pneudri - regula servis
Transcription
pneudri - regula servis
PNEUDRI Compressed Air Dryers ENGINEERING YOUR SUCCESS. PNEUDRI High efficiency compressed air drying The PNEUDRI range of heatless and heat regenerative dryers has proven to be the ideal solution for many thousands of compressed air users worldwide and in a wide variety of industries. PNEUDRI totally cleans and dries compressed air down to -40˚C pressure dewpoint (pdp) as standard. For critical applications, PNEUDRI can be specified to provide a pressure dewpoint of -70˚C pdp. It is worth noting that a pressure dewpoint of -26°C or better will not only prevent corrosion, but will also inhibit the growth of micro-organisms within the compressed air system. Compressed air purification equipment must deliver uncompromising performance and reliability whilst providing the right balance of air quality with the lowest cost of operation. Many manufacturers offer products for the filtration and purification of contaminated compressed air, which are often selected only upon their initial purchase cost, with little or no regard for the air quality they provide, the cost of operation throughout their life or indeed their environmental impact. When purchasing purification equipment, delivered air quality, the overall cost of ownership and the equipment’s environmental impact must always be considered. The Parker domnick hunter Design Philosophy Parker domnick hunter has been supplying industry with high efficiency filtration and purification products since 1963. Our philosophy ‘Designed for Air Quality & Energy Efficiency’ ensures products that not only provide the user with clean, high quality compressed air, but also with low lifetime costs and reduced CO2 emissions. PNEUDRI Modular Dryers PNEUDRI MiDAS PNEUDRI MIDIplus PNEUDRI MX MAXI PNEUDRI DH MAXI • Heatless Regeneration (PSA) Pressure Swing Adsorption • Heatless Regeneration (PSA) Pressure Swing Adsorption • Heatless Regeneration (PSA) Pressure Swing Adsorption • Heat Regenerative (TSA) Thermal Swing Adsorption • 5.1 – 34 m3/hr ( 3 – 20 cfm ) • 49 – 299 m3/hr ( 24 – 176 cfm ) • Single Bank 408 – 2040 m3/hr (240 – 1200 cfm ) • Multi Bank >2041 m3/hr ( >1201cfm ) 1 • Single Bank 238 – 1189 m3/hr ( 140 – 700 cfm ) • Multi Bank > 1190 m3/hr ( > 701 cfm ) 2 The PNEUDRI modular design The PNEUDRI design replaces large, heavy, steel pressure vessels with smaller, more compact and lightweight aluminium extrusions Unique extruded aluminium construction Unlike their welded, carbon steel counterparts, the unique extruded aluminium construction of PNEUDRI eliminates these models from the costly annual pressure vessel inspection. PNEUDRI models are also typically half the size and weight of traditional twin tower dryers. • Distribution manifolds and drying columns are all constructed from lightweight, high tensile extruded aluminium • The shape of the extrusion varies on each model range • All extrusions are below 150 mm (6”) in diameter, which is under the pressure vessel inspection requirements of ASME • World-wide design approvals include PED, CRN, CE • Fully corrosion protected Traditional Adsorption Dryers • Typically, adsorption dryers are constructed from carbon or stainless steel • They consist of two large, heavy pressure vessels which contain the adsorbent material • Separate, interconnecting piping is used for valving, etc. • This method of construction has a direct impact on the performance of the dryer and the air quality it provides Distribution Manifold 3 Drying Column Advanced modular drying system PNEUDRI MiDAS and MIDIplus models • PNEUDRI MiDAS & MIDIplus models use only single extrusions, with a pressure die-cast inlet and outlet assembly • Compressed air capacity within these ranges is increased by varying the length of the drying columns • The greater the flow required, the longer the drying column PNEUDRI MAXI models • MAXI models use multiple drying columns of equal length to provide required compressed air capacity • The greater the flow required, the more drying columns are used (up to the maximum length of the manifold) Upper distribution manifold Drying columns Lower distribution manifold Multi-banking Unlike the loose filled adsorbent bed of traditional twin tower dryer designs, PNEUDRI with it’s snowstorm filled adsorbent beds provides an equal resistance to air flow. Therefore, when the system flow of an installation exceeds the capacity of the largest single dryer model, PNEUDRI can be multi- banked to meet the demand. Should demand increase in the future, there is no need to replace the dryer with a larger unit, additional capacity can be covered by simply adding an extra bank or banks, a feature only possible with PNEUDRI. Flexibility during maintenance Multi-banking of dryers enables individual banks to be easily isolated for routine maintenance work. This means minimal interruption to your clean, dry air supply. 100% stand-by Compared to traditional twin tower designs, 100% standby is available at a fraction of the cost as only one extra dryer bank is required. Fits through a standard doorway Unlike traditional twin tower designs, PNEUDRI dryers will fit through a standard doorway, eliminating the need for special access or facility structural dismantling during installation. 4 Air quality Adsorption dryers remove water vapour by passing air over a regenerative adsorbent material known as desiccant, which strips the moisture from the air. All adsorption dryers remove water vapour using this method, however the adsorbent must be periodically regenerated to ensure a continuous supply of dry air. A number of different regeneration methods are available. Pressure Dewpoint (Pdp) Pressure dewpoint is the term used to describe the temperature at which condensation will occur and the water removal efficiency of a dryer is expressed as a pressure dewpoint (written as a temperature). Adsorption dryers are extremely efficient and typically provide pressure dewpoint’s of -40°C or -70°C. This means for water vapour to condense into a liquid, the air temperature would need to drop below -40°C or -70°C respectively. Typically, a pressure dewpoint of -40°C is used in most applications as compressed air with a dewpoint below -26°C will not only prevent corrosion, it will also inhibit the growth of microorganisms within the compressed air system. PNEUDRI utilises four key features to guarantee the required pressure dewpoint. OIL-X EVOLUTION pre & after filtration Adsorption dryers are designed only for the removal of water vapour, and not liquid water, water aerosols, oil, particulates or microorganisms. Only by using Parker domnick hunter OIL-X EVOLUTION pre and after filtration can the removal of these contaminants be guaranteed and air quality in accordance with ISO 8573-1 : 2001 be delivered. Adsorbent desiccant material Selected for optimum dewpoint performance, dryers delivering a -40°C pressure dewpoint utilise a split bed of activated alumina and molecular sieve. For critical applications, dryers delivering a -70°C pressure dewpoint are filled with a special blend of silica gel and molecular sieve. All desiccant materials are specially selected to provide: PNEUDRI MiDAS Dryer • Optimum adsorption and regeneration capacity - to ensure consistent dewpoint • Low dusting - to prevent blockage of downstream filtration • High crush strength - to prevent breakdown of the desiccant during operation • High resistance to aggressive and oil-free condensate - for compatibility with all types of air compressor, their lubricants and condensate 5 Modular aluminium design The award winning PNEUDRI design first introduced by Parker domnick hunter in 1985, replaces the traditional, large, heavy carbon steel twin tower adsorption dryer and it’s complex valving and interconnecting piping, with a smaller, more compact and lightweight design. Aluminium extrusions are used throughout for drying chambers and distribution manifolds. This design allows the desiccant material to be retained within the drying chambers and when used in conjunction with the unique snowstorm filling technique, prevents movement of the desiccant material during operation and all but eliminates desiccant attrition and breakdown which leads to loss of pressure dewpoint. PNEUDRI MX Dryers Adsorbent fill method snowstorm filling Unique to Parker domnick hunter modular dryers is the snowstorm filling technique used to charge the drying chambers with adsorbent desiccant material. The benefits of the snowstorm filling technique include: • Achieves maximum packing density for the desiccant material, fully utilising all of the available space envelope Maximum Packing Density Loose filled bed Snowstorm filled bed • Prevents channelling of air through the desiccant as seen on traditional twin tower designs. Due to channelling, twin tower designs require more desiccant to achieve an identical dewpoint, increasing physical size, operational and maintenance costs • Prevents desiccant attrition which can lead to dusting, blocked filters and loss of dewpoint Inconsistent drying and desiccant attrition Consistent drying with no desiccant attrition • Allows 100% of the available desiccant material to be used for drying, therefore reducing the amount of desiccant required and maintenance costs • 100% of the desiccant is regenerated ensuring consistent dewpoint • Provides a low, equal resistance to air flow allowing multiple drying chambers and multiple dryer banks to be used, a feature only available with PNEUDRI Inconsistent Regeneration Consistent Regeneration • Ensures continuous dewpoint performance 6 PNEUDRI Operation Drying of Compressed Air Adsorption dryers work on the principle of moisture always migrating to the driest medium possible. Therefore, water vapour is removed from compressed air by passing it over an adsorbent desiccant material. As the air contacts the adsorbent material, water vapour transfers from the wet air to the dry desiccant, however, adsorbent materials have a fixed adsorption capacity and once this capacity is reached, they must be regenerated or replaced. Therefore, to provide a continuous supply of clean, dry compressed air, adsorbent dryers utilise two chambers of desiccant material and at any one time, whilst one chamber is on-line, drying the incoming compressed air, the other is either off-line, being regenerated or is re-pressurised, ready to come on-line. All adsorption dryers remove water in this manner. The energy consumed by an adsorption dryer can be directly attributed to the method used to regenerate the adsorbent material. Parker domnick hunter PNEUDRI dryers utilise either the Heatless PSA or the Heat Regenerative TSA method to regenerate the adsorbent material. PNEUDRI Operation - Drying Cycle The process air enters the dryer through the inlet and is directed into the on-line drying chamber via the inlet valves and lower manifold. (PNEUDRI models can be made up of either single or multiple drying columns, depending upon the range) The air is evenly distributed through the drying columns and passes over the desiccant material, reducing the water vapour content. The dried process air then combines in the upper manifold and exits the dryer via the outlet check valves. Column Changeover Before the on-line (drying) and off-line (regenerating) columns change over, the dryer exhaust valve, is closed, allowing the purge air to re-pressurise the off-line columns. This ensures a consistent system pressure and dewpoint when the drying chambers change over. 7 Dry Air Desiccant bead Wet Air PNEUDRI Operation - Regeneration Cycle (Heatless PSA or Pressure Swing Adsorption) At the start of the regeneration cycle, the exhaust valve of the dryer is closed and the off-line chamber is at full line pressure. The air in the off-line chamber has a dewpoint equal to the air leaving the dryer. Dry Purge Air The exhaust valve is then opened and the dry air within the chamber expands rapidly as it leaves the dryer via the exhaust silencer, forcing water to be removed from the desiccant material. Desiccant bead Once the off-line chamber has de-pressurised, a continuous bleed of dried process air is directed into the off-line upper manifold. This air is known as purge air. With the exhaust valve open, the purge air expands from line pressure to atmospheric pressure and flows downwards through the columns, over the off-line desiccant material. Wet Purge Air to Atmosphere As the purge air at line pressure contains a fixed amount of water vapour, allowing it to expand means the purge air becomes even drier, increasing its capacity to remove water from the saturated desiccant bed. Standard Drying / Regeneration Cycle Time Side A 0 2.5 Regeneration Side B 3 0 2.5 Changeover (minutes) Re-pressurisation Drying 3 Drying Regeneration Re-pressurisation PNEUDRI Operation - Regeneration Cycle (Heat Regenerative TSA or Thermal Swing Adsorption) The regeneration cycle of a TSA dryer is similar to that of the PSA dryer described above, however to reduce the amount of purge air required, heat is added to assist the process. Hot Purge Air Two heater assemblies are strategically placed in each drying column to heat the purge air, optimising regeneration. Desiccant bead The heaters are switched on after the column has de-pressurised, to again reduce energy consumption. The combination of dry purge air and heat uses less energy to remove the water from the saturated desiccant bed than is consumed by purge air alone. Wet Purge Air to Atmosphere After a pre-set time, the heaters are switched off and the off-line bed is allowed to cool before changeover. Standard Drying / Regeneration Cycle Time (minutes) 0 60 74 75 0 60 74 75 Depressurisation Purge with heaters on Purge with heaters off Repressurisation Changeover Regeneration Side A Drying Regeneration Side B Drying Depressurisation Purge with heaters on Purge with heaters off Repressurisation 8 Saving energy with the dewpoint dependent switching (DDS) energy management system The energy required to regenerate the off-line desiccant bed in an absorption dryer is constant, and based upon the assumption that the dryer is operating at its full capacity and the desiccant bed requiring regeneration has been fully saturated. In reality, a dryer is rarely operating at full capacity all of the time, for example during shift work and periods of low demand. Daily and seasonal fluctuations in ambient temperature and humidity also change the moisture loading placed upon the dryer. Under such conditions, at the point in the drying cycle where the air flow is switched from one drying chamber to the other, there is the potential for drying capacity to remain in the desiccant material about to undergo regeneration. As the energy used to regenerate this partially saturated bed is based upon the assumption that the bed is fully saturated, more energy (purge air) is consumed than is actually necessary. Dewpoint Dependent Switching (DDS) Energy Management System With the DDS Energy Management system installed, the drying cycle remains unchanged, however as the drying chambers are about to change, the DDS system overrides normal operation to fully utilise the drying capacity of the on-line desiccant material. DDS operation At column changeover, the exhaust valve is closed to allow the purge air to re-pressurise the off-line column, thus ensuring no loss of system pressure. At this time, both drying chambers are at full line pressure, so that no purge air is being used and the dryer is in a state of zero energy consumption. Under normal operation, the drying chambers would proceed to change over automatically, however the DDS energy management system incorporates a hygrometer which is used to monitor the pressure dewpoint of the air leaving the dryer. If the air is drier than the pre-set dewpoint, the desiccant material is only partially saturated and has drying capacity remaining within it, therefore change over is delayed. The hygrometer constantly monitors the outlet dewpoint until the pre-set level has been achieved, at which point, change over will occur. The drying and regenerating cycle will then continue normally until the end of the next column changeover when the DDS energy management system may again extend the drying period as dictated by the outlet air quality. DDS Operation - Energy Saving Cycle (Heatless Dryer example shown) Side A 2.5 Regeneration 3 Repressurisation Side B changeover time dictated by outlet dewpoint Energy Saving Drying 0 2.5 changeover 0 3 changeover time dictated by outlet dewpoint Drying Regeneration Repressurisation changeover DDS Drying / Regeneration Cycle Time (minutes) Energy Saving Using DDS will ensure that the energy consumed by PNEUDRI is directly proportional to the actual air flow, temperature and moisture loading, not the dryers rated capacity, thus providing significant energy and environmental savings. DDS Energy Saving (Heatless Dryer example shown) Energy Saving P/A Kw Environmental Saving P/A Kg CO2 33.00 95,040 40,867 40.00 115,200 49,536 80 47.00 135,360 58,205 70 53.00 152,640 65,635 60 60.00 172,800 74,304 50 66.00 190,080 81,734 m3/hr (1000 cfm). Average pressure 6.5 bar g. Average Temp 30°C. Air Demand % Energy Saving % 100 90 System pressure 6 bar g. Max Temp 35°C. System flow 1700 9 Dryer control systems PNEUDRI Controllers DRYER MODEL MiDAS (DAS) MAXI (MX) MAXI (MPX) MAXI (DH) • • • • • • • • • • • • • MiDAS CONTROLLER MIDI (DME) Smart Smart DDS Electronic Advanced Pneumatic PNEUDRI Controller Features FUNCTION Controller Options Power on Indication Fault Indication • • • • • • • • • MiDAS Smart Smart DDS Electronic Advanced Display fault condition values Service interval Indication • • • • • • • Service countdown timers Configurable alarm settings Remote Volt Free Alarm Contacts • • • • • • • • Filter Service Timer DDS Energy Mgmt System • • • • • Pneumatic If you would like more information about these or other ranges of Parker domnick hunter purification products please visit: www.domnickhunter.com, Email: [email protected] or contact your local Parker domnick hunter representative. Compressed Air Capabilities 17 400 4401 PNEUDRI MiDAS 17 400 4407 PNEUDRI MIDIplus 17 400 4408 OIL-X EVOLUTION Filters 17 400 4402 PNEUDRI MX 17 400 4410 PNEUDRI MPX 17 400 4411 PNEUDRI Heat Regenerative 17 400 4409 MAXIGAS Nitrogen Generators 17 400 4704 10 PNEUDRI MPX Heatless (PSA) Regeneration High Efficiency Compressed Air Dryers PNEUDRI heatless dryers can provide the simple and cost effective solution for the provision of clean dry compressed air. Using patented Parker domnick hunter technology, PNEUDRI heatless dryers provide the ultimate in performance, security and reliability. Compressed air purification equipment must deliver uncompromising performance and reliability whilst providing the right balance of air quality with the lowest cost of operation. Many manufacturers offer products for the filtration and purification of contaminated compressed air, which are often selected only upon their initial purchase cost, with little or no regard for the air quality they provide, the cost of operation throughout their life or indeed their environmental impact. When purchasing purification equipment, delivered air quality, the overall cost of ownership and the equipment’s environmental impact must always be considered. The Parker domnick hunter Design Philosophy Parker domnick hunter has been supplying industry with high efficiency filtration and purification products since 1963. Our philosophy ‘Designed for Air Quality & Energy Efficiency’ ensures products that not only provide the user with clean, high quality compressed air, but also with low lifetime costs and reduced CO2 emissions. Contact Information: Benefits: Parker Hannifin Ltd domnick hunter Industrial division Dukesway, Team Valley Trading Estate Gateshead, Tyne and Wear England NE11 0PZ • PNEUDRI dryers provide efficient removal of water vapour from compressed air • Delivered air quality is in accordance with ISO 8573-1:2001, the international standard for compressed air quality • Improves production efficiency and reduces maintenance costs and downtime • Pressure Dewpoint’s of -70°C, -40°C & -20°C (ISO 8573-1 :2001 Classes 1, 2 & 3) are available • Unlike refrigeration dryers, the -40°C & -70°C pressure dewpoint’s offered by PNEUDRI not only eliminates corrosion, it also inhibits the growth of micro-organisms • Low noise level <75 db (A) • Optional Energy Management System available Tel: +44 (0)191 402 9000 Fax: +44 (0)191 482 6296 Email: [email protected] www.domnickhunter.com • Compared to traditional twin tower dryer designs, PNEUDRI’s unique modular construction and snowstorm filling of the adsorbent desiccant material provides: - Consistent dewpoint performance - A smaller, more compact and lightweight dryer - Fits through a standard doorway reducing installation costs - 100% standby at a fraction of the cost of twin tower designs - Simple to install and easy to maintain - Offers increased flexibility during maintenance (multi bank) - Easily expanded to meet increased system demand - Fully corrosion protected inside and out - Approvals to International Standards (PED, CSA/UL/CRN) - Eliminates the need for costly annual pressure vessel inspections - 10 year guarantee on pressure envelope ENGINEERING YOUR SUCCESS. Dryer Performance Dewpoint (Standard) Dryer Models ºC ºF MPXS -40 -40 MPXE -40 -40 Product Selection PNEUDRI MAXIplus MPX Model Dewpoint (Option 1) ºC ºF ISO 8573-1:2001 Classification (Option 1) Class 2 -70 -100 Class 1 Class 2 -70 -100 Class 1 ISO 8573-1:2001 Classification (standard) Stated flows are for operation at 7 bar g (100 psi g) with reference to 20°C, 1 bar a, 0% relative water vapour pressure. For flows at other pressures apply the correction factors shown. Pipe Size L/s m3/min m3/hr cfm MPX 110 G4 652 39 2346 1381 MPX 112 G4 782 47 2815 1657 MPX 210 G4 1303 78 4692 2762 MPX 212 G4 1564 94 5630 3314 MPX 310 G4 1955 118 7038 4143 MPX 312 G4 2346 141 8445 4971 Correction Factor Temperature Correction Factor CFT Maximum Inlet Temperature °C 25 30 35 40 45 50 °F 77 86 95 104 113 122 1.00 1.00 1.00 1.04 1.14 1.37 CFT Pressure Correction Factor CFP Minimum Inlet Pressure bar g 4 5 6 7 8 9 10 11 12 13 psi g 58 73 87 100 116 131 145 160 174 189 1.60 1.33 1.14 1.00 0.89 0.80 0.73 0.67 0.62 0.57 CFP Dewpoint Correction Factor CFD Required Dewpoint PDP °C -40 -70 PDP °F -40 -100 0 1.43 CFD Dryer Selection To correctly select a dryer model, the flow rate of the dryer must be adjusted for the minimum operating pressure and, maximum operational temperature of the system. If the dewpoint required is different to the standard dewpoint of the dryer then the flow rate must also be adjusted for the required outlet dewpoint. 1. Obtain the minimum operating pressure, maximum inlet temperature and maximum compressed air flow rate at the inlet of the dryer. Obtain the outlet dewpoint required. 2. Select correction factor for maximum inlet temperature from the CFT Table (always round up e.g. for 37°C use 40°C correction factor) 3. Select correction factor for minimum inlet pressure from the CFP table (always round down e.g. for 5.3 bar use 5 bar correction factor) 4. Select correction factor for required outlet dewpoint from the CFD table 5. Calculate minimum drying capacity Minimum Drying Capacity = Compressed Air Flow x CFT x CFP x CFD 6. Using the minimum drying capacity, select a dryer model from the flow rate tables above (dryer selected must have a flow rate equal to or greater than the minimum drying capacity) If the minimum drying capacity exceeds the maximum values of the models shown within the tables, please contact Parker domnick hunter for advice regarding larger multi-banked dryers. Technical Data Min Operating Max Operating Min Operating Max Operating Pressure Pressure Temp Temp Dryer Models bar g psi g bar g psi g °C °F °C Max Ambient Temp °F °C °F Electrical supply (standard MPXS 4 58 13 190 2 35 50 122 55 131 230 V 1ph 50/60Hz MPXE 4 58 13 190 2 35 50 122 55 131 230 V 1ph 50/60Hz Electrical Thread supply Connections (optional) Noise Level dB (A) 110 V 1PH 50/60Hz BSPP or NPT <75 110 V 1PH 50/60Hz BSPP or NPT <75 Controller Options Function Controller Options Power on Indication SMART SMART DDS ELECTRONIC Fault Indication • • • • • • Display Service Fault Interval Condition Indication Values Service Countdown Timers • • • • Comfigurable Alarm Settings • Remote DDS Filter Volt Free Energy Service Alarm Management Timer Contacts System • • • • • • • Dryer Coding Example DRYER MODEL CONTROLLER TYPE NUMBER OF DRYING BANKS NUMBER OF DRYING COLUMNS DDS ENERGY MANAGEMENT MPX S = Smart E = Electronic No of individual dryers in installation Number of columns per dryer bank DDS = DDS Fitted (DDS standard with Electronic Controller) MPX S 3 12 DDS Example Dryer Model MPXS312DDS Weights and Dimensions Height (H) Model Width (W) Depth (D) Weight Pipe Size mm ins mm ins mm ins kg lbs MPX 110 G4 1788 70.4 2223 87.5 550 21.7 895 1969 MPX 112 G4 1788 70.4 2551 100.4 550 21.7 1025 2255 H Important Note W D Adsorption dryers are designed to remove water vapour from compressed air. For optimum performance and to deliver air quality in accordance with ISO 8573-1:2001, liquid water, oil and solid particulate must be first be removed using Parker domnick hunter OIL-X EVOLUTION Grade AO, AA filters. Grade AR filters should also be fitted to the outlet of the dryer for solid particulate removal. PNEUDRI MX Heatless (PSA) Regeneration High Efficiency Compressed Air Dryers Using patented Parker domnick hunter technology, PNEUDRI MX heatless dryers provide the ultimate in clean and dry compressed air. Compressed air purification equipment must deliver uncompromising performance and reliability whilst providing the right balance of air quality with the lowest cost of operation. Many manufacturers offer products for the filtration and purification of contaminated compressed air, which are often selected only upon their initial purchase cost, with little or no regard for the air quality they provide, the cost of operation throughout their life or indeed their environmental impact. When purchasing purification equipment, delivered air quality, the overall cost of ownership and the equipment’s environmental impact must always be considered. The Parker domnick hunter Design Philosophy Parker domnick hunter has been supplying industry with high efficiency filtration and purification products since 1963. Our philosophy ‘Designed for Air Quality & Energy Efficiency’ ensures products that not only provide the user with clean, high quality compressed air, but also with low lifetime costs and reduced CO2 emissions. Contact Information: Benefits: Parker Hannifin Ltd domnick hunter Industrial division Dukesway, Team Valley Trading Estate Gateshead, Tyne and Wear England NE11 0PZ • PNEUDRI dryers provide efficient removal of water vapour from compressed air • Delivered air quality is in accordance with ISO 8573-1:2001, the international standard for compressed air quality • Improves production efficiency and reduces maintenance costs and downtime • Pressure Dewpoint’s of -70°C, -40°C & -20°C (ISO 8573-1:2001 Classes 1, 2 & 3) are available • Unlike refrigeration dryers, the -40°C & -70°C pressure dewpoint’s offered by PNEUDRI not only eliminates corrosion, it also inhibits the growth of micro-organisms • Low noise level <75 db (A) • Optional Energy Management System available Tel: +44 (0)191 402 9000 Fax: +44 (0)191 482 6296 Email: [email protected] www.domnickhunter.com • Compared to traditional twin tower dryer designs, PNEUDRI’s unique modular construction and snowstorm filling of the adsorbent desiccant material provides: - Consistent dewpoint performance - A smaller, more compact and lightweight dryer - Fits through a standard doorway reducing installation costs - 100% standby at a fraction of the cost of twin tower designs - Simple to install and easy to maintain - Offers increased flexibility during maintenance (multi bank) - Easily expanded to meet increased system demand - Fully corrosion protected inside and out - Approvals to International Standards (PED, CSA/UL/CRN) - Eliminates the need for costly annual pressure vessel inspections - 10 year guarantee on pressure envelope ENGINEERING YOUR SUCCESS. Dryer Performance Dewpoint (Standard) Dewpoint (Option 1) ºC ºF MXS -40 -40 Class 2 -70 -100 Class 1 -20 -4 Class 3 MXA -40 -40 Class 2 -70 -100 Class 1 -20 -4 Class 3 Dryer Models Product Selection PNEUDRI MX Single Bank ºF ºC ISO 8573-1:2001 Classification (Option 2) ºF Stated flows are for operation at 7 bar g (100 psi g) with reference to 20°C, 1 bar a, 0% relative water vapour pressure. For flows at other pressures apply the correction factors shown. Model Multi-Bank ºC ISO 8573-1:2001 Classification (Option 1) Dewpoint (Option 2) ISO 8573-1:2001 Classification (standard) Pipe Size L/s m3/min m3/hr cfm MX 102C G2 113 6.81 408 240 MX 103C G2 170 10.22 612 360 MX 103 G2 213 12.78 765 450 MX 104 G2 283 17.03 1020 600 MX 105 G 21/2 354 21 1275 750 MX 106 G 21/2 425 26 1530 900 MX 107 G 21/2 496 30 1785 1050 MX 108 G 21/2 567 34 2040 1200 1 MX 205 G 2 /2 708 43 2550 1500 MX 206 G 21/2 850 51 3060 1800 MX 207 G 21/2 992 60 3570 2100 208 G 21/2 1133 68 4080 2400 306 G 21/2 1275 77 4590 2700 MX MX 1 MX 307 G 2 /2 1488 89 5355 3150 MX 308 G 21/2 1700 102 6120 3600 Correction Factor Temperature Correction Factor CFT Maximum Inlet Temperature °C 25 30 35 40 45 50 °F 77 86 95 104 113 122 1.00 1.00 1.00 1.04 1.14 1.37 CFT Pressure Correction Factor CFP Minimum Inlet Pressure bar g 4 5 6 7 8 9 10 11 12 13 psi g 58 73 87 100 116 131 145 160 174 189 1.60 1.33 1.14 1.00 0.89 0.80 0.73 0.67 0.62 0.57 CFP Dewpoint Correction Factor CFD PDP °C Required Dewpoint PDP °F CFD -20 -40 -70 -4 -40 -100 0.91 1.00 1.43 Dryer Selection To correctly select a dryer model, the flow rate of the dryer must be adjusted for the minimum operating pressure and, maximum operational temperature of the system. If the dewpoint required is different to the standard dewpoint of the dryer then the flow rate must also be adjusted for the required outlet dewpoint. 1. Obtain the minimum operating pressure, maximum inlet temperature and maximum compressed air flow rate at the inlet of the dryer. Obtain the outlet dewpoint required. 2. Select correction factor for maximum inlet temperature from the CFT Table (always round up e.g. for 37°C use 40°C correction factor) 3. Select correction factor for minimum inlet pressure from the CFP table (always round down e.g. for 5.3 bar use 5 bar correction factor) 4. Select correction factor for required outlet dewpoint from the CFD table 5. Calculate minimum drying capacity Minimum Drying Capacity = Compressed Air Flow x CFT x CFP x CFD 6. Using the minimum drying capacity, select a dryer model from the flow rate tables above (dryer selected must have a flow rate equal to or greater than the minimum drying capacity) If the minimum drying capacity exceeds the maximum values of the models shown within the tables, please contact Parker domnick hunter for advice regarding larger multi-banked dryers. Technical Data Min Operating Max Operating Min Operating Max Operating Pressure Pressure Temp Temp Dryer Models bar g psi g bar g psi g °C °F °C Max Ambient Temp °F °C °F Noise Level Electrical supply (standard Electrical Thread supply Connections (optional) N/A BSPP or NPT <75 dB (A) MXS 4 58 13 190 2 35 50 122 55 85 - 265 V 131 1ph 50/60Hz MXA 4 58 13 190 2 35 50 122 55 131 85 - 265 V 1ph 50/60Hz N/A BSPP or NPT <75 MXP 4 58 13 190 2 35 50 122 55 131 N/A N/A BSPP or NPT <75 Controller Options Function Controller Options Power on Indication Fault Indication • • • SMART SMART DDS ADVANCED • • • Display Service Fault Interval Condition Indication Values Service Countdown Timers • • • • Remote DDS Filter Volt Free Energy Service Alarm Management Timer Contacts System Comfigurable Alarm Settings • • • • • • • • Dryer Coding Example DRYER MODEL CONTROLLER TYPE NUMBER OF DRYING BANKS NUMBER OF DRYING COLUMNS DDS ENERGY MANAGEMENT MX S = Smart A = Advanced P = Pneumatic No of individual dryers in installation Number of columns per dryer bank DDS = DDS Fitted (DDS standard with Advanced Controllers) MX S 3 08 DDS Example Dryer Model MXS308DDS Weights and Dimensions Height (H) Model Width (W) Depth (D) Weight Pipe Size mm ins mm ins mm ins kg lbs MX 102C G2 1647 64.8 687 27.0 550 21.7 235 518 MX 103C G2 1647 64.8 856 33.7 550 21.7 316 696 MX 103 G2 1892 74.5 856 33.7 550 21.7 355 782 MX 104 G2 1892 74.5 1025 40.3 550 21.7 450 992 1 MX 105 G 2 /2 1892 74.5 1194 47.0 550 21.7 543 1197 MX 106 G 21/2 1892 74.5 1363 53.6 550 21.7 637 1404 1 1892 74.5 1532 60.3 550 21.7 731 1611 1 1892 74.5 1701 67.0 550 21.7 825 1818 MX 107 MX 108 G 2 /2 G 2 /2 H D W Recommended Filtration Important Note Filter Pipe Size (R = BSPT) Inlet General Purpose Pre-filter Inlet High Efficiency Filter Outlet Dust Filter MX102C R2 AO040HBFX AO040HBFX AR040HBMX MX103C R2 AO040HBFX AO040HBFX AR040HBMX MX103 R2 AO045HBFX AO045HBFX AR045HBMX MX104 R2 AO045HBFX AO045HBFX AR045HBMX MX105 R 21/2 AO050IBFX AO050IBFX AR050IBMX MX106 R 21/2 For Dryer Model MX107 MX108 AO055IBFX AO055IBFX AR055IBMX 1 AO055IBFX AO055IBFX AR055IBMX 1 AO055IBFX AO055IBFX AR055IBMX R 2 /2 R 2 /2 Adsorption dryers are designed to remove water vapour from compressed air. For optimum performance and to deliver air quality in accordance with ISO 8573-1:2001, liquid water, oil and solid particulate must be first be removed using Parker domnick hunter OIL-X EVOLUTION Grade AO, AA filters. Grade AR filters should also be fitted to the outlet of the dryer for solid particulate removal. PNEUDRI DH Heat Regenerative (TSA) Regeneration High Efficiency Compressed Air Dryers The PNEUDRI range of heat regenerative dryers has proven to be the ideal solution for many thousands of compressed air users worldwide and in a wide variety of industries. Compressed air purification equipment must deliver uncompromising performance and reliability whilst providing the right balance of air quality with the lowest cost of operation. Many manufacturers offer products for the filtration and purification of contaminated compressed air, which are often selected only upon their initial purchase cost, with little or no regard for the air quality they provide, the cost of operation throughout their life or indeed their environmental impact. When purchasing purification equipment, delivered air quality, the overall cost of ownership and the equipment’s environmental impact must always be considered. The Parker domnick hunter Design Philosophy Parker domnick hunter has been supplying industry with high efficiency filtration and purification products since 1963. Our philosophy ‘Designed for Air Quality & Energy Efficiency’ ensures products that not only provide the user with clean, high quality compressed air, but also with low lifetime costs and reduced CO2 emissions. Contact Information: Benefits: Parker Hannifin Ltd domnick hunter Industrial division Dukesway, Team Valley Trading Estate Gateshead, Tyne and Wear England NE11 0PZ • PNEUDRI dryers provide efficient removal of water vapour from compressed air • Delivered air quality is in accordance with ISO 8573-1:2001, the international standard for compressed air quality • Improves production efficiency and reduces maintenance costs and downtime • Pressure Dewpoint’s of -70°C, -40°C & -20°C (ISO 8573-1 :2001 Classes 1, 2 & 3) are available • Unlike refrigeration dryers, the -40°C & -70°C pressure dewpoint’s offered by PNEUDRI not only eliminates corrosion, it also inhibits the growth of micro-organisms • Low noise level <75 db (A) • Optional Energy Management System available • PNEUDRI DH dryers utilise unique PTC self regulating heaters that do not exceed 200°C, eliminating the possibility of internal oil-mist fires and reducing energy consumption Tel: +44 (0)191 402 9000 Fax: +44 (0)191 482 6296 Email: [email protected] www.domnickhunter.com • Compared to traditional twin tower dryer designs, PNEUDRI’s unique modular construction and snowstorm filling of the adsorbent desiccant material provides: - Consistent dewpoint performance - A smaller, more compact and lightweight dryer - Fits through a standard doorway reducing installation costs - 100% standby at a fraction of the cost of twin tower designs - Simple to install and easy to maintain - Offers increased flexibility during maintenance (multi bank) - Easily expanded to meet increased system demand - Fully corrosion protected inside and out - Approvals to International Standards (PED, CSA/UL/CRN) - Eliminates the need for costly annual pressure vessel inspections - 10 year guarantee on pressure envelope ENGINEERING YOUR SUCCESS. Dryer Performance Dewpoint (Standard) ºC ºF DHE -40 -40 DHS -40 -40 Product Selection PNEUDRI MAXI DH Dewpoint (Option 1) ºC ºF ISO 8573-1:2001 Classification (Option 1) Class 2 -70 -100 Class 1 Class 2 -70 -100 Class 1 ISO 8573-1:2001 Classification (standard) Dryer Models Stated flows are for operation at 7 bar g (100 psi g) with reference to 20°C, 1 bar a, 0% relative water vapour pressure. For flows at other pressures apply the correction factors shown. Model Pipe Size L/S m3/min m3/hr cfm DH102 G2 66 3.97 238 140 DH104 G2 132 7.95 476 280 DH106 G 21/2 198 11.92 714 420 DH108 G 21/2 264 15.88 951 560 DH110 G 21/2 330 19.86 1189 700 DH208 G 21/2 528 31.76 1902 1120 DH210 G 21/2 661 39.71 2378 1400 DH308 G 21/2 793 47.65 2853 1679 DH310 G 21/2 991 59.57 3567 2100 DH408 G 21/2 1057 63.53 3804 2239 DH410 G 21/2 1321 79.43 4756 2779 Correction Factors Temperature Correction Factor CFT Maximum Inlet Temperature °C 25 30 35 40 45 50 °F 77 86 95 104 113 122 0.91 1.00 1.00 1.32 1.73 2.23 CFT Pressure Correction Factor CFP Minimum Inlet Pressure bar g 4 5 6 7 8 9 10 11 12 13 psi g 58 73 87 102 116 131 145 160 174 189 1.60 1.33 1.14 1.00 0.89 0.80 0.73 0.67 0.62 0.57 CFP Dewpoint Correction Factor CFD PDP °C Required Dewpoint PDP °F CFD -40 -70 -40 -100 1.00 1.43 Dryer Selection To correctly select a dryer model, the flow rate of the dryer must be adjusted for the minimum operating pressure and, maximum operational temperature of the system. If the dewpoint required is different to the standard dewpoint of the dryer then the flow rate must also be adjusted for the required outlet dewpoint. 1. Obtain the minimum operating pressure, maximum inlet temperature and maximum compressed air flow rate at the inlet of the dryer. Obtain the outlet dewpoint required. 2. Select correction factor for maximum inlet temperature from the CFT Table (always round up e.g. for 37°C use 40°C correction factor) 3. Select correction factor for minimum inlet pressure from the CFP table (always round down e.g. for 5.3 bar use 5 bar correction factor) 4. Select correction factor for required outlet dewpoint from the CFD table 5. Calculate minimum drying capacity Minimum Drying Capacity = Compressed Air Flow x CFT x CFP x CFD 6. Using the minimum drying capacity, select a dryer model from the flow rate tables above (dryer selected must have a flow rate equal to or greater than the minimum drying capacity) If the minimum drying capacity exceeds the maximum values of the models shown within the tables, please contact Parker domnick hunter for advice regarding larger multi-banked dryers. Technical Data Dryer Models Min Operating Max Operating Min Operating Max Operating Pressure Pressure Temp Temp bar g psi g bar g psi g °C °F °C Max Ambient Temp °F °C °F Noise Level Electrical supply (standard Electrical Thread supply Connections (optional) N/A BSPP or NPT <75 415V 3ph 50Hz+Neutral N/A BSPP or NPT <75 DHS 4 58 10.5 154 2 35 50 122 55 415V 3ph 131 50Hz+Neutral DHE 4 58 10.5 154 2 35 50 122 55 131 dB (A) Controller Options Function Controller Options Power on Indication • • SMART DDS ELECTRONIC Display Service Fault Interval Condition Indication Values Fault Indication • • • Service Countdown Timers • Comfigurable Alarm Settings • Remote DDS Filter Volt Free Energy Service Alarm Management Timer Contacts System • • • • • • Dryer Coding Example DRYER MODEL CONTROLLER TYPE NUMBER OF DRYING BANKS NUMBER OF DRYING COLUMNS DDS ENERGY MANAGEMENT DH S = Smart E = Electronic No of individual dryers in installation Number of columns per dryer bank DDS = DDS Fitted (DDS standard with Advanced Controllers) DH S 3 08 DDS Weights and Dimensions Height (H) Model Width (W) Depth (D) Weight Pipe Size mm ins mm ins mm ins kg lbs DH102 G2 1578 62.1 717 28.2 321 12.6 150 331 DH104 G2 1578 62.1 947 37.3 321 12.6 245 540 1 DH106 G 2 /2 1578 62.1 1177 46.3 321 12.6 325 717 DH108 G 21/2 1578 62.1 1407 55.4 321 12.6 440 970 1578 62.1 1637 64.4 321 12.6 565 1246 DH110 1 G 2 /2 H Power Consumption Power Consumption Model kW H Average W Full Load Amps DH102 1.1 7 DH104 2.2 14 DH106 3.3 21 DH108 4.4 28 DH110 5.5 36 DH208 8.8 58 DH210 11 72 DH308 13.2 86 DH310 16.5 108 DH408 17.6 115 DH410 22 144 D Important Note Adsorption dryers are designed to remove water vapour from compressed air. For optimum performance and to deliver air quality in accordance with ISO 8573-1:2001, liquid water, oil and solid particulate must be first be removed using Parker domnick hunter OIL-X EVOLUTION Grade AO, AA filters. Grade AR filters should also be fitted to the outlet of the dryer for solid particulate removal. PNEUDRI MIDIplus Heatless (PSA) Regeneration High Efficiency Compressed Air Dryers Compressed air contamination problems can be simply avoided by installing a Parker domnick hunter PNEUDRI MIDIplus High Efficiency Compressed Air Dryer package fitted with OIL-X EVOLUTION filtration. The packages are suitable for use with any compressor type and are suited to point of use applications. Compressed air purification equipment must deliver uncompromising performance and reliability whilst providing the right balance of air quality with the lowest cost of operation. Many manufacturers offer products for the filtration and purification of contaminated compressed air, which are often selected only upon their initial purchase cost, with little or no regard for the air quality they provide, the cost of operation throughout their life or indeed their environmental impact. When purchasing purification equipment, delivered air quality, the overall cost of ownership and the equipment’s environmental impact must always be considered. The Parker domnick hunter Design Philosophy Parker domnick hunter has been supplying industry with high efficiency filtration and purification products since 1963. Our philosophy ‘Designed for Air Quality & Energy Efficiency’ ensures products that not only provide the user with clean, high quality compressed air, but also with low lifetime costs and reduced CO2 emissions. Contact Information: Benefits: Parker Hannifin Ltd domnick hunter Industrial division Dukesway, Team Valley Trading Estate Gateshead, Tyne and Wear England NE11 0PZ • PNEUDRI dryers provide efficient removal of water vapour from compressed air Tel: +44 (0)191 402 9000 Fax: +44 (0)191 482 6296 Email: [email protected] www.domnickhunter.com • Delivered air quality is in accordance with ISO 8573-1:2001, the international standard for compressed air quality • Compared to traditional twin tower dryer designs, PNEUDRI’s unique modular construction and snowstorm filling of the adsorbent desiccant material provides:- Consistent dewpoint performance • Improves production efficiency and reduces maintenance costs and downtime - A smaller, more compact and lightweight dryer • Pressure Dewpoint’s of -70°C & -40°C (ISO 8573-1 :2001 Classes 1 & 2) are available - Simple to install and easy to maintain • Unlike refrigeration dryers, the -40°C & -70°C pressure dewpoint’s offered by PNEUDRI not only eliminates corrosion, it also inhibits the growth of micro-organisms - Approvals to International Standards (PED, CSA/UL/CRN) • Ideal for both compressor room and point of use applications • Low noise level <75 db (A) - Fully corrosion protected inside and out - Eliminates the need for costly annual pressure vessel inspections - 10 year guarantee on pressure envelope • Optional Energy Management System available ENGINEERING YOUR SUCCESS. Dryer Performance Dewpoint (Standard) ºC ºF DME -40 -40 DMOP -40 -40 Dewpoint (Option 1) ºC ºF ISO 8573-1:2001 Classification (Option 1) Class 2 -70 -100 Class 1 Class 2 -70 -100 Class 1 ISO 8573-1:2001 Classification (standard) Dryer Models Product Selection Stated flows are for operation at 7 bar g (100 psi g) with reference to 20°C, 1 bar a, 0% relative water vapour pressure. For flows at other pressures, apply the correction factors shown. PIPE SIZE L/S m3/min m3/hr cfm DME012 G 1/2 11 0.68 41 24 DME015 G 1/2 15 0.91 55 32 DME020 G 1/2 20 1.19 71 42 DME025 G 1/2 25 1.50 90 53 DME030 G 1/2 31 1.84 110 65 DME040 G 3/4 42 2.49 149 88 DME050 G1 50 3.01 180 106 DME060 G1 61 3.69 221 130 DME080 G1 83 4.99 299 176 Model Correction Factor Temperature Correction Factor CFT Maximum Inlet Temperature °C 25 30 35 40 45 50 °F 77 86 95 104 113 122 1.00 1.00 1.00 1.04 1.14 1.37 CFT Pressure Correction Factor CFP Minimum Inlet Pressure bar g 4 5 6 7 8 9 10 11 12 13 14 15 16 psi g 58 73 87 100 116 131 145 160 174 189 203 218 232 1.60 1.33 1.14 1.00 0.89 0.80 0.73 0.67 0.62 0.57 0.54 0.5 0.47 CFP Dewpoint Correction Factor CFD Required Dewpoint PDP °C -40 -70 PDP °F -40 -100 1.00 1.43 CFD Dryer Selection To correctly select a dryer model, the flow rate of the dryer must be adjusted for the minimum operating pressure and, maximum operational temperature of the system. If the dewpoint required is different to the standard dewpoint of the dryer then the flow rate must also be adjusted for the required outlet dewpoint. 1. Obtain the minimum operating pressure, maximum inlet temperature and maximum compressed air flow rate at the inlet of the dryer. Obtain the outlet dewpoint required. 2. Select correction factor for maximum inlet temperature from the CFT Table (always round up e.g. for 37°C use 40°C correction factor) 3. Select correction factor for minimum inlet pressure from the CFP table (always round down e.g. for 5.3 bar use 5 bar correction factor) 4. Select correction factor for required outlet dewpoint from the CFD table 5. Calculate minimum drying capacity Minimum Drying Capacity = Compressed Air Flow x CFT x CFP x CFD 6. Using the minimum drying capacity, select a dryer model from the flow rate tables above (dryer selected must have a flow rate equal to or greater than the minimum drying capacity) If the minimum drying capacity exceeds the maximum values of the models shown within the tables, please contact Parker domnick hunter for advice regarding larger multi-banked dryers. Technical Data Dryer Models Min Operating Pressure Max Operating Pressure bar g bar g psi g Min Operating Temperature psi g °C °F Max Operating Temperature °C °F Max Ambient Temperature °C DME012 DME040 4 58 16 232 2 35 50 122 55 DME050 DME080 4 58 13 190 2 35 50 122 DMOP 4 58 13 190 2 35 50 122 Electrical Supply (Standard) Electrical Thread Supply Connection (Optional) °F Noise Level dB(A) 131 230V 1ph 50/60Hz 110V 1ph 50/60Hz BSPP or NPT <75 55 131 230V 1ph 50/60Hz 110V 1ph 50/60Hz BSPP or NPT <75 55 131 N/A N/A BSPP or NPT <75 Controller Options Function Controller OptionsD Display Fault Condition Values Service Interval Indication Service Contdown Timers Configurable Alarm Settings Remote Volt Free Alarm contacts Power On Indication Fault Indication DME (Electronic control) • • • DME DDS • • • Filter Service Timer DDS Energy Management System • DM0P Weights and Dimensions DME 012 - 040 Dimensions Model Port Size Inlet / Outlet Weight Height (H) Width (W) Depth (D) mm ins mm ins mm ins kg lbs DME012 G 3/4 837 33.0 284 11.2 302 11.9 32 70 DME015 G 3/4 1003 39.5 284 11.2 302 11.9 37 81 DME020 G 3/4 1168 46.0 284 11.2 302 11.9 42 92 DME025 G 3/4 1333 52.5 284 11.2 302 11.9 47 103 DME030 G 3/4 1499 59.0 284 11.2 302 11.9 52 114 DME040 G 3/4 1747 68.8 284 11.2 302 11.9 60 132 DME050 G1 1433 56.4 220 8.7 566 22.3 80 176 DME060 G1 1599 63.0 220 8.7 566 22.3 90 198 DME080 G1 1847 72.7 220 8.7 566 22.3 104 229 DME 050 - 080 Important Note Adsorption dryers are designed to remove water vapour from compressed air. For optimum performance and to deliver air quality in accordance with ISO 8573-1:2001, liquid water, oil and solid particulate must be first be removed using Parker domnick hunter OIL-X EVOLUTION Grade AO, AA filters. Grade AR filters should also be fitted to the outlet of the dryer for solid particulate removal. Recommended Filtration Filter Pipe Size (R = BSPT) Inlet General Purpose Pre-filter Inlet High Efficiency Filter Outlet Dust Filter DME012 R 3/4 AO020DBFX AA020DBFX AR020DBMX DME015 R 3/4 AO020DBFX AA020DBFX AR020DBMX DME020 R 3/4 AO020DBFX AA020DBFX AR020DBMX DME025 R 3/4 AO020DBFX AA020DBFX AR020DBMX DME030 R 3/4 AO020DBFX AA020DBFX AR020DBMX R 3/4 AO025DBFX AA025DBFX AR025DBMX DME050 R1 AO025EBFX AA025EBFX AR025EBMX DME060 R1 AO030EBFX AA030EBFX AR030EBMX DME080 R1 AO030EBFX AA030EBFX AR030EBMX For Dryer Model DME040 PNEUDRI MiDAS A totally clean and dry Compressed Air System (CDA) The Parker domnick hunter PNEUDRI MiDAS range of desiccant air dryers, offers the user uncompromised performance from a dedicated “point of use” Clean Dry Air system. It is easy to install and will transform an ordinary process into a highly reliable and efficient production operation. Compressed air purification equipment must deliver uncompromising performance and reliability whilst providing the right balance of air quality with the lowest cost of operation. Many manufacturers offer products for the filtration and purification of contaminated compressed air, which are often selected only upon their initial purchase cost, with little or no regard for the air quality they provide, the cost of operation throughout their life or indeed their environmental impact. When purchasing purification equipment, delivered air quality, the overall cost of ownership and the equipment’s environmental impact must always be considered. The Parker domnick hunter Design Philosophy Parker domnick hunter has been supplying industry with high efficiency filtration and purification products since 1963. Our philosophy ‘Designed for Air Quality & Energy Efficiency’ ensures products that not only provide the user with clean, high quality compressed air, but also with low lifetime costs and reduced CO2 emissions. Contact Information: Benefits: Parker Hannifin Ltd domnick hunter Industrial division Dukesway, Team Valley Trading Estate Gateshead, Tyne and Wear England NE11 0PZ • PNEUDRI dryers provide efficient removal of water vapour from compressed air • Improves production efficiency and reduces maintenance costs and downtime - A smaller, more compact and lightweight dryer Tel: +44 (0)191 402 9000 Fax: +44 (0)191 482 6296 Email: [email protected] www.domnickhunter.com • Pressure Dewpoint’s of -70°C & -40°C (ISO 8573-1 :2001 Classes 1 & 2) are available - Simple to install and easy to maintain • Unlike refrigeration dryers, the -40°C & -70°C pressure dewpoint’s offered by PNEUDRI not only eliminates corrosion, it also inhibits the growth of micro-organisms - Approvals to International Standards (PED, CSA/UL/CRN) • Delivered air quality is in accordance with ISO 8573-1:2001, the international standard for compressed air quality • Ideal for both compressor room and point of use applications • Compared to traditional twin tower dryer designs, PNEUDRI’s unique modular construction and snowstorm filling of the adsorbent desiccant material provides:- Consistent dewpoint performance - Fully corrosion protected inside and out - Eliminates the need for costly annual pressure vessel inspections - 10 year guarantee on pressure envelope • Low noise level <75 db (A) ENGINEERING YOUR SUCCESS. Dryer Performance Dewpoint (Standard) ISO 8573-1:2001 Classification (standard) Dryer Models DAS ºC ºF -40 -40 Dewpoint (Option 1) Class 2 ºC ºF ISO 8573-1:2001 Classification (Option 1) -70 -100 Class 1 Product Selection Stated flows are for operation at 7 bar g (100 psi g) with reference to 20°C, 1 bar a, 0% relative water vapour pressure. For flows at other pressures, apply the correction factors shown. Model L/S m3/min m3/hr cfm 3 1 0.09 5.1 3 3 2 0.14 8.5 5 3 4 0.23 13.6 8 3 5 0.28 17.0 10 3 6 0.37 22.1 13 3 7 0.43 25.5 15 3 9 0.57 34.0 20 Pipe Size DAS1 G /8 DAS2 G /8 DAS3 G /8 DAS4 G /8 DAS5 G /8 DAS6 G /8 DAS7 G /8 Correction Factor Temperature Correction Factor CFT Maximum Inlet Temperature °C 25 30 35 40 45 50 °F 77 86 95 104 113 122 1.00 1.00 1.00 1.04 1.14 1.37 CFT Pressure Correction Factor CFP Minimum Inlet Pressure bar g 4 5 6 7 8 9 10 11 12 psi g 58 73 87 102 116 131 145 160 174 1.60 1.33 1.14 1.00 1.03 0.93 0.85 0.78 0.71 PDP °C -40 -70 PDP °F -40 -100 1.00 1.43 CFP Dewpoint Correction Factor CFD Required Dewpoint CFD Dryer Selection To correctly select a dryer model, the flow rate of the dryer must be adjusted for the minimum operating pressure and, maximum operational temperature of the system. If the dewpoint required is different to the standard dewpoint of the dryer then the flow rate must also be adjusted for the required outlet dewpoint. 1. Obtain the minimum operating pressure, maximum inlet temperature and maximum compressed air flow rate at the inlet of the dryer. Obtain the outlet dewpoint required. 2. Select correction factor for maximum inlet temperature from the CFT Table (always round up e.g. for 37°C use 40°C correction factor) 3. Select correction factor for minimum inlet pressure from the CFP table (always round down e.g. for 5.3 bar use 5 bar correction factor) 4. Select correction factor for required outlet dewpoint from the CFD table 5. Calculate minimum drying capacity Minimum Drying Capacity = Compressed Air Flow x CFT x CFP x CFD 6. Using the minimum drying capacity, select a dryer model from the flow rate tables above (dryer selected must have a flow rate equal to or greater than the minimum drying capacity) If the minimum drying capacity exceeds the maximum values of the models shown within the tables, please contact Parker domnick hunter for advice regarding larger multi-banked dryers. Technical Data Min Operating Pressure Dryer Models Min Operating Temperature Max Operating Temperature psi g bar g psi g °C °F °C °F °C °F 4 58 12 175 2 35 50 122 55 131 Electrical Supply (Standard) Tolerance ± 10% Electrical Supply (Optional) Tolerance ± 10% Thread Connection Function Noise Level (average) Electronic Controller OptionsD dB(A) DAS Max Ambient Temperature bar g DAS Dryer Models Max Operating Pressure 230 / 1ph / 50Hz 115 / 1ph / 60Hz BSPP or NPT <75 DAS Power On Indication Service Interval Indication • • Weights and Dimensions Dimensions Weight Model Pipe Size DAS1 mm ins mm ins Kg lbs 3 422 16.6 289 11.4 149 5.9 11 24.2 3 500 19.7 289 11.4 149 5.9 13 28.7 3 616 24.2 289 11.4 149 5.9 16 35.3 3 692 27.2 289 11.4 149 5.9 18 39.7 3 847 33.3 289 11.4 149 5.9 20 44.1 3 906 35.7 289 11.4 149 5.9 23 50.7 3 1098 43.2 289 11.4 149 5.9 28 61.7 G /8 DAS4 G /8 DAS5 G /8 DAS6 G /8 DAS7 Depth (D) ins G /8 DAS3 Width (W) mm G /8 DAS2 Height (H) G /8 H W D Maintenance kits Accessories Description Kit Model Maintenance Kit DAS 1 DASMK1 Fixed Wall Mounting Bracket DASMB1 DAS 2 DASMK2 45° Tilt Wall Mounting Bracket DASMB2 DAS 3 DASMK3 Purge Economy Gland Kit 608203185 DAS 4 DASMK4 Volt Free Relay Kit 608203186 DAS 5 DASMK5 DAS 6 DASMK6 DAS 7 DASMK7 Notes 1. It is recommended that an AO pre-filter should be used to protect the Integral Grade AA filter. 2. For hazardous areas, fully pneumatic Mini and Midi dryers are available.