-the-art fleet in our sector. The use of Bachmann’s M1 is an important part of this.” 69 PEOPLE AT BACHMANN Together with you. Every day. We are living in a fast changing sector – customers and employees are required daily to meet the increasing demands on automation. That is why we place the person at the center of what we do. We are there wherever our customers are and know them personally. We don’t work alongside each other but with each other. maritime.application LOOKING AHEAD TOGETHER Progress. Respect. Responsibility. You can rely on us: Together with you we design the right product for the right application. Our corporate culture and our values determine our thinking and doing, and are the driving force in collaboration with you. Progress In collaboration with you, we strive to achieve outstanding results and constant further development. Curiosity, courage and the willingness to change are the fuel of our success. We approach new opportunities together, with commitment and consistency. 72 maritime.application Respect Our strengths are based on constructive togetherness. We listen and make ourselves strong for you. We place importance on long-term, healthy and partner-based collaboration on an equal footing. Responsibility We impress you with the quality of our products and services. With our comprehensive know-how we give tailored answers to the sector-specific requirements and individual needs. From the initial meeting to successful implementation, you benefit from our absolute solution orientation and over 40 years of experience. 73 THE TWO BISHOPS Why it helps to stay human in technology We at Bachmann would never force people to follow convention but give them the space they need to develop their own abilities. This allows the unfolding of new and unconventional solutions – during a chess break as much as during an impromptu meeting. We don’t work alongside each other but with each other. This provides the basis of trust that also connects our customers. One strategy tip from chess says: Keep the space open for your two bishops to effectively use their enormous scope. This is what we want to live. Together with you. Every day. 74 maritime.application 75 Brochure maritime.application EN | Subject to alterations without notice © 05/2014 by Bachmann electronic www.bachmann.info