S.H. Reciprocating compressor ARY (R-22) series.pdf

Air Cooled Reciprocating Water ChillersARY Series ARY040A thru ARY420A 40 TR thru 420 TR 141 kW thru 1479 kW Company Business Zamil Air Conditioners was founded in 1974, and is the first major business venture in manufacturing sector for the Al Zamil group of Companies. It is also the first manufacturing unit for air conditioners to be established in Saudi Arabia. Zamil Air conditioners manufactures both consumer and central range of air conditioners and has sales operations in over 55 countries in the Middle East, Europe, America, Africa, Australia and the Far East. The company’s operations are structured into four Strategic Business Units (SBUs) supporting six in - house product and service brands as well as a number of international brands under the OEM sales. The six in-house brands are Classic, Cooline, CoolCare, Clima Tech, Geoclima and Kessler Clima Tech. The four SBUs are: 1. Consumer Business unit supporting Classic, Cooline, GE and OEM brands for consumer range of air conditioners. 2. Unitary & Applied Business unit supporting Classic, Cooline, GE and OEM brands for commercial range of air conditioners. 3. Zamil CoolCare - service and maintenance provider. 4. Geoclima srl - independent business and supporting other SBUs for their requirement of Chillers & Double skin AHU’s. The first three SBUs - Consumer Products, Unitary & Applied Products and Zamil CoolCare direct their business operations from the corporate headquarters at Dammam, Saudi Arabia. The production facilities at Dammam are shared by Consumer Products and Unitary & Applied Products. Geoclima has its own production and functional departments located at Monfalcone, Italy. All the four SBUs, while operating independently, supplement each other’s activities in a way that makes synergy work at its best and achieve the corporate goals of increased productivity and efficiently. Factories and Productions Zamil Air Conditioners has its prime manufacturing base at Dammam, Saudi Arabia and has one speciality production facility in Italy operated by Geoclima. The company can produce up to 440,000 room air conditioners, 60,000 mini-split systems and 36,500 central air-conditioning systems per year. Quality & Product Certificates The Quality systems and policies at Zamil Air Conditioners comply with the required ISO 9001:2000 certification. Zamil Air Conditioners is the first company in Saudi Arabia to receive the SASO (Saudi Arabia’s Standard Organization) certificate for room air conditioners. Its products and services are also certified with: 1. 2. 3. 4. 5. 6. CE (Council of European Community) UL (Underwriters Laboratory) AHAM certificate (Association of Home Appliance Manufacturers) Eurovent DEMKO ETL Other awards include the prestigious Engineering Excellence Award of General Electric, and the inaugural Prince Mohammed bin Fahd Al Saud Award for Factory Safety. Our Products In addition to the consumer products such as the Room Air Conditioners (RAC) and the Mini Splits, Zamil Air Conditioners manufacturers a host of residential and commercial air conditioners. This board range extends from the concealed units up to 5 ton, the ducted splits up to 30 tons, the packaged units up to 70 tons. The single and double skin air handling units up to 130,000 CFM and the water chillers up to 487 ton cooling capacity. INDEX Contents Page Model decoding ........................................................................................................................................ 2 Unit features, standard specifications & options .................................................................................... 3-7 Physical data ....................................................................................................................................... 8-10 Selection procedure .......................................................................................................................... 11-12 Ethylene glycol solution capacity correction ........................................................................................... 13 Performance data .............................................................................................................................. 14-19 Electrical data .................................................................................................................................... 20-21 Water side pressure drop ....................................................................................................................... 22 Unit dimensions ................................................................................................................................ 23-30 Typical schematic wiring diagram ...................................................................................................... 31-32 Microprocessor controller .................................................................................................................. 33-34 Application guidelines ........................................................................................................................ 35-44 Rigging instructions ................................................................................................................................ 45 Installation clearance .............................................................................................................................. 46 Mounting location ................................................................................................................................... 47 Load distribution ................................................................................................................................ 48-49 CONTINUING RESEARCH RESULTS IN STEADY IMPROVEMENTS. THEREFORE, THESE SPECIFICATIONS ARE SUBJECT TO CHANGE WITHOUT NOTICE. 1 2 420 400 380 350 320 300 280 250 240 220 200 190 170 160 140 120 110 100 090 080 070 050 040 4, 5 & 6 UNIT SIZE A : R-22 7 REFRIGERANT F : 460-3-60 M: 380-3-60 (4 WIRE) H : 208/230-3-60 8 ELECTRICAL SUPPLY ( V-Ph-Hz ) (SEE NOTE # 1 BELOW) C : COPPER FIN B : COATED ALUMINUM FIN A : ALUMINUM FIN 9 CONDENSER COIL A : COMPRESSOR CIRCUIT BREAKER 10 CIRCUIT BREAKER OPTIONS D : OPTIONAL ASME STAMPED WITH FLANGE CONN.* C : OPTIONAL ASME STAMPED WITH VICTAULIC CONN.* B : OPTIONAL FLANGE CONN.* A : STANDARD WITH VICTAULIC CONN.* 11 COOLER OPTIONS B : HGBP (OPTIONAL) A : STANDARD UNIT WITHOUT HGBP 12 HGBP OPTIONS SEE NOTE # 2 BELOW 13 & 14 OPTIONS & ACCESSORIES - SPRING ISOLATOR etc. - WATER FLOW SWITCH - UNIT DISCONNECT SWITCH - COOLER GUARD 2. COMPUTER SELECTED DIGITS (FROM 'AA' TO 'ZZ') DESCRIBING OTHER OPTIONS & ACCESSORIES OR COMBINATIONS THEREOF, SUCH AS: - CONDENSER COIL GUARD 1. FOR OTHER COATING, SPECIFY YOUR REQUIREMENTS IN WRITING. * NOT APPLICABLE FOR MODELS ARY040 & ARY050, MPT (MALE PIPE THREAD) CONNECTION ONLY. NOTES: AIR COOLED RECIPROCATING WATER CHILLERS ARY 1, 2 & 3 BASIC (SERIES) MODEL DECODING FEATURES These ARY series, packaged air cooled water chillers are designed to provide engineering excellence in comfort air conditioning and industrial cooling with a superior combination of energy saving, performance, application flexibility, ease of service & maintenance and withstanding extremely high ambient temperatures. These chillers incorporate a wide range of features including: * Microprocessor controller, which monitors analog and digital inputs to achieve precise control & protective functions of the air cooled water chiller units. The microprocessor controller is complete with all the hardware and software necessary to control the chiller unit and ensures its efficiency and reliability. * Compact unit design and excellent serviceability. * All packaged chillers incorporate compact water coolers with enhanced inner grooved copper tubes bundled into a U shaped and expanded into a steel tubular sheet which offer efficient water flow and heat transfer design resulting in optimal unit performance. * All units incorporate separate subcooler circuit which is integral to the condenser surface. This additional subcooling circuit provides superior system performance. * High Energy Efficiency Ratio (EER) semi-hermetic reciprocating compressors. * Single point power connection to minimize job site installation cost and time. * Completely wired control panel with the advanced microprocessor controller provides all the necessary operating and safety controls. * Independent refrigeration circuits. * Compressor connections are part winding start for all models (see electrical data). * Low noise condenser fans, direct drive at 1000 RPM with rolled form venturi design to eliminate airflow recycling & short circuiting . * All fans are die cast aluminum propeller type with aerodynamic design, top discharge, provided with protective grille mounted on top panel within the unit casing. * All condenser fan motors are totally enclosed air over type (TEAO) with class ''F'' winding insulation. STANDARD SPECIFICATIONS CAPACITY CONTROL These packaged chillers incorporate stepped load shedding as required by most energy management systems. Modulation of capacity in response to system load requirements is affected by the microprocessor controller which monitors the leaving water temperature. Capacity control is achieved by cycling compressors ON/OFF and cylinder unloading. The use of unloading provides optimal part load capacities. On multiple compressor units, capacity is controlled by a combination of cylinder unloading and compressor staging. See the following table for the standard and optional capacity control for each unit. 3 Example: ARY 100 with HGBP (25% x 0.3/165 15. The electrical controls used in the control panel are UL approved and are reliable in operation at high ambient conditions for a long period. The staggered tube design improves the thermal efficiency. (BAR/PSIG) STD 16/235 22. CONDENSER COILS Horizontal. All chiller barrels are fitted with vent. adequately anchored and all wires identified with cable markers as per NEC standards applicable to HVAC industry. mechanically bonded to aluminum fins for maximum heat transfer efficiency. (BAR/PSIG) TEST PRESSURE. The compressor motors conform to NEMA standards MG-1 & MG-2. 4 .5/228 23. CONTROL PANEL The control panel design is equivalent to NEMA 4 (IP55) with hinged door for easy access ensuring dust and weatherproof construction. The fins have full self spacing collars which completely cover each tube.8/335 29/426 41. Removable access panels are provided for easy maintenance purpose. Steel sheet panels are zinc coated and galvanized by hot dip process of lock-forming quality conforming to ASTM A 653 commercial weight G-90 followed by backed on electrostatic polyester dry powder coat.5/610 ASME (option) 10/147 11. They are equipped with internal motor protection and provided with vibration isolators. As an option.% FULL LOAD CAPACITY CONTROL MODEL NUMBER ARY040A ARY050A -ARY090A ARY100A -ARY110A ARY120A -ARY170A ARY190A -ARY220A ARY240A -ARY250A ARY280A -ARY320A ARY350A -ARY420A STANDARD OPTIONAL 100-66-OFF 100-83-50-33-OFF 100-75-50-25-OFF 100-92-75-67-50-42-25-17-OFF 100-87-75-62-50-37-25-12-OFF 100-95-83-78-67-61-50-45-34-28-17-12-OFF 100-92-83-75-66-60-50-42-33-25-16-8-OFF 100-93-87-81-75-69-63-56-50-43-37-31-25-19-13-6-OFF 100-66-HGBP-OFF 100-83-50-33-HGBP-OFF 100-75-50-25-HGBP-OFF 100-92-75-67-50-42-25-17-HGBP-OFF 100-87-75-62-50-37-25-12-HGBP-OFF 100-95-83-78-67-61-50-45-34-28-17-12-HGBP-OFF 100-92-83-75-66-60-50-42-33-25-16-8-HGBP-OFF 100-93-87-81-75-69-63-56-50-43-37-31-25-19-13-6-HGBP-OFF NOTES: 1.5=12. End plates support sheets are 14 gauge galvanized steel. Each coil is pressure tested in the factory at not less than 450 psi air pressure. The cooler shell & baffles are constructed of steel and brass respectively. The coolers are insulated with heavy closed cellular foam insulation (3/4" thick). 2.5% minimum capacity). (BAR/PSIG) TEST PRESSURE. formed to provide structural strength.35 mm) thick copper tubes. HGBP = Hot gas bypass available on lead compressor for all models (optional). COMPACT DESIGN SHELL AND TUBE WATER COOLERS The DX shell & tube coolers with removable ‘U’ shaped bundled tubes are made of internally grooved copper tubes expanded into a heavy steel tubular sheets. (BAR/PSIG) DESIGN PRESSURE.3/342 WATER SIDE REFRIGERANT SIDE CABINET All units are of heavy gauge (G-90) galvanized steel. COMPRESSORS All compressors are semi-hermetic reciprocating type conforming to ARI 520. copper fins or acrylic coated aluminum fins or other coated coils may be provided. V & W-configurations condenser coils are corrugated fin and tube type. HGBP modulates to approximately 50% of compressor lowest unloaded capacity. Internal power and control wiring is neatly routed.014" (0. Each compressor has lock-out devices to protect it from short cycling when shutdown by the safety controls. drain connection and victaulic water pipe connection as standard. & 0. SHELL & TUBE HEAT EXCHANGER (COOLER) DESIGN PRESSURE. constructed of seamless 3/8" dia. All fan motors shall be three phase with class ''F'' winding insulation and ball bearings for high ambient application. Main Board: This controls up to two (2) compressor system. the impeller and motors are so constructed to form an integral unit. run time of the compressor & the alarm history. User Interface Board: Provided with simple to use push button keyboard and menu driven software to access operating conditions. Auxiliary Boards: Required for controlling an additional two (2) or more compressors.CONDENSER FANS Condenser fans are constructed of die cast aluminum blades/hubs with direct driven motors. 2. The Software works on the Proportional Integral Derivative (PID) algorithm for precise control logic. Menu adjustment and Fault. The 3 LED lights indicate the Power ON. ·· ·· ·· · System Protection: The following system protection is provided to ensure system reliability: compressor winding overheating Low suction pressure High discharge pressure Freeze protection Low oil pressure Sensor error Time delay – Anti recycle time for compressor Serial communication error ·· ·· ·· ·· 5 . All fans are statically and dynamically balanced to operate at minimum noise and vibration. CONDENSER FAN MOTOR Condenser fans. These fan motors are of totally enclosed air over type (TEAO) with inherent thermal protection of automatic reset type & specially designed for outdoor applications. An easy to install serial port/modem option allows remote monitoring of the operating parameters. Display Information: In the normal operating mode the 20 x 4 characters LCD panel display the system status. indicating the type of alarm. Software & programs are stored in a non-volatile memory (EPROM) to avoid chiller operating failure due to power supply interruption. This chiller controller is compatible with the Building Management System (BMS) BACNET/MODBUS protocols through corresponding optional gateway interfaces. Fan blades are designed with appropriate pitch angle which result in maximum airflow through the condenser coil. The simple to use push button keyboard allows accessing to the operating conditions. discharge and oil pressures Water inlet/outlet temperatures Compressor status Fan status Liquid line solenoid status Unit/Compressor run time The control temperature is continuously displayed on the 3 Digit 7 segments LED Display. 3. 4. MICROPROCESSOR CONTROLLER The microprocessor controller works on the state of art microprocessor technology. the temperature of the water inlet & outlet. Remote Monitoring System [Optional]: The micro controller is complete with all hardware and software necessary to remotely monitor and control the chiller unit. control set points & alarm history that are clearly displayed on the LCD panel. Easily accessible measurements for each circuit include the following: Suction temperature Suction. the set point. This controller monitors analog and digital inputs to achieve precise control & safety functions of the unit. The microprocessor consists of the following hardware: 1. control set points & alarm history that are clearly displayed on a multi-line back illuminated LCD panel. With corresponding windows software. It is also compatible with GSM protocol through GSM optional gateway that sends up to 3 mobile phone SMS messages whenever alarm take place. the corresponding compressor. the system allows data to be viewed in tabular or graphic format as well as interact with system set up. the related chiller and which location. SIGHT GLASS: A moisture indicating sight glass installed in the liquid line. CONTROL CIRCUIT TRANSFORMER: A factory mounted and wired control circuit transformer is furnished eliminating the need for running a separate 220 volt power supply to the unit control circuit.STANDARD CONTROL & SAFETY DEVICES MICROPROCESSOR CONTROLLER: This controller monitors analog and digital inputs to achieve precise control & safety functions of the unit. oil dilution and potential compressor failure. the breaker opens the power supply to the compressor and control circuit through auxiliary contacts. When tripped (manually or automatically). INDICATOR LIGHTS: LED lights indicates power ON to the units. These devices are rated to handle safely both RLA and LRA of motors. sludge. CRANKCASE HEATERS: Each compressor has crankcase heater. HIGH PRESSURE SWITCH: This switch provides an additional safety protection in the case of excessive discharge pressure. THERMAL EXPANSION VALVE: Thermal expansion valve is used to regulate the refrigerant flow to the water cooler and maintain a constant superheat. COMPRESSOR MOTOR INTERNAL OVERLOAD: The internal overload protects the compressor and senses the motor winding temperature in case of overload. REPLACEABLE CORE FILTER DRIER: Refrigerant circuits are kept free of harmful moisture. SAFETY VALVE: This valve protects the unit against high discharge pressure in the system due to malfunction of high pressure switches. CIRCUIT BREAKERS: Protects against compressor/condenser fans branch circuit fault. UNDER/OVER VOLTAGE AND PHASE PROTECTION: Protects against low/over incoming voltages as well as single phasing. MENU adjustment and FAULT indications due to trip on safety devices. STANDARD ACCESSORIES UNIT ON-OFF SWITCH: ON-OFF switch is provided for manually switching the unit control circuit. An easy-to-read color indicator shows moisture contents and provides a mean for checking the system refrigerant charge. acids and oil contaminating particles by the filter drier. phase reversal and phase imbalance by de-energizing the control circuit. DISCHARGE LINE MUFFLER: Discharge line mufflers are installed to eliminate noise due to refrigerant pulsation. It is an automatic reset device. The compressor crankcase heater is always on when the compressors are de-energized. This protect the system against refrigerant migration. LIQUID LINE SOLENOID VALVE: Closes when the compressor is off to prevent any liquid refrigerant from accumulating in the water cooler during the off cycle. 6 . STARTERS: The starter is operated by the control circuit and provides power to the compressor motors. but it can be set up for manual reset. POWER LINE ANALYZER: Perform compressor current limitation. Protect against high motor current & over/under voltage. ensuring narrow temperature swing and lengthen the life span of the compressor. NON-FUSED MAIN DISCONNECT SWITCHES: De-energize power supply during servicing/repair works as well as with door interlock. COPPER FINS/TUBES CONDENSER COILS: For seashore salty corrosive environments. FLANGED COOLER CONNECTION: Easy on-site piping connections. discharge & oil pressures gauges. MODBUS. Under low ambient condition. PRESSURE GAUGES: Suction. COOLER HEATER WRAPPED: Prevent freezing up of water on low ambient temperature. GROUND FAULT PROTECTION: Protect compressors in case ground cable has an abnormal current increase. COATED COPPER OR ALUMINUM FINS/TUBES CONDENSER COILS: For seashore salty corrosive environments. 7 . GSM and remote display panel. COMPRESSOR/COOLER GUARD: Protect the compressor from vandalism. it controls temperature by eliminating the need to cycle the compressor on and off. VIBRATION ELIMINATOR: To eliminate the vibration transmitted from the compressor to the pipings and unit structure. BMS: BACNET. CONDENSER COIL GUARD: Protect the condenser coil from physical damage. UNIT MOUNT SPRING ISOLATORS: These housed spring assemblies have a neoprene friction pad on the bottom to prevent vibration transmission. LIQUID COOLERS: ASME code stamped liquid cooler. Interlock into unit safety circuits so that the unit will remain off until water flow is determine. WATER FLOW SWITCH: Paddle type field adjustable flow switch for water cooler circuits.OPTIONS HOT GAS BYPASS SYSTEM: Hot gas bypass is provided on the lead circuit to permit operation of the system down to 50% of its unloaded capacity. 8 113.3 7.3 71.8 99. mm 194 219 273 273 273 273 324 324 324 LENGTH. kg 1477/1507 1746/1788 2204/2257 2378/2431 2761/2848 2823/2910 3067/3167 3559/3659 4295/4408 SHIPPING/OPERATING WEIGHTS (Copper coils).6 118.1 73. mm 1815 1820 1850 1850 2654 2654 2180 2180 2693 TOTAL WATER HOLDING VOLUME.3 7.Rows ./5m.4 7.2/64. 47.9/72. CFM 33240 31016 48948 48948 70830 68826 73014 73014 95288 NUMBER OF FAN/FAN DIA. 4.4 7.7/64. Liters 30 41. All compressors operate at 1750 RPM @ 60Hz.4 75.4 100-66-0 100-83-50-33-0 100-75-50-25-0 MOTOR OVERLOAD PROTECTION (INTERNAL) 100-92-75-67-50-42-25-17-0 ELECTRONIC OIL LUBRICATION PUMP TOTAL CRANKCASE HEATER WATTS 200 200 400 400 400 REFRIGERANT 400 400 600 800 R-22 EXPANSION VALVE DEVICE THERMOSTATIC CONTROL VOLTAGE 220V-1Ph-60Hz CONDENSER 3/8–4–14 CONDENSER COIL Tube Dia.5 87.4/67. dBA (3m.4/63. 5.4/63. 1/2) SOUND PRESSURE LEVEL. kg NOTES: 1582/1612 1897/1939 2508/2561 2682/2735 3081/3168 3201/3288 3514/3615 4005/4105 4854/4967 1. All coolers are single face refrigerant connection.9/68.9 74.3 71.5 99. Cooler vent and drain size are 1/2" MPT.2 53.mm 75 75 100 100 125 125 150 150 150 32 21 28 32 38/32 38 42 28/25 32/28 GENERAL REFRIGERANT CHARGE PER COMP.1/67.2/69.4/66. 2. 8 .1 71. kg (COMP. Sq. 3.5 47.9/68.8 53.5 95 95 118.PHYSICAL DATA UNIT SIZE ARY040A ARY050A ARY070A ARY080A ARY090A ARY100A ARY110A ARY120A ARY140A COMPRESSOR PART NUMBER 208/230V-3Ph-60Hz 800-674-51 800-690-25 (2) 800-690-28 (2) 800-674-51 (2) 380V-3Ph-60Hz 800-690-32 800-690-26 (2) 800-690-29 (2) 800-690-32 (2) 460V-3Ph-60Hz 800-690-33 800-690-27 (2) 800-690-30 (2) 800-690-33 (2) NUMBER OF COMPRESSORS OIL CHARGE PER COMPRESSOR. All compressors with cylinder unloading.7/70.7/7.3/67 73.2 87.5 WATER IN/OUT PIPE DIA.4 4..7 7. ft.1/67.6/62. Liters % FULL LOAD CAPACITY CONTROL 800-690-28 (2) 800-674-51 (2) 800-690-25 (2) 800-690-28 (2) 800-674-39 800-674-51 800-674-39 (2) 800-674-45 (2) 800-674-40 800-690-32 800-674-41 800-690-33 800-690-29 (2) 800-690-26 (2) 800-690-30 (2) 800-674-41 (2) 800-674-47 (2) 800-690-27 (2) 800-674-40 (2) 800-674-46 (2) 800-690-32 (2) 800-690-29 (2) 800-690-33 (2) 800-690-30 (2) 1 2 2 2 2 2 2 4 4 7./10m...) 71.Fins per inch 3/8–3–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–3–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–4–14 Total face area.mm 4/762 4/762 4/800 4/800 6/800 6/800 6/800 6/800 8/800 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 FAN MOTOR RPM @ 230/380/460-3-60 1100/1100/1100 1100/1100/1100 900/900/970 COOLER COOLER PART NUMBER 800-620-14 800-620-80 800-620-92 800-620-92 800-620-36 800-620-36 800-621-05 800-621-07 800-620-54 SHELL DIAMETER.6/62.7 7.1 SHIPPING/OPERATING WEIGHTS (Aluminum coils).4/4.8/72.6 140 140 175 AIRFLOW.4/7. Sound pressure level : ±2dBA.4 7.9/71.1 75. 4 7.6/71.4 7.7 7.7 206. 1/2) SOUND PRESSURE LEVEL.5 221.mm GENERAL REFRIGERANT CHARGE PER COMP.7 SHIPPING/OPERATING WEIGHTS (Aluminum coils).4/76.6 77.. kg NOTES: 5028/5141 5159/5272 5782/6004 5890/6112 5957/6163 8359/8758 8403/8802 8491/8890 9648/10102 1.5 199.6 227 150 150 200 200 200 150 150 150 150 32 38/32 38 42/38 42 32 38/32 38 42/38 WATER IN/OUT PIPE DIA.3/76.6/75.1/76. Liters 113.mm 8/800 10/800 10/800 12/800 12/800 14/800 14/800 14/800 16/800 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 FAN MOTOR RPM @ 230/380/460-3-60 COOLER COOLER PART NUMBER 800-620-54 800-620-54 800-620-57 800-620-57 800-620-60 800-621-06 (2) 800-621-06 (2) 800-621-06 (2) 800-620-53 (2) SHELL DIAMETER.1/69.4/66. Sound pressure level : ±2dBA.9/71.2/70.Fins per inch 3/8–4–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–4–14 3/8–3–14 Total face area.5/78/72. 2.7/7.5/76.8 79.9 80. 9 . mm 324 324 406 406 406 324 324 324 324 LENGTH. 175 175 211.7/76.7 78.6 199. dBA (3m.9 211.4 80.6/69. Cooler vent and drain size are 1/2" MPT.7/68./5m.7 7.5 113.6 199. CFM 95288 108790 115230 131124 131124 162442 162442 162442 199792 NUMBER OF FAN/FAN DIA.7 7.9 285 285 285 387.7 221.Rows ..5 81.8/71. kg (COMP.4 80. kg 4470/4583 4601/4714 5106/5328 5214/5436 5282/5488 7450/7849 7494/7893 7582/7981 8542/8996 SHIPPING/OPERATING WEIGHTS (Copper coils).2 AIRFLOW.100-92-83-75-66-60-50-4234-28-17-12-0 33-25-16-8-0 ELECTRONIC OIL LUBRICATION PUMP TOTAL CRANKCASE HEATER WATTS 800 800 800 800 800 REFRIGERANT 1200 1200 1200 1200 R-22 EXPANSION VALVE DEVICE THERMOSTATIC CONTROL VOLTAGE 220V-1Ph-60Hz CONDENSER 3/8–4–14 CONDENSER COIL Tube Dia..7 100-92-75-67-50-42-25-17-0 100-87-75-62-50-37-25-12-0 MOTOR OVERLOAD PROTECTION (INTERNAL) 6 6 6 6 7. ft.9/71. All compressors with cylinder unloading.9 211. mm 2693 2693 2737 2737 2737 2180 2180 2180 2693 TOTAL WATER HOLDING VOLUME. 5. 3.4 7. 4.) 74. All compressors operate at 1750 RPM @ 60Hz. Liters % FULL LOAD CAPACITY CONTROL 800-674-39 (2) 800-674-45 (2) 800-674-39 (2) 800-674-45 (4) 800-674-39 (4) 800-674-45 (4) 800-674-51 (6) 800-674-39 (6) 800-674-51 (2) 800-674-39 (2) 800-674-51 (4) 800-674-39 (2) 4 4 4 4 4 7. Sq. All coolers are single face refrigerant connection.4 7.PHYSICAL DATA UNIT SIZE ARY160A ARY170A ARY190A ARY200A ARY220A ARY240A ARY250A ARY280A ARY300A COMPRESSOR PART NUMBER 208/230V-3Ph-60Hz 800-674-51 (4) 380V-3Ph-60Hz 800-690-32 (4) 460V-3Ph-60Hz 800-674-40 (2) 800-674-46 (2) 800-674-40 (2) 800-674-46 (4) 800-674-40 (4) 800-674-46 (4) 800-690-32 (6) 800-674-40 (6) 800-690-32 (2) 800-674-40 (2) 800-690-32 (4) 800-674-40 (2) 800-674-41 (2) 800-674-47 (2) 800-674-41 (2) 800-674-47 (4) 800-690-33 (4) 800-674-41 (4) 800-674-47 (4) 800-690-33 (6) 800-674-41 (6) 800-690-33 (2) 800-674-41 (2) 800-690-33 (4) 800-674-41 (2) NUMBER OF COMPRESSORS OIL CHARGE PER COMPRESSOR.7/7.1 78./10m.2/73.7 100-95-83-78-67-61-50-45. 4 443. Sound pressure level : ±2dBA.6 81.7/74. mm 324 406 406 406 406 LENGTH.4 7.2 480 480 561. 5. ft. 2.. 3.4 443.1 561.4/77. All compressors operate at 1750 RPM @ 60Hz.7 83.7 82. All coolers are single face refrigerant connection.9/73. 4./5m.7 7. 10 . Liters 227 443.5/73.9/72.7/7.7 7.2 81. 1/2) 42 38/32 38 42/38 42 SOUND PRESSURE LEVEL. kg (COMP. Sq.) 82/78. Cooler vent and drain size are 1/2" MPT. Liters % FULL LOAD CAPACITY CONTROL 100-92-83-75-66-6050-42-33-25-16-8-0 800-674-47 (8) 100-93-87-81-75-69-63-56-50-43-37-31-25-19-13-6-0 MOTOR OVERLOAD PROTECTION (INTERNAL) ELECTRONIC OIL LUBRICATION PUMP TOTAL CRANKCASE HEATER WATTS 1200 1600 REFRIGERANT 1600 1600 1600 R-22 EXPANSION VALVE DEVICE THERMOSTATIC CONTROL VOLTAGE 220V-1Ph-60Hz CONDENSER 3/8–4–14 3/8–4–14 3/8–3–14 3/8–4–14 3/8–4–14 3/8–4–14 387.4/77. All compressors with cylinder unloading. FAN MOTOR RPM @ 230/380/460-3-60 COOLER COOLER PART NUMBER GENERAL NOTES: 1. CFM 196912 232038 227682 256260 256260 NUMBER OF FAN/FAN DIA.4 SHIPPING/OPERATING WEIGHTS (Aluminum coils).1 AIRFLOW.mm 16/800 18/800 18/800 20/800 20/800 900/900/970 900/900/970 900/900/970 900/900/970 900/900/970 800-620-53 (2) 800-620-57 (2) 800-620-57 (2) 800-620-57 (2) 800-620-60 (2) SHELL DIAMETER. kg 9882/10336 10981/11424 11481/11924 12277/12720 12410/12824 CONDENSER COIL Tube Dia..2/79.9/72.4 413 WATER IN/OUT PIPE DIA.5/78.. kg 8646/9100 9633/10076 9886/10329 10488/10931 10620/11034 SHIPPING/OPERATING WEIGHTS (Copper coils).7 COMPRESSOR PART NUMBER 208/230V-3Ph-60Hz NUMBER OF COMPRESSORS OIL CHARGE PER COMPRESSOR.Fins per inch Total face area. mm 2693 2737 2737 2737 2737 TOTAL WATER HOLDING VOLUME.Rows .PHYSICAL DATA UNIT SIZE ARY320A ARY350A ARY380A ARY400A ARY420A 800-674-45 (6) 800-674-39 (4) 800-674-51 (4) 800-674-39 (8) 800-674-45 (4) 800-674-39 (4) 800-674-45 (8) 380V-3Ph-60Hz 800-674-46 (6) 800-674-40 (8) 800-674-47 (6) 800-674-41 (8) 800-674-46 (4) 800-674-40 (4) 800-674-47 (4) 800-674-41 (4) 800-674-46 (8) 460V-3Ph-60Hz 800-674-40 (4) 800-690-32 (4) 800-674-41 (4) 800-690-33 (4) 6 8 8 8 8 7.mm 150 200 200 200 200 REFRIGERANT CHARGE PER COMP. dBA (3m.7 7./10m. 20F.2 -0. which then exceeds the requirements. STEP-4: CHILLED WATER PUMP SELECTION For chilled water pump selection. Design ambient temperature is 950F.990 0.97 6000 0.0).992 0. Power supply: 380V-3Ph-60Hz. NOTE: The total flow rate should be divided by 2 for models ARY240A .) 1.997 0.2. the high water flow rate will result to excessive pressure drop.8 Tons. enter correction curve at 12. Water cooler fouling factor is 0. Capacity = 94. Leaving chilled water temperature in 0F (LCWT) 0. The corrected LCWT is 44+0. add all pressure drop in the closed chilled water loop piping to the pressure drop calculated in step 2. ELEVATION ABOVE CORRECTION SEA LEVEL (FT.00100 CORRECTION FACTOR (0F) SAMPLE SELECTION Select an Air Cooled Packaged chiller for the following conditions: Required system capacity is 90 tons at 540F entering chilled water and 440F leaving water.8 tons and 111. 2.6 +0.4 +0. For the conditions required. Altitude POWER ARI 8. Chilled water flow rate in GPM 0.0 = 93. Electrical power supply EVAPORATOR FOULING CAPACITY FACTOR (HR-FT2-0F/BTU) STEP-1: UNIT SELECTION Entering the capacity performance data at given LCWT and ambient temperature. 11 . STEP-3: ELECTRICAL Refer to electrical data at 380V-3Ph-60Hz.50F and read the correction factor of 0.8x0. So the selection is correct. CORRECTION INPUT STANDARDS FACTOR FACTOR 10 15 20 CHILLED WATER TEMPERATURE RISE (0F) = 90 x 24 TABLE . In such cases.99x1.99 2000 3.951 0.4 5 STEP-2: CHILLED WATER FLOW (GPM): Water GPM = 1.95 10000 6.00025 0.00010 0. NOTE: 1.3 = 216 GPM Cooling Range.2 0 -0.When the chilled water temperature rise is less than 50F.965 0. contact factory for special selection of a cooler with wider baffle spacing.99) and fouling factor (1. Required capacity (Tons) x 24 1. the unit actual cooling capacity when corrected for altitude (0. EXAMPLE: If LCWT rise is 12.984 0.4 ft.SELECTION PROCEDURE (English units) DESIGN REQUIREMENTS CAPACITY The following design requirements must be known to select a package chiller.2 = 44. Design ambient temperature 0.2 +0. Minimum ambient temperature TABLE .1 7. STEP-5: LCWT CORRECTION Refer to table-3: Add correction factor to design leaving chilled water temperature (LCWT) when chilled water temperature range is above 100F and subtract correction from design leaving chilled water temperature (LCWT) when water temperature range is below 100F.00050 0. Altitude is 2000 feet above sea level. Required cooling capacity in tons FACTOR 1. the main power wire size for ARY100 is to be sized for a minimum circuit ampacity (MCA) of 283 Amps and maximum over current protection (MOCP) of 400 Amps. Chilled water cooling range in F (water in temp. of water for selected model.50F. water out temp.5 kW compressor power input at 440F leaving chilled water temperature with 100F water temperature difference and 950F ambient temperature.00 0 2. ΔT 100F Referring to pressure drop chart (page # 22).000 0.978 ARI-550/590-98 ARI-590-86 ARI-590-81 TABLE .ARY420A to find out the total pressure drop. ARY100 chiller unit at sea level will produce 94.98 4000 0 _ 4.) 0. pressure drop at 216 GPM = 11.978 0.96 8000 5.Please refer to water pressure drop curves.000 0.00075 0.00010. Leaving chilled water temperature in 0C (LCWT) 0.11 0 -0. Minimum ambient temperature TABLE 1 7. STEP-3: ELECTRICAL Refer to electrical data at 380V-3Ph-60Hz. pressure drop at 12.000088 0. ARY100 chiller unit at sea level will produce 330. water out temp. the high water flow rate will result to excessive pressure drop.When the chilled water temperature rise is less than 30C. In such cases. which then exceeds the requirements.97 1800 0.96 2400 5.239 Cooling Range. 2.3 = 12. CORRECTION INPUT STANDARDS FACTOR FACTOR +0. the main power wire size for ARY100 is to be sized for a minimum circuit ampacity (MCA) of 283 Amps and maximum over current protection (MOCP) of 400 Amps.997 0.SELECTION PROCEDURE (Metric units) DESIGN REQUIREMENTS CAPACITY The following design requirements must be known to select a proper package chiller.000 0.22 +0. The corrected LCWT is 60C+0.4 kPa for selected model.11 -0.0 = 327.239 6 0C TABLE .00 0 2.8 kW and 111 kW compressor power input at 60C leaving chilled water temperature with 60C water temperature difference and 350C ambient temperature.95 3000 6.978 ARI-550/590-98 ARI-590-86 ARI-590-81 TABLE .000 0. Design ambient temperature 0. Water cooler fouling factor is 0. 12 . add all pressure drop in the closed chilled water loop piping to the pressure drop calculated in step 2. STEP-4: CHILLED WATER PUMP SELECTION For chilled water pump selection. NOTE: The total flow rate should be divided by 2 for models ARY240A . ELEVATION ABOVE CORRECTION SEA LEVEL (Meter) 1. NOTE: 1. enter correction curve at 7.98 1200 0 _ 4.11.965 0.0).33 CORRECTION FACTOR (0C) SAMPLE SELECTION Select an Air Cooled Packaged chiller for the following conditions: Required system capacity is 320 kW at 120C entering chilled water and 60C leaving water.40C. Chilled water flow rate in LPS 0.99 600 3.99) and fouling factor (1.5 kW.7 LPS Referring to pressure drop chart (page # 22).978 0.992 0. For the conditions required. Power supply: 380V-3Ph-60Hz.22 4 5 6 7 8 9 10 CHILLED WATER TEMPERATURE RISE (0C) = 320 x 0.000132 0.000018 0.000044 0. Altitude is 600 meter above sea level. the unit actual cooling capacity when corrected for altitude (0. STEP-5: LCWT CORRECTION Refer to table-3: Add correction factor to design leaving chilled water temperature (LCWT) when chilled water temperature range is above 60C and subtract correction from design leaving chilled water temperature (LCWT) when water temperature range is below 60C.000176 1.990 0.8x0.ARY420A to find out the total pressure drop.984 0. So the selection is correct.7 LPS = 27.11 = 6. EXAMPLE: If LCWT rise is 7. Capacity = 330. ΔT 1.Please refer to water pressure drop curves.110C. Electrical power supply EVAPORATOR FOULING CAPACITY FACTOR (M2-0C/W) STEP-1: UNIT SELECTION Entering the capacity performance data at given LCWT and ambient temperature. Design ambient temperature is 350C.) 0. Altitude POWER ARI 8.951 0. contact factory for special selection of a cooler with wider baffle spacing.2 +0. Chilled water cooling range in C (water in temp. STEP-2: CHILLED WATER FLOW (LPS): Water LPS = Required capacity (kW) x 0.000018. Required cooling capacity in kilowatt (kW) FACTOR 1.99X1.40C and read the correction factor of 0. 07.17 1.11 1.02 1. Pressure drop correction factor is 1. SOLUTION) = Tons (water) x Cooling capacity correction factor.965 0. EXAMPLE: Metric system. SOLUTION) PRESSURE DROP = Water pressure drop (kPa) x Pressure drop correction factor. Apply these correction factors for corrected system performance values.G. BRINE (E.0 1. Ethylene glycol solution causes a variation in unit performance. Flow correction factor is 1.Determine Ethylene glycol percentage by weight and correction factors at 380F ambient temperature. BRINE (E.07. SOLUTION) FLOW (L/S) = KW (water) x Flow correction factor. Apply these correction factors for corrected system performance values.70C (110F) -16. SOLUTION) = KW (water) x Cooling capacity correction factor.40C to 100C) LCWT. Cooling capacity correction factor is 0.70C (20F) -21.970 0.G. BRINE (E.04 1. Flow correction factor is 1.30C (470F) 3. From the above table.07 1.0 1. Pressure drop correction factor is 1.ETHYLENE GLYCOL SOLUTION CAPACITY CORRECTION (Antifreeze) When operating in areas with temperatures below 320F (00C).02.Determine Ethylene glycol percentage by weight and correction factors where 3. SOLUTION) PRESSURE DROP = Water pressure drop (Ft. KW (E.985 0. BRINE (E.70C (-160F) Cooling capacity correction factor 1.G.G.30 EXAMPLE: English system.30C ambient temperature is 12% by weight. 13 .985. To obtain the effective performance.960 Water flow correction factor 1.30C ambient temperature. Ethylene glycol water solution concentration (percentage by weight) corresponding to 3.974 0. Cooling capacity correction factor is 0.G.24 1.964 0.0 0. TONS (E. Ethylene glycol water solution concentration (percentage by weight) corresponding to 380F ambient temperature is 12% by weight. ETHYLENE GLYCOL % BY WEIGHT Freezing point of Ethylene glycol solution Ambient temperature 0% 12% 22% 30% 00C (320F) -50C (230F) -100C (140F) -150C (50F) 36% 41% 46% 50% -200C (-40F) -250C (-130F) -300C (-220F) -350C (-310F) 8.02. Find the correction factors corresponding to 3.70C (-70F) -26.30C ambient temperature from the table.980 0.14 1.985.70C (290F) -6. From the above table.27 1. it is necessary to multiply the water performance data by correction factors corresponding to the ambient temperature or Ethylene glycol percentage indicated in the following table.20 Pressure drop correction factor 1.) x Pressure drop correction factor. NOTE: Correction factors apply to published chilled water performance rating from 400F to 500F (4.G.11 1. cooler protection in the form of Ethylene glycol solution (brine solution) is required to protect cooler from low ambient freeze-up.075 1. This brine solution must be added to water loop to bring down the freezing point with a difference of 150F (80C) below minimum operating ambient temperature.70C (200F) -11. Find the correction factors corresponding to 380F ambient temperature from the table. SOLUTION) FLOW (GPM) = Flow (water) x Flow correction factor.30C (380F) -1.18 1.22 1. 0 8.3 118.7 66.5 829.3 7.5 565.7 164.2 231.1 500.2 7.9 384.6 251. FLOW kW (GPM) (Tons) 1050F AMBIENT TEMPERATURE WATER CAP.3 105.7 292.8 222.4 6.9 483.0 199. 2.9 308.2 8.4 54.8 326.2 235.1 335.1 219.5 7.0 299.3 6.6 6.1 216.5 311. .6 6.5 78.7 WATER FLOW (GPM) 1250F AMBIENT TEMPERATURE WATER CAP.5 203.4 6.8 7.7 6.3 260.5 308.0 210.0 93.0 183.7 510.4 7.8 734.1 7.2 212.8 432.2 6.8 304.Compressor power input 37.9 173.8 120.6 376.7 289.1 179.9 240.8 365.7 6.9 6.8 377.2 6.2 7.2 282.3 7.2 8.3 245.5 482.2 143.9 95.9 395.1 404.1 91.6 124.5 718.1 6.2 9.3 122.1 323.5 237.0 7.6 239.7 8.0 275.4 309.4 167. FLOW kW (GPM) (Tons) 1150F AMBIENT TEMPERATURE WATER CAP.8 50.0 544.1 8.6 93.1 8. Packaged chillers are rated with ARI standard 550/590-98.9 158.8 265.4 9.0 113.4 384.5 6.2 875.7 6.3 405.9 8.2 180.1 374.0 6.9 124.5 364.8 525.8 476.8 269.4 122.9 624.3 159.8 74.8 219.7 677. Performance data are based on 100F water range in evaporator.7 6.4 296.9 147.0 6.8 202.0 EER 6.5 590.0 59.7 79.6 7.7 6.8 291.8 66.5 9.7 382.1 7.3 128.0 73.3 7.4 286.0 8.2 6.0 8.2 43.8 199.3 8.7 83.4 88.8 407. Ratings are based on 0.4 719.1 786.9 315.6 81.9 6.6 8.1 6.0 110.0 156.0 296.3 7.4 6.3 256.9 204.3 7.6 150.3 7.2 86.3 158.2 9.9 275.0 7.7 510. Do not extrapolate.2 8.4 469.6 7. COMP.8 184.8 140.0 7.9 124.5 259.9 242.2 138.9 561.5 206.2 191.5 204.7 6.2 411.7 194.3 757.3 7.7 372.4 7.1 165.2 143.4 159.5 433.6 6.0 8.6 103.9 100.3 8.0 9.1 661.4 196.0 337.3 8.3 422.4 7.1 8.4 401.0 6.7 106.6 424.2 92.5 417.6 549.3 247.4 9.0 166.8 99.3 331.3 196.7 115.8 524.4 9.7 6.5 73.0 6.4 168.2 96.8 643.7 392.3 799.8 701.7 9.3 6.2 8.6 283.2 173.4 464.0 237.4 343.7 177.9 EER 47.8 130.9 55.8 9.4 168.1 7.3 229.4 217.1 514.9 69.3 301.0 260.9 53.7 47.5 6.8 6.1 9.7 104.7 139.5 786.1 152.0 371.2 805.3 148.8 102.3 143.3 607.2 167.4 65.4 57.2 8.4 187.5 221.3 219.2 8.4 8.3 170.6 267.7 318.1 45.3 32.5 78.4 135.2 235.5 90.9 364.5 193.3 530.9 268.8 160.5 570.1 179.9 231.4 8.4 575.8 6.5 51.4 6.8 681.5 6.9 389.5 355.9 244.3 777.8 169.9 8.1 296.8 267.8 6.8 6.4 7.8 7.7 320.6 92.5 57.8 440.4 329.8 143.1 881.4 345.3 533.5 283. FLOW kW (GPM) (Tons) 950F AMBIENT TEMPERATURE LEGEND: ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A UNIT SIZE kW 42 0F 40 0F LEAVING CHILLED WATER TEMP.7 275.7 64.7 415.9 7.8 389.4 243.9 132.3 .9 6.5 77.3 7.6 6.7 81.4 53.8 588.2 8.4 31.2 450.5 297.3 146.4 284.2 117.7 50.4 142.3 197.7 62.8 80.1 87.8 503.0 8.8 390.0 211.9 603.0 698.3 53.2 76.8 340.6 488.9 275.5 160.0 327.4 194.3 468.0 48.9 260.2 238.7 90.5 100.1 205.6 697.0 232.6 132.3 8.9 220.0 169.9 395.1 437.5 318.5 255.3 42.8 116.0 169.3 8.0 496.5 6.6 249.4 169.8 77.9 7.7 311.1 7.1 457.5 588.5 6.9 75.2 184.8 417.0 466.2 64.3 74.7 334. 5.9 289.3 359.4 68.3 389.5 181.2 540.8 306.9 337.7 223.9 6.4 143.1 339.4 253.8 8.8 88.3 6.00010 (hr-ft2-0F/Btu) fouling factor for evaporator.4 210.8 246.1 150.7 459.1 283.1 8.4 179.7 229.2 208.2 8.2 8.5 9.9 151.9 6.1 7.0 85.3 81.0 147.7 317.0 260. FLOW kW (GPM) (Tons) 1200F AMBIENT TEMPERATURE WATER CAP.8 192.4 245.6 6.9 8.9 78.0 9.6 9.1 8.0 7.9 65.4 6.2 154.9 7.9 519.6 317.6 6.9 146.6 108.3 7.9 222.8 75.3 114.8 365.2 470.6 637.8 348.3 408.5 126.9 317.7 268.2 9.6 534.7 559.9 741.2 325.6 290.8 45.6 763.5 6.6 340. EER for entire unit. COMP.7 6.4 8.3 133.6 6.2 7.5 161.0 351.0 6.6 51.1 9.4 6.1 264.0 264.7 33.5 109.6 68.1 463.7 195.9 199.1 714.5 7. COMP.0 744.9 197.7 430.5 65.5 765.2 90.4 501.7 EER .4 803.4 474.7 8.9 6.6 292.8 73.5 934.3 190.4 333.0 104.2 624.0 441.1 9.1 155.4 9.2 83.9 581.2 491.5 6.4 8.7 162. (LCWT) PERFORMANCE DATA (English units) .8 8.7 96.1 477.9 217.2 382.8 8.1 225.9 726.8 138.9 454.6 299.1 163.0 7.2 9.7 829.7 7.8 EER 1.3 7.5 162.3 905.9 555.4 9.1 8.8 8.6 101.0 418.2 GPM 88.7 386.Gallons Per Minute 35.2 8.8 437.6 76.1 818.2 156.1 7.4 202.0 174.8 88.6 128.2 33. Refer to electrical data for fan kW.8 768.9 487.3 260.2 441.8 606.8 318.1 8.7 202.8 222.2 323.1 210.3 89.9 165.3 393.9 7.0 70.8 335.6 539.6 194.5 82.6 523.3 293.1 7.1 38.3 327.2 290.5 102.8 136.3 191.3 106.1 331.5 114.4 7.9 224.7 104.5 625.0 176.7 255.5 6.0 394.8 199.5 7.9 6.3 107.6 439.4 403.2 9.1 144.8 156.1 809.8 217.9 146.4 86.4 6.0 153.8 534.6 7.8 148.0 176.3 120.0 108.1 128.1 398.8 229.7 181.1 116.7 45.9 167.5 404.4 9. COMP.5 132.4 7.8 7.8 537.6 141.7 6.4 128.7 6.9 643.9 322.6 348.8 164.1 747.3 9.4 345.1 470.0 495.5 782.4 272.5 917.5 406.2 486.7 125.2 7.7 385.2 101.3 7.6 9.9 464.2 8.6 6.5 186.8 365.3 63.3 326.8 235.4 72.2 6.8 6.9 249.0 51.9 6.2 75.0 383.4 456.7 505.5 8.5 127.7 77.3 123.6 310.9 555.4 545.3 236.9 7.0 150.2 36.6 6.7 133.0 7.0 252.7 342.1 6.5 9.2 94.6 370.2 9.8 439.4 99.0 6.4 110.1 367.2 925.8 614.1 345.3 EER 75.6 119.6 253.9 69.5 7.3 602.1 574.1 216.2 203.5 680.6 214. COMP.9 343.0 661.6 6.4 8.6 6.3 121.1 7.3 7.5 199.0 182.1 275.0 809.0 357.6 78.4 7.2 8.8 139.1 7.9 388.4 118. Direct interpolation is permissible.0 9.2 415.9 CAP.9 139.4 112.2 53.1 414.14 84.4 7.1 971.1 7.7 55.4 335.1 131.7 353.9 252.1 316.4 189.0 8.1 201.5 6.0 6.4 103.1 8.1 8.4 510.2 127.5 374.2 209.2 605.3 7.7 67.9 82.4 775.7 517.4 385.6 6.9 7.0 212.3 9.5 110.4 161.1 212.8 863.4 136.9 6. 3.5 460.4 381.0 308.3 430.3 289.4 6.4 7.1 149.0 622.6 6.2 159.3 7.3 128.9 107.3 9.8 43. 4.8 306.Energy Efficiency Ratio 8.6 345.7 502.5 7.8 361.1 326.0 451.9 171.9 87.4 695.6 7.2 271.4 183.1 303.7 143.7 6.2 290.0 6.4 162.1 7.7 6.2 267.6 171.5 154.6 338.9 233.0 91.3 836.6 325.1 7.1 9.1 361. 44.9 7.2 352.9 9.6 NOTES: 9.8 856.5 6.6 6.9 84.1 254.6 7.1 494.5 302.5 248.9 448.3 278.9 876.4 372.8 231.4 265.8 84.5 343.2 561.8 84.1 298.6 207.1 9.7 333.0 298.9 180. kW power input is for compressor only.6 231.2 9.1 351.3 857.3 195.4 811.0 323.2 7.0 212.9 252.0 7. kW (Tons) 79.2 108.8 283.3 828.9 239.2 430.8 458.4 257.2 431.3 6.1 98.0 310.7 EER 77.4 587.3 201.2 430.7 226.1 107.4 282.8 6.4 217.6 135.5 530.3 174.0 183.4 186.5 34.4 48.5 402.4 90.2 71.5 716.1 551.9 32.3 356.3 428.0 7.8 162.0 225.8 73.5 189.9 8.6 132.7 189.5 642. 3 411.1 317.9 9.5 293.7 9.6 475.7 235.9 361.1 212.8 6.1 227.5 149.3 111.7 455.9 310.8 126.4 9.0 8.0 286.8 205.7 228.9 137.8 119.4 WATER FLOW (GPM) 1250F AMBIENT TEMPERATURE WATER CAP.6 7.8 6.3 616.8 6.3 188.9 464.1 115.9 34.7 7.8 6.5 149.1 336.2 112.2 7.9 6.7 664.4 7.9 377.6 81.3 154.2 69.6 7.0 435.4 8.0 297.8 94.5 356.0 466.5 67.5 96.8 146.9 411.2 7.1 507.7 6.4 9.0 231.7 114.8 354.5 151.4 386.6 172.0 784.7 112.3 204.4 111.8 126.8 882.8 6.0 54.0 377.4 8.1 108.1 537.3 552.1 163.4 7.8 110.5 489.7 584.1 181.2 346.3 221.4 7.6 628.3 7.4 200.0 7.3 383.4 7.9 269.2 9.7 298.3 9.1 594.5 804.4 6.7 6.8 52.5 100.6 6.3 337.0 716.8 182.5 9.0 39.3 8.1 572.8 349.1 7.8 623.7 45.8 427. 5.3 526.0 276.9 333.7 581.8 191.2 7.7 374.7 70.5 233.7 47.4 150.2 8.9 444.2 155.3 9.5 393.6 319.0 6.2 7.5 52.6 6.3 314.4 8.6 9. COMP.7 236.8 164.8 796.8 275.7 81.6 7.4 209.7 167.0 8.3 7.0 147.8 133.0 306.7 6.9 211.3 8. Packaged chillers are rated with ARI standard 550/590-98.9 245.8 6.9 286.4 355.6 7.5 284.5 8.5 6.8 7.3 302.3 9.3 381.4 66.1 504.6 83.2 242.0 178.5 94.0 371.3 NOTES: 9.7 165. COMP.6 57.0 64.3 153. 4.6 123.2 131.1 223.8 8.9 296.5 8.9 213.4 557.0 348.0 6.0 74.8 363.5 367.7 6.2 121.4 443.6 7.0 225.2 108.8 159.2 507.6 428.5 8.2 413.5 7.9 577.8 7.9 189.3 346.4 9.5 68.8 7.0 443.7 199.8 315.1 7.0 699.3 588.4 80.1 EER 1.5 8.6 188.7 319.1 238.8 50.2 9.5 535.9 EER 83.4 116.3 8.4 492.1 393.3 225.9 284.1 156. kW power input is for compressor only.5 8.1 8.4 120.9 324.0 6.4 207.0 438.6 324.9 226.8 516.9 482.9 87.4 316.9 6.6 261.9 373.6 567.7 192.6 8.9 202.9 6.8 83.5 6.3 8.4 851.6 344.1 163.0 6.6 7.2 103.6 7.9 836.3 182.1 743.8 9.0 7.4 8. kW (Tons) 85.7 396.0 7.2 133.5 7.5 7.7 276.8 6.1 640.2 84.7 90.8 72.5 7.7 85.7 257.9 49.5 401.0 266.1 522.Gallons Per Minute 37.2 373.4 7.6 56.7 766.6 859.4 365.0 220.2 7.1 82.9 530.1 407.9 84.3 490.0 200.5 144.3 207.2 95.2 175.2 332.0 408.0 344.8 467.3 91.2 135.6 102.9 6.0 7.1 259.8 205.3 337.6 EER 80.5 178.8 214.5 55.5 119.4 335.5 150.7 126.1 155.7 403.6 288.3 130.6 7.5 41.5 109.0 300.3 229.7 170.6 179.9 6.5 8.5 8.8 443. 46.1 6.2 9.7 8.1 445.1 148.6 663.5 304.5 546.0 73.0 219.3 7.5 79.0 383.6 218.7 169.1 420.4 338.9 186.1 58.7 78.4 278.4 276.9 478.3 216.5 179.6 321.0 266.0 324.5 9. Performance data are based on 100F water range in evaporator.6 326.4 7.9 97.1 67.7 8.Compressor power input 39.7 49.8 9.2 113.8 328.5 934.1 7. Direct interpolation is permissible.5 202.2 906.6 142.8 9.3 7.0 227.4 899.9 896.3 283.7 8.2 193.6 518.2 196.1 332.2 143.8 271.5 6.2 EER 49.8 926.9 114.0 CAP.0 7.9 374.0 304.1 250.2 354.9 466.6 7.3 478.2 415.5 547.7 362.5 130.1 6.1 450.8 578.8 761.0 79.5 431.6 125.2 797.0 194.9 55.0 422.7 401.4 9.9 35.4 7.5 7.1 476.6 228.7 432.4 497.3 315.9 199.9 285.8 7.0 95.6 88.9 9.2 8.5 387.0 187.1 88.1 6.8 344.4 251.2 7.2 598.9 47.6 266.1 453.4 254.3 9.9 6.6 207.9 167.4 247.2 827.6 549.3 602.1 88.5 130.7 249.5 34.2 630.3 514.7 249.4 213.0 194.8 159.5 83.3 406.8 159.6 282.2 8.1 869.9 561.00010 (hr-ft2-0F/Btu) fouling factor for evaporator.4 786.5 7.9 6.5 9.5 269.9 110.0 318.9 205.4 220.5 9.2 263.2 340.7 422.5 9.9 109.4 8.7 7.5 195.1 79.2 746. Ratings are based on 0.1 118.3 272.1 326.3 EER 6.0 9.5 153.4 266.4 6.1 403.5 123.7 223.6 9.7 303.6 683.3 307.1 8.3 484.6 9.2 7.7 760.5 7.9 246.5 285.4 526.5 8.0 325.8 6.0 139.3 230.4 9.0 419.2 283.6 221.0 92.2 7.3 611.6 871.2 7.3 8.8 367.3 205.7 955. Do not extrapolate.7 148.4 663.3 7.4 140.6 275.6 241.3 185.7 450.3 787.3 172.1 93.8 641.7 6.2 7.7 267.5 650.2 253.6 55.8 898.7 6.5 92.3 219.0 511.9 7.6 77.1 6.4 7.7 92.1 327. 3.Energy Efficiency Ratio 8.6 8.5 605.0 8.4 439.1 77.8 111.6 976.1 176.7 160.0 720.7 211.0 352.6 466.7 416.1 8.9 1011.2 7.2 493.2 660.0 354.6 237.9 77.0 756.6 6.4 851.9 104.7 349.6 187.3 355.5 167.0 86.6 9.3 9.4 344.8 206.9 219.7 553.7 8.1 7.9 660.1 9.5 259.1 7.6 451.1 424.1 8.5 277.9 7.6 534.7 6.5 8.8 451.7 7.6 683.5 151.3 59. EER for entire unit.6 36.6 240.5 6.7 9.7 260.9 256.6 7.3 177.9 85.1 8.7 311.8 271.8 134.6 375.4 279.6 882.5 722.0 236.6 6.2 7.5 7.3 686.7 6.9 174.4 76.7 464.5 69.9 80.5 122.4 839.9 335.7 6.3 633.3 364.5 81.2 95.9 151.6 175.4 992.1 33.1 171.6 391.8 314.0 197.3 475.1 7.3 86.7 358.7 827.3 90.5 7.4 340.4 275.3 413.4 EER .7 703.6 8.9 185.6 217.7 291.9 6.5 194.9 75.2 7.7 168.4 73.6 117.4 8.0 8.3 8.1 442.6 75.0 526.2 7.2 169.5 8.9 1051.7 165.3 83.0 35.3 601.5 334.7 131.6 7.1 173.4 476.8 106.7 7.2 102.2 385.3 408.2 243. (LCWT) PERFORMANCE DATA (English units) .3 362.3 123.1 139.7 6.7 7.1 261.5 817.5 9.7 113.3 109.5 129.1 396.6 9.0 139.1 645.3 7.5 212.5 119.4 87.8 168.5 7.2 9.9 189.5 398.5 6.1 .6 7.4 98.4 374.9 293.6 6.2 70.0 456.7 240.6 72.7 389.3 154.4 401.7 402.7 473.1 315.0 53.8 6.8 113.8 452.6 7.1 229. COMP.9 6.2 7.7 394.7 503.5 318.3 808.3 311.1 7.0 156.2 7.2 7.4 551.2 8.1 104.8 946.8 680.6 565.3 766.9 146.2 300.8 6.2 7.0 360. .1 7.7 6.3 241.1 261.5 202.0 61.4 234.1 189.3 107.8 9.1 737.6 266.4 368.9 570. FLOW kW (GPM) (Tons) 1050F AMBIENT TEMPERATURE WATER CAP. FLOW kW (GPM) (Tons) 1200F AMBIENT TEMPERATURE WATER CAP.5 71.9 184. FLOW kW (GPM) (Tons) 950F AMBIENT TEMPERATURE LEGEND: ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A UNIT SIZE kW 46 0F 44 0F LEAVING CHILLED WATER TEMP.4 252.4 202.2 61.5 171.7 403.2 428.3 210.9 309.7 GPM 95.3 256.9 541.0 275.1 9.0 244. FLOW kW (GPM) (Tons) 1150F AMBIENT TEMPERATURE WATER CAP.5 78.5 516.5 98.7 139.0 275.5 538.4 304. Refer to electrical data for fan kW.9 51.1 877.9 344.4 9.5 93.3 9.2 126.5 616.8 599.5 390.4 237.3 436.7 176.9 135.6 7.7 194.5 382.6 94. 2.0 199.6 133.3 351.5 364.3 7.6 8.4 169.15 90.4 238.5 157.6 215.5 141.3 9.2 102.0 736.3 8.9 173.4 59.6 9.8 9.9 176.6 188.0 247.0 159.1 243.0 568.2 7.4 423.1 181.6 304.2 106.4 98.6 146.7 6.9 6.8 447.1 47.0 331.9 135.0 223.9 6.5 421.3 295.5 163.8 245.4 137. COMP.0 173.0 929.7 148.3 6.9 131.2 8.4 347.6 6.2 7.8 843.8 531.5 8. COMP.1 174.0 506.6 223.8 7.8 267.1 143.5 436.0 615.5 838.6 256.5 9.7 142.6 94.3 298.7 582.2 363.5 54. 3 717.4 563.0 100.0 970.4 90.3 529.5 68.7 7.0 181.3 119.3 250.4 10.5 566.0 293.5 7.7 540.9 7.0 165.0 117.2 505.4 8.7 947.1 7.7 91.5 471.6 8.9 9.1 91.7 7.6 80.4 7.9 6.2 462.5 7.4 8. FLOW kW (GPM) (Tons) 1200F AMBIENT TEMPERATURE WATER CAP.7 953.5 130.4 7.7 119.5 7.3 9.4 316.1 223.7 87.4 693.3 360.7 7.3 831.6 133.6 115.4 573.3 199.4 865.4 180.2 119.7 8.8 228.9 146.9 210.6 76.2 388.5 640.3 99.9 335.6 7. Do not extrapolate.1 172.6 876.6 1005.2 236.2 374.5 7.6 182.2 234.6 .7 188.8 9.1 920.1 161.7 97.4 340.9 940.3 339.8 296.8 95.6 629.9 350.0 7.0 631.9 268.5 8.3 322.2 479.3 411.8 9.5 50.4 231.7 148.1 6.8 283.8 256.5 155.3 384.6 284.8 324.9 529.7 301.8 255.1 154.4 545.6 209.8 588.7 220.3 898.1 7.0 217.9 498.0 139.3 212.4 215.6 503.4 595.6 485.3 157.7 504.0 6.1 234.6 751.7 227.3 9.3 434.7 106.2 150.9 182.1 605.0 299.4 355.1 251.4 713.9 210.4 489.0 92.2 90.4 126. 48.8 360.9 167.8 692.2 86.2 235.5 467.2 1030.4 565.3 8.3 343.0 9.8 525.2 7. COMP.0 227.3 419.9 162.1 289.7 227.8 7.6 7.2 267.1 1000.9 272.1 875.6 160.5 49.6 9.8 479.1 443.2 313.9 614.2 486. (LCWT) PERFORMANCE DATA (English units) .7 7.9 8.6 197.7 356.0 737.9 453.8 202.6 8.3 213.5 803.9 10.8 7.2 399.4 391.4 275.9 257.2 378.9 280.6 255.6 50.6 346.6 9.4 42.3 70.3 911.4 7.0 133.8 305.1 286.6 119.3 650.0 7. COMP.0 272.6 179.0 6.7 CAP.00010 (hr-ft2-0F/Btu) fouling factor for evaporator.6 242.7 281.2 7.1 6.4 392.6 7.7 354.7 441.6 377.3 400.9 7.4 450.9 408.4 99.3 7.4 643.4 885.5 455.2 338.7 397.9 278.1 7.0 615.9 36.3 7.6 266.5 9.1 52.3 126.8 8.7 203.9 7.0 136.8 287.1 193.7 37.7 7.7 8. 5. Ratings are based on 0.2 773.9 270.7 325.4 7.0 167.1 7.7 8.7 7.9 85.4 129.3 485.4 540.8 293.6 548.2 248.7 232.3 580.3 7.8 255.9 221.1 7.7 203. .2 378.5 197.8 EER .2 394.5 908.6 352.1 112.5 116.8 8.6 77.9 247.8 373.7 56.2 402.9 7.3 262. FLOW kW (GPM) (Tons) 950F AMBIENT TEMPERATURE LEGEND: ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A UNIT SIZE kW 50 0F 48 0F LEAVING CHILLED WATER TEMP.6 66.9 9.9 334.7 379.2 332.2 10.9 210.6 364.3 370.1 231.0 322.6 74.0 331.5 420.4 326.8 7.2 1016.3 814.9 465.0 6.4 9.6 623.3 732.9 106.3 426. Performance data are based on 100F water range in evaporator.1 402.3 855.7 101.4 326. Refer to electrical data for fan kW.8 7.7 416.9 76.6 408.0 225.3 1055.4 154.1 621.7 114.6 200.7 59.6 7.9 107.3 121.9 6.6 659.0 704.2 609.2 397.6 391.6 8.8 208.8 382.9 8.8 823.3 7.5 328.7 9.0 288.9 468.1 317.8 9.2 176.9 6.8 9.5 230.1 232.1 7.2 7.5 7.2 7.1 153.8 738.7 187.8 359.0 419.1 123. FLOW kW (GPM) (Tons) 1050F AMBIENT TEMPERATURE WATER CAP.7 532.2 223.0 6.7 801.8 9.2 423.8 8.9 7.6 148.8 7.1 9.0 146.0 7.9 9.3 488.0 88.0 115.5 466.2 550.8 8.1 239.9 126.9 337.4 369.5 7.7 8.9 174.9 64.8 439.2 152.7 179.3 8.1 622.9 245.3 299.3 205.0 9.9 7.0 85.0 6.2 378.7 7. COMP.4 265.0 61.4 62.8 192.3 389.7 759.4 7.1 248.8 430.5 174.4 9.0 249.6 76.6 99.0 6.8 7.3 834.3 90.3 162.4 7.3 296.2 256.6 7.2 391.7 106.6 245.4 9.0 557.0 6.4 452.3 158.4 7.2 504. EER for entire unit.4 7.3 116.0 7.0 698.5 8.1 783.8 176.2 9.8 432.9 8.1 10.6 308.4 347.7 562.1 627.6 159.6 283.2 99.2 104.0 256.0 247.6 194.1 153.7 288.4 8.2 140.7 6.8 259.8 54.1 87.3 7.0 592.9 9.5 7.9 9.8 9.6 EER 6.2 7.8 470.4 199.5 9.1 9.1 85.1 230.7 58.1 252.8 401.7 52.7 423.9 180.6 411.3 417.2 75.9 175.3 8.8 192.0 78.8 378.9 104.7 96.3 10.0 9.0 294.0 189.0 582.8 145.6 941.7 9.4 969.2 96.4 71.9 GPM 103.8 429.3 167.9 497.6 329.5 535.0 228.9 369.3 152.5 130.7 113.4 7.5 907. FLOW kW (GPM) (Tons) 1150F AMBIENT TEMPERATURE WATER CAP.7 790.5 7.7 9.0 209.16 97.0 182.5 263.1 434.3 136.9 306.8 347.6 101.9 164.9 89.6 85.3 297.2 254.2 365.6 84.5 82.9 101.8 539.3 477.8 8.8 6.9 7.5 117.4 204.1 290.6 7.8 196.2 274.9 79.5 144.5 214.7 196.8 216.3 1132.3 445.7 575.5 351.9 218. COMP.0 333.5 7.1 589.6 485.5 1008.4 546.3 446.9 189.2 71.8 712.1 7.3 398.5 472.0 134.5 89.7 7.1 907.4 7.8 143.3 73.8 189.5 9.3 170.9 127.1 629. 2.9 8.7 282.8 7.9 161.6 8.7 270.9 7.3 171.1 122.8 503.1 176.9 6.0 597.4 515.6 338.2 404.0 717.4 136.2 106.4 301.0 547.4 673.6 401.7 6.7 457.7 7.3 92.6 863.1 426.9 7.5 109.4 217.3 349.8 135.6 7.7 8.5 417.6 932.9 644.9 7.3 196.4 456.0 6.2 7.1 419.6 9.8 95.0 438.1 225.9 6.9 98.2 362.5 39. Direct interpolation is permissible.1 6.5 163.6 217.0 155.6 8.7 9.5 127.9 93.6 236.1 7.1 596.1 283.9 7.1 7.1 473.8 6.4 8.3 7.7 559.7 159.9 117.7 66.5 419.8 351.1 181.3 159.3 157.5 383.7 471.4 291.5 EER 51.7 214.3 777.6 44.0 9.5 8.Compressor power input 43. COMP.7 6.1 144.0 8.1 241.8 103.8 298.1 143.4 374.7 242.8 EER 87.3 239.3 250.6 111.6 117.8 110.7 372.1 582.2 EER 90.9 10.3 381.6 9.9 6.0 7.2 54.5 159.9 7.5 135.2 614.5 8.3 658.2 150.7 1070.7 556.3 171.7 510.5 37.1 360.5 8.7 141.5 7.1 7.4 221.9 818.6 421.0 9.0 287.0 388.3 187.1 233.5 EER 1.6 135.8 202.1 895.0 245.7 965.6 307.9 161.9 6.2 7.9 411.2 102.9 463.0 170.1 6.3 211.9 180.1 238.0 59.2 55.5 83.2 96. 3. kW power input is for compressor only.1 494.3 273.9 7. kW (Tons) 92.9 310.1 309.2 125.0 977.7 8.3 407.4 49.7 9.9 94.Energy Efficiency Ratio 8.9 437.9 8.4 557.9 329.2 308.6 126.8 8.7 152.4 302.7 454.7 183.7 10.3 7.6 192.1 38.9 8.3 118.1 262.8 8.5 7.9 80.5 263.9 266. 4.6 8.3 238.0 712.7 475.3 676.3 852.7 7.0 7.7 8.1 199.9 186.5 7.6 258.3 345.3 317.8 1090.2 529.7 57.5 403.1 307.7 175.0 7.1 594.0 528.8 7.3 7.7 369.9 182.2 7.4 328.8 359.0 8.7 109.1 58.5 7. Packaged chillers are rated with ARI standard 550/590-98.1 310.3 7.4 212.5 281.8 6.4 667.7 8.4 151.1 220.9 113.6 10.5 7.1 8.4 56.5 211.9 7.6 151.4 82.4 190.2 185.6 340.8 7.0 209.8 97.0 363.7 7.2 275.0 956.4 455.3 372.7 922.6 141.9 183.5 8.7 63.3 8.7 9.5 90.2 124.Gallons Per Minute 40.6 223.7 439.3 7.7 348.0 202.3 7.8 7.1 38.9 289.3 463.2 111.3 461.9 7.6 219.5 81.6 52.5 83.0 8.4 7.8 504.9 6.6 306.0 842.7 8.4 98.0 488.0 9.4 810.1 78.5 215.3 387.5 397.2 NOTES: 9.0 518.8 205.0 326.8 7.1 455.1 259.7 141.6 325.4 563.0 574.8 494.8 7.1 94.0 445.2 7.0 236.7 73.1 234.7 513.7 8.4 278.7 351.8 229.4 WATER FLOW (GPM) 1250F AMBIENT TEMPERATURE WATER CAP.6 9.7 242.4 7.8 137.6 244.1 83. 9 88.9 160. 43.9 1.8 312.9 8.6 2.0 21.5 539.4 2.1 10.0 32.2 12.7 432.3 701.2 92.1 424.8 232.0 141.8 1.9 38.9 460.5 2.1 2.1 109.5 18.9 326.9 1122.1 770.7 403.4 389.6 1321.4 9.0 1.3 557.1 305.1 1162.7 2.0 401.6 1286.9 247.3 6.0 9.5 281. kW 4.9 19.3 117.8 496.9 1. Performance data are based on 60C water range in evaporator.2 295.2 68.6 30.6 9.3 27.2 125.4 COMP.4 255.2 611.4 575.5 12.5 450.6 13.5 2.1 517.1 510.6 1110.7 2.2 568.8 443.0 97.7 2.6 2.3 144.5 311.2 681.1 2.0 1257.7 2.1 214.5 113.1 28.1 7.2 146.9 30.1 1046.8 548.0 2.3 32.4 483.7 276.5 287.8 108.7 17.9 1.9 1.5 283.1 537.Liters Per Second 118.7 256.2 1149.1 35.3 245.2 22.7 279.4 2.4 278.0 2.5 2.9 691.6 CAP.4 301.8 41.7 1027.4 326.9 22.4 150.8 1.7 2.0 477.9 415.0 564.4 554.6 229. Packaged chillers are rated with ARI standard 550/590-98.8 COP 4.2 90. Ratings are based on 0.0 2.0 186.3 119.2 368.5 491.5 39.5 1043.9 1.9 1215.0 1.9 166.8 456. (kW) 52.6 163.9 1.1 2.6 2.6 260. kW 1.9 101.9 2.3 172.3 431.4 429.2 47.0 2.5 CAP.1 12.3 2.4 2.7 266.6 1055.8 317.5 2.9 469.8 181.4 2.5 6.2 257.9 1.0 1.6 2.9 46.8 2.8 2.9 1.9 2.8 322.3 410.4 2.9 501.2 16.5 11.8 435.6 48.1 12.8 582.9 83.3 2.2 139.2 2.0 382.9 1.3 12.4 332.0 2.9 1.4 1101.9 1.0 2.6 1284.6 2.8 517.4 1204.7 628.8 1.1 1026.7 44.9 196.2 562.9 12.5 23.0 454.4 38.4 147.7 238.3 8.7 49.7 473.0 1.9 28.3 21.7 1190. 2.8 27.7 2.2 228.2 24.9 28.6 91.0 200. kW LPS 5.1 219.3 134.0 2.7 1355.7 1249.9 2.6 2.2 910.3 376.9 486.9 1.6 588.4 542.9 1. Do not extrapolate.0 185.0 215.9 1.8 154.2 1158.1 2.6 119.0 229.1 320.8 55.2 198.0 2.3 2.1 679.4 2. 5.9 9.8 1.6 513.0 713.1 2.7 2.4 54.1 43.1 558.1 142.9 198.7 2.3 273.7 41.2 28.4 2.5 531.6 17.7 663.1 2.2 2.4 105.9 COP 4.9 304.1 208.5 WATER FLOW (LPS) 500C AMBIENT TEMPERATURE PERFORMANCE DATA (Metric units) 105.4 556.2 2.4 258.8 91.2 163.6 2.2 624.6 6.1 10.3 73.8 11.6 114.4 20.7 94.5 2.2 1133.9 1.9 1.4 266.5 517.5 114.6 34.5 25.3 295.7 22.6 2.2 19.6 21.4 2.1 2.0 249.2 7.0 31.0 266.0 996.1 568.8 296.3 127.2 2.0 140.2 16.4 41.3 576.0 966.9 810.6 40.7 1275.7 2.2 2.5 542.6 64.9 1.8 1.0 333.8 922.9 COMP.0 427.1 271.2 22.3 1166.4 2.7 1077.6 21.4 2.7 191.7 776.6 9.4 317.9 501.1 272.7 17.8 250. kW power input is for compressor only.2 492.0 2.3 25.4 168.0 24.1 702.4 19.1 2.3 527.9 964.0 201.1 892.7 48.2 239. kW 1.9 855.8 1108.7 23.1 193.9 1.4 WATER FLOW (LPS) 520C AMBIENT TEMPERATURE .1 1006.5 21.9 35.4 50.7 2.1 23.5 2.4 2.3 41.4 425.7 328.0 1.5 497.3 48. .8 40.5 2.7 10.5 306.9 1.1 2.0 271.7 32.9 448.0 2.9 14.7 11.9 1.Compressor power input 124.4 22.0 13.6 46.2 2.0 2.8 220.7 339.2 182.9 300.3 2.8 127.0 14.4 1145.6 30.9 237.0 397.0 2.1 2.9 337.1 316.6 100.6 23.9 936.4 2.1 2.5 1191.2 68.7 23.4 131.2 558.4 2.4 182.7 984.9 389.8 448.7 26.3 178.4 2.9 527.7 44.4 17.9 1.000018 (m2 -0C/W) fouling factor for evaporator.4 2.6 122.9 1.5 902.8 52.0 463.0 150.6 1190.6 383.4 424.7 171.3 234. 2.2 27.0 2.1 129.2 5.6 166.7 2.5 50.0 45.3 13.1 13.9 149.9 20.9 1.8 COP .3 2.7 586.2 53.7 47.2 596.8 35.5 412.3 225.8 1.4 112.7 543.2 2.6 2.5 876.2 260.7 2.5 76.3 439.0 1.6 11.4 216.6 243.9 1.0 26.3 551.8 598.5 492.8 36. (kW) 51.0 29.1 2.6 2.4 190.6 253.6 352.1 2.0 677.3 370.2 22.2 99.1 120.2 420.9 7.6 2.1 202.0 36.8 224.2 2.7 2.8 9.2 2.9 409.5 361.4 128.8 877.3 24.5 131.9 2.5 371.6 289.4 364.1 51.7 448.1 1004.9 301.1 18.3 CAP.1 53.1 1069.4 2.2 476.1 5.2 2.2 78. 6.2 1078.0 198.2 2.9 CAP.0 2.8 6.3 37.7 24.5 507.4 2.7 324.2 10.9 2.9 25.9 53.1 2.6 129.7 349.4 7.0 39.8 2.6 606.9 1.4 2.5 785.6 280.8 187.0 1.7 286.1 920. Direct interpolation is permissible.7 20.2 11.1 2.0 356.2 1182.6 323.2 527.6 14.7 148.7 2.2 107.1 281.5 2.4 19.6 644.6 COP 4.6 1246.8 36.4 75.0 210.7 271.0 1.0 1.0 4.0 564.4 874.8 12.7 2.1 80.2 45.7 2.8 18.2 340.5 724.5 511.8 1.0 2.0 20.9 1.0 302.7 521.0 13.2 242.4 27.7 29.5 6.3 11.6 27.3 270.5 288.1 2.0 227.2 308.0 2.6 507.0 7.4 2.2 206.1 469.8 568.6 383.1 603.9 1.9 1.7 483.1 30.4 2.2 242.2 581.1 2.5 2.5 2.6 160.8 4.9 36.8 1331.3 47.6 2.9 18.8 COMP.2 34.5 135.8 255.6 577.9 1208.7 2.3 9. kW WATER FLOW (LPS) 400C AMBIENT TEMPERATURE .7 2.1 10.4 2.9 1.0 2.4 157.3 695.1 232.3 2.7 WATER FLOW (LPS) 460C AMBIENT TEMPERATURE 1.8 2.7 1402.2 33.1 43.7 16.4 14.3 822.9 1.3 85.9 2.3 168.4 342.4 11.4 2.6 2.1 2.9 45.0 19.7 391.8 598.9 20.4 25.3 384.9 294.8 1.8 461.4 300.1 214.1 111.8 936.9 12.2 45.5 15.2 728.1 7.0 227.6 2.9 204.4 368.0 28.6 182.3 419.1 48.6 223.8 1079.9 1.7 6.4 264.8 218.0 45.3 5.8 346.5 316.2 23.9 1.4 77.3 175.3 10.7 2.8 1.1 197.5 8.4 273.8 1.1 26.7 29.0 644.9 1.3 1134.6 994.6 488.8 4.5 30.7 40.3 2.1 2.8 10.2 2.1 76.8 146.2 44.1 44.3 659.6 45.4 2.3 593.2 440.4 525.5 23.2 2.9 642.2 72.4 290.6 20.9 1.2 490.8 431.6 115.5 8.2 106.0 34.8 CAP.1 2. (kW) WATER FLOW (LPS) 350C AMBIENT TEMPERATURE LEGEND: ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A UNIT SIZE kW 5 0C 4 0C LEAVING CHILLED WATER TEMP.8 824.7 54.0 2.0 40.0 2.1 74.1 31.5 467.8 21.9 39.3 124.7 746.3 849.1 2.1 20.1 COP 3.1 2. (LCWT) 107.9 103.0 2.9 35.6 2.4 233.9 2.9 673.0 47.5 248.0 17.5 2.1 10.5 51.5 49.2 290.4 2.1 2.8 474.6 14.4 7.9 238. Refer to electrical data for fan kW.9 16.9 429.3 2.9 37.4 89.5 667.5 2.9 2.1 541.1 2.8 12.1 2.1 107.6 9.9 2.0 781.2 25.5 10.8 219.7 435.4 2.0 1121.0 1.9 1.7 43.6 341.Coefficient of Performance 2. (kW) COP 46.4 151. (kW) NOTES: 2.9 281.2 49.5 346.9 339.0 2.2 2.2 46.4 2.1 391.4 2.5 457.8 767.0 43.4 758.7 460.6 451.5 792.9 1.7 31.4 COMP.2 2.3 458.1 799.0 10.4 1134.6 35.4 705.17 4.6 751.1 806.1 2.0 2.3 33.2 848.8 51.1 116.2 217.8 210.0 2.4 42.5 1013.6 109.1 400.7 13.6 22.0 23.1 897.8 631.7 121.3 9.1 258.0 897.1 524. COP for entire unit.9 1.6 COMP.9 1.6 2.5 65.3 2.8 301.7 104.7 2.0 7.3 254.4 26.0 502.1 87.9 1.1 263.7 2.4 193.7 2.3 42.3 266.5 19.0 584.3 31.6 1046.1 18.1 878.9 1349.1 2.2 284.5 735.9 10.0 2.9 263.0 360.3 32.6 22.9 1. 7 438.2 2.0 214.0 474.6 33.1 160.0 2.5 754.5 15.9 6.6 5.7 269.0 1.7 2.1 671.8 68.5 361.6 156.0 502.5 2.5 13.3 249.4 204.1 12.1 94.9 54.4 34.4 2.1 1185.9 53.6 766.4 280.4 1131.2 531.4 105.8 2.9 25.3 464.8 6.8 24.1 582.1 556.0 406.3 377. kW 2.7 95.6 238.1 1235.6 23.0 2.6 120.2 394. Performance data are based on 60C water range in evaporator.4 CAP.4 449.0 COMP.8 9.1 COMP.0 489.2 56.3 18.4 1250.2 285.4 262.3 528.6 14.5 2.7 728.9 2.1 312.2 778.1 111.1 81.8 125.2 2.2 467.6 38.3 4.3 522.5 294.1 1064.3 221.9 46.0 231.1 624.8 166.9 641.6 217.4 2.9 2.7 2.3 190.8 31.5 WATER FLOW (LPS) 460C AMBIENT TEMPERATURE 1.2 36.2 60.7 46.5 2.7 135.4 90.4 470.4 26.2 464.1 80. Packaged chillers are rated with ARI standard 550/590-98.8 2.9 1507.5 12.2 923.8 93.0 599.5 2.2 30.0 181.8 2.5 10.2 56.6 172.9 10.0 2.1 22.0 2.3 203.2 40.1 573.3 13.5 836.5 32.6 287.0 2.2 196.8 37.4 2.9 559.3 22.5 45.8 308.5 2.6 2.1 4.7 2.6 72.0 782.2 27.3 111.8 28.8 241.3 51.0 8.6 21.1 49.7 2.6 839.2 2.2 172.4 257.8 2.1 530.5 833.9 191.8 23.9 452.7 1104.8 1241.8 183.3 55.8 107.6 2.9 2.5 52.7 2.9 58.8 42.4 199.1 2.9 1.4 470.1 9.2 2.2 12.4 246.1 2.9 53.1 584.4 43.5 23.7 25.3 20.1 2.1 35.5 2.6 318.4 528.1 27.1 22.0 1.6 1194.7 944.4 43.1 520.1 2.0 5.0 2.1 2.3 269.8 647.7 2.9 108.2 531.2 2.0 2.7 1077.2 2.6 1127.8 2.8 460.3 252.7 89.2 2.9 1.2 39.6 145.3 1205.0 24.0 42.9 1105.0 2.6 275.7 49.7 113.5 20.4 472.0 2.2 375.6 2.0 2.7 42.9 26.0 1.4 47.0 1172.2 2.4 521.4 671.0 1.1 612.6 31.3 49.0 342.4 156.2 2.1 2.1 33.8 49.3 77.9 509.5 598.1 739.3 1281.1 28.8 2.2 584.8 2.7 7.0 918.7 144. (kW) 54.9 1.8 402.3 7.7 136.4 2.2 24.9 202.8 532.6 11.9 2.1 907.9 1.0 2.2 207.3 20.2 565.7 57.1 23.0 2.7 30.6 206.4 198.2 2.1 641.5 580.0 17.0 272.7 2.2 202.0 2.0 2.2 2.8 854.2 440.7 51.2 29.5 1052.0 940.8 381.9 1.5 15.6 251.2 885.7 152.8 707.5 501.3 821.7 36.7 2.3 36. Direct interpolation is permissible.2 330.7 2.1 480.6 100.4 943.0 1.7 280.0 2.3 444.6 315.3 539.0 2.1 2.7 49.9 279.2 2.6 9.7 6.2 2.8 592.5 2.9 1.9 COP .9 133.Compressor power input 138.6 751.4 2.1 124.0 2.7 147.2 366.6 123.0 85.6 231.3 604.1 50.7 6.2 188.0 1. Ratings are based on 0.1 2.4 19.6 295.4 122.1 614.2 1128.5 1085.4 335.3 309.4 984.1 14.3 127.8 297. kW 4. COP for entire unit.3 195.2 2.9 2. 5.8 2.1 46.9 361. kW power input is for compressor only.2 2.0 2.4 136.5 589.7 2.9 438.4 2.8 323.1 17.4 309.2 2.3 541.6 13.5 437.1 552.9 755.3 84.3 1345.3 9.0 15.1 COMP.2 594.9 15.6 50.6 2.2 317. (kW) WATER FLOW (LPS) 350C AMBIENT TEMPERATURE LEGEND: ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A UNIT SIZE kW 7 0C 6 0C LEAVING CHILLED WATER TEMP.0 263.9 1.1 199.7 353.0 706.1 111.2 175.7 52.6 234.2 624.5 2.9 2.4 292.4 1050.2 691.0 384.7 12.4 16.4 15.3 10.8 2. (LCWT) 119.3 482.3 456.9 1380.8 2.Liters Per Second 132.7 507. kW 2.5 17.8 41.1 380.5 440.1 483.6 2.0 2.5 339.9 2.7 46.7 2.8 285.8 245.7 1220.8 22.4 8.8 431.5 283.7 43.1 117.4 447. 2.5 427.7 2. (kW) NOTES: 2.5 333.0 32.9 286.4 1013.8 10.5 21.1 747.6 351.9 2.6 2.3 49.0 2.1 12.7 330.7 514.5 655.8 11.5 239.8 30.1 169.5 2.6 1251.5 7.2 15.7 541.2 401.5 2.0 44.5 2.3 2.7 1302.1 2. .4 12.4 213.7 13.6 2.6 79.3 299.0 1.5 2.0 239.0 2.8 2.0 2.5 2.3 48.5 29.2 1409.2 2.1 2.6 798.4 2.4 1031.0 148.0 COP 4.7 185.3 39.4 139.9 923.5 2.1 32.6 162.5 2.5 10.1 WATER FLOW (LPS) 500C AMBIENT TEMPERATURE PERFORMANCE DATA (Metric units) 116.7 986.4 375.1 1275.0 18. kW WATER FLOW (LPS) 400C AMBIENT TEMPERATURE .0 2.3 78.6 490.2 33.0 1.3 866.9 606.0 2.0 2.1 2.2 354.2 2.2 17.3 362.3 94.2 2.6 22.9 542.8 1019.9 601. Do not extrapolate.9 19.0 47.0 273.3 414.7 2.6 29.2 245.6 8.7 2.3 229.1 567.8 619.1 20.4 2.0 1340.6 301.0 2.1 2.7 618.7 2.5 468.5 2.7 22.4 12.5 37.7 2.8 11.0 323.5 2.7 566.7 499.9 1.9 512.7 253.2 2.0 1045.3 1097.4 25.6 109.7 243.6 1454.5 41.9 52.7 1235.0 2.3 225.9 571.0 31.4 317.7 492.6 508.2 66.3 46.9 2.6 18.7 277.0 11.6 1160.8 1431.2 421.5 720.0 1.4 815.1 20.2 14.9 26.6 125. 2.1 166.8 2.6 24.0 2.8 33.2 175.0 2.5 2.2 336.2 25.9 2.7 400.5 240.2 2.7 24.0 1.2 10.8 499.2 421.1 11.1 2.0 1.2 690.3 1376.6 395.7 427.0 1.8 2.2 294.7 337.2 2.9 1311.9 207.9 392.4 22.6 827.2 2.6 328.9 76.9 1.4 11.0 34.4 275.1 274.0 1206.3 2.2 2.6 626.9 163.6 878.6 208.8 19.9 94.7 290.1 119.2 2.1 9.0 CAP.4 576.4 220.3 412.7 36.0 CAP.8 480.9 12.7 153.5 2.4 110.7 2.0 267.9 13.2 267.8 2.2 338.2 2.4 2.5 21.6 53.4 225.4 256.0 2.2 445.9 1.3 216.0 2.0 2.5 2.4 7.9 2.7 675.7 112.8 2.0 2.3 40.7 44.2 519.9 37.6 2.7 1070.7 1293.3 439.7 131.7 340.6 1195.5 132.0 499.0 129.2 2.9 14.1 385.1 2.8 20.6 277.9 6.1 5.0 555.6 910.2 7.9 354.18 5.2 23.0 1217. 46.6 COP 4.4 102.3 CAP.0 38.2 74.0 2.1 2.7 461.2 2.5 92.8 1335.0 29.1 7.9 1.9 293.3 451.2 396.0 COMP.7 447.9 1.0 235.5 202.2 311.3 25.6 23.0 2.3 153.0 2.7 28. 6.3 48.3 2.1 44.4 241.6 51. Refer to electrical data for fan kW.3 324.9 1.7 2.4 261.8 45.4 2.8 103.9 21.3 399.8 480.3 115.0 188.1 2.1 987.3 39.4 611.5 898.1 330.0 21.7 2.Coefficient of Performance 2.8 2.2 1161.6 33.8 869.1 34.9 1.0 2.8 2.2 2.8 2.0 150.8 18.0 305.0 11.6 265.8 31.6 14.5 35.1 COP 3.8 548.2 409.6 567.1 2.2 716.1 2.9 47.9 1138.2 246.0 1.0 2.5 10.2 23.5 2.9 1.7 354.7 637.000018 (m2 -0C/W) fouling factor for evaporator.9 542.6 303.8 1160.8 11.5 2.9 658.4 2.7 8.8 314.3 2.8 288.1 79.1 302.4 346. (kW) 55.5 2.4 267.4 45.5 24.8 19.4 2.2 11.1 731.8 804.8 222.9 70.6 26.0 286.6 2.5 534.1 11.0 256.2 133.2 9.9 949.9 280.9 554.9 28.5 117.8 36.1 21. kW LPS 5.1 297.0 1.0 19.5 173.4 2.2 452.9 958.4 122.6 41.7 397.9 970.5 18.2 2.9 WATER FLOW (LPS) 520C AMBIENT TEMPERATURE .3 55.1 CAP.1 2.4 2.2 142.9 474.9 COP 4.5 8.7 43.4 316.0 48.6 37.2 268.9 1095.9 2.1 235.4 26.1 169.4 415.9 COMP.1 155.5 35.7 250.1 226.2 786.4 2.0 376.9 612.6 119.6 1270.6 11.0 2.1 2.9 953.8 364.0 48.5 2.1 38.2 30.6 2.5 9.6 10.8 127.2 2. (kW) COP 48.3 24.5 220.8 175.5 2.0 2.5 850.5 2.6 210.8 2.3 98. 1 2.6 178.3 561.7 222.5 73.1 31.3 302.5 2.8 1342.3 2.5 283.1 2.3 239.1 504.6 2.4 11. (kW) 57.3 72.1 2.7 2.8 2.6 195.5 291.5 15.1 2.5 473.1 254.2 2.9 2.5 409. .0 484.6 2.1 26.1 2.7 1420.9 399.6 694.9 99.8 59.7 27.9 2.0 26.9 1004.9 281.5 21.9 178.2 2.1 47.0 245.7 272.5 44.8 1295.0 453.9 387.6 2.3 2.6 34.4 WATER FLOW (LPS) 520C AMBIENT TEMPERATURE .1 328.4 790.0 2.4 509.0 1245.3 58.4 178.1 408.2 49. (LCWT) 126.3 2.2 11.9 265.2 12.3 COMP.4 52.8 608.1 2.4 85.9 48.3 36.2 13.7 33.6 33.4 207.7 285.5 2.1 2.1 15.8 15.5 59.8 2.2 2.8 COP 5.0 1.3 9.4 2. Do not extrapolate.9 328.0 140. kW 4.0 261.3 532.7 5.2 120.0 16.7 892.2 7.9 62.7 242.2 1129.6 2.5 52.1 694.0 45.9 21.2 COP 3.4 1055.7 11.7 2.5 CAP.8 533.3 5.3 2.3 12.8 161.4 488.0 2.6 816.9 38.6 329.4 792.3 184.9 584.4 539.0 2.9 531.5 2.3 23.4 322.5 2.9 210.1 2.2 579.9 305.7 134.4 337.6 38.6 10.8 2.9 218.3 27.1 461.2 2.Coefficient of Performance 2.6 477. COP for entire unit.3 421.9 24.8 2.1 2.7 334.3 2.8 25.1 2.1 336.0 2.9 136.5 24.1 342.0 2.3 7.3 297.8 2.4 324.6 22.1 48.0 1391.1 2.0 62.2 730.5 51.0 2.3 465.7 401.3 19.0 2.8 481.6 43.0 1122.2 102.9 348.6 472.5 153.7 289.2 2.6 982.7 50.4 29.2 229.1 12.8 114.4 1481.5 886.1 35.8 3.2 254.8 49.0 2.0 247.8 273.4 12.6 1047.5 228.8 1017.7 311.2 2.4 227.6 150.6 11.1 2.3 663.3 125.6 317.5 26. Direct interpolation is permissible.7 29.4 492.8 2.5 56.2 265.4 541.2 596.Liters Per Second 139.2 2.9 141.7 1494.7 1108.5 635.2 10.8 639.1 183.2 1560.9 474.2 1172.2 1415.9 14. Packaged chillers are rated with ARI standard 550/590-98.8 968.9 2. kW 2.0 408.2 422.4 16.8 302.1 6.5 534.5 19.9 2.8 304. (kW) WATER FLOW (LPS) 350C AMBIENT TEMPERATURE LEGEND: ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A ARY 040A ARY 050A ARY 070A ARY 080A ARY 090A ARY 100A ARY 110A ARY 120A ARY 140A ARY 160A ARY 170A ARY 190A ARY 200A ARY 220A ARY 240A ARY 250A ARY 280A ARY 300A ARY 320A ARY 350A ARY 380A ARY 400A ARY 420A UNIT SIZE kW 10 0C 8 0C LEAVING CHILLED WATER TEMP.0 119.9 52.2 447.1 2.3 1266.3 2.9 39.2 215.1 239.2 66.9 1026.1 27.5 409.0 1584.8 25.7 53.9 12.4 840.5 374.2 38.3 2.7 8.2 47.3 592.1 2.5 210.1 868.9 1.3 376.6 2.4 501.4 12.5 2.2 554.3 261.9 46.6 218.8 2.6 28.3 238.0 145.1 779.7 2.6 499.0 1.2 COMP.5 87.5 421.4 59.1 1192.2 2.8 481.7 244.8 2.1 743.0 2.7 12.1 806.7 308. 2. (kW) COP 50.3 626.5 2.9 8. (kW) NOTES: 2.8 159.7 23.3 200.9 2.9 1485.6 662.7 297.7 132.2 34.9 95.6 802.0 2.9 2.8 648.0 48.1 2.6 510.4 1316.4 257.5 1666.6 1079.6 1362.7 956.7 192.1 2.3 2.1 14.4 2.2 1259.1 622.9 3.9 1238.8 896. 47.9 346.9 922.9 21.3 2.1 346.5 2.2 741.1 8.8 453.6 2.1 316.7 32.8 521.2 343.2 698.6 35.5 17.0 2.5 712.6 2.2 2.1 2.3 2.6 19.0 2.8 564.0 56.9 2.5 429.8 255.6 544.1 36.1 COP 5.5 1017.4 162.6 2.3 15.5 557.0 2.9 2.9 218.8 COP .4 651.3 2.6 COMP.3 367.5 1214.2 754.7 341.1 392.5 214. kW 2.0 2.9 21.9 2.6 41.6 1090.2 49.1 2.9 279.1 46.3 670.8 280.8 2.7 1388.7 350.1 2.6 876.1 1000.3 24.8 1295.8 2.1 310.8 43.9 636.2 749.5 2.6 45.5 55.6 569.1 2.3 473.9 10.1 14.0 925.5 27.6 2.5 59.9 319.0 18.1 456.3 97.3 25.5 14.8 406.3 234.3 2.5 301.3 2.9 2.7 2.6 328.5 13.3 2.3 2.9 5.2 2.4 288.9 80. kW WATER FLOW (LPS) 400C AMBIENT TEMPERATURE .3 1111.5 2.9 2.1 193.0 2.2 2.8 1050.1 22.0 11.7 230.1 588.0 376.5 105.9 96.7 2.1 2.9 1205.3 29.5 445.3 49.3 56.9 6.8 9.0 2.1 117.8 575.6 55.0 44.4 292.4 2.7 277.5 323.8 13.6 542.9 2.1 2.9 113.1 1131.Compressor power input 146.5 350.0 35.6 2.8 55.4 172.4 795.1 22.1 549.4 169.8 46.6 54.9 3.0 COP 4.3 134.8 833.3 8.9 2.0 13.1 829.7 31.6 602.3 314.5 CAP.0 16.9 670.1 284.7 29.8 273.8 1294.0 47.3 82.2 267.6 388.4 101.9 128.5 538.8 1271.4 40.6 2.8 21.8 CAP.6 2.8 2.5 417.9 223.6 55.3 10.6 511.4 300.0 664.0 2.5 16.3 26.0 15.7 11.5 2.2 2.5 155.4 51.6 115.0 558.2 2.1 305.0 425.5 51. kW power input is for compressor only.2 2.2 33.9 42.2 338.8 528.0 2.7 498.8 167.9 2.5 2.5 1326.3 2.9 28.3 142.9 20.2 25.3 386.0 25.0 2.4 15.2 2.6 23.0 420.1 205.6 360.3 2.0 6.2 1329.0 606.3 2. (kW) 56.1 2.7 1154.7 2.4 7.6 1320.5 2. kW LPS 5.9 352.3 WATER FLOW (LPS) 460C AMBIENT TEMPERATURE 1.2 500.6 15.6 206.6 50.2 2.7 594.8 39.4 566.1 436.2 292.6 360.3 651.5 249.3 976.6 243.5 23.7 417.7 31.1 2.1 2.9 376.1 32.19 5.6 55.9 78.2 2.1 23.6 43.6 2.7 782.2 53.2 912.9 110.5 136.3 2.3 541.5 CAP.1 80.9 175.8 11.0 33.5 2.9 2.4 2.7 136.6 249.7 24.4 355.1 10.0 375.0 2.1 120.6 358.9 220.2 317.3 2.1 858.2 6.7 COMP.4 321.7 9.4 577.8 2.1 942.6 2.1 31.7 629.0 40.3 2.6 2.8 19.0 213.1 2.8 305.1 2.2 10.9 566.9 282.4 40.7 2.6 14.6 41. Refer to electrical data for fan kW.1 614.5 2.4 1414.8 52. Ratings are based on 0.6 139.2 2.3 172.2 401.9 2.7 367.7 1208.4 10.3 2.0 16.3 368.2 1165.6 178.0 229.7 14.0 1336.4 58.0 479.2 518.5 118.2 780.8 30.3 55.6 586.8 602.6 770.4 300.4 158.7 32.6 35.2 710.4 40.5 82.3 694.0 1.000018 (m2 -0C/W) fouling factor for evaporator.6 1250.2 149.3 83.7 296.1 2.5 1454.4 21.0 18.4 156.7 25.7 WATER FLOW (LPS) 500C AMBIENT TEMPERATURE PERFORMANCE DATA (Metric units) 123.2 2.5 19.0 92.6 37.4 99.9 53.3 12.5 2.7 37.3 2.0 1.0 2.5 353.6 7.0 641.4 106.2 9.3 2.6 2.0 8.1 2.4 284.6 125.4 76.2 201.9 834.3 112.0 13.2 307.7 273.3 13.1 49.0 2.4 905.2 1047.0 2.9 2.1 1241.8 436.9 1.0 131.9 2.9 2.3 21.7 2.3 709.6 232.3 31.5 968.4 570.5 349.8 2.3 622.7 499.6 1478.3 363.5 1077.3 189.0 2.6 63.1 39.1 41.2 22.0 2.4 26.2 150.7 316.1 2.2 131.7 13.7 24.0 2.7 2.0 453.9 2.1 2.9 CAP.6 181.2 127.5 34.1 2.1 2.2 2.0 1.2 28.4 499.0 12.7 158.1 1388.1 937.1 260.6 209.0 2.9 31.8 425.6 69.6 7.5 2.9 2.9 604.1 2.1 2.0 2.6 2.2 209.6 439.2 660. 6.5 880.4 852.3 18.1 34.6 507.1 85.6 181.2 36.6 153.1 2.2 2.5 2.5 274.8 465.0 2.9 466.5 2.7 577.3 628.3 2.0 2.2 683.2 90.2 455.4 53.1 286.1 2.1 223.9 1559.8 8.4 2.1 1189.2 44.4 2.6 2.7 2.1 2.0 2.1 675.6 2.2 519.0 400.2 144.0 58.8 595.7 2.9 12.8 26.8 2.9 1.4 135. 5.3 2.2 479.7 330.3 2.3 334.5 743.8 29.2 23.1 50. Performance data are based on 60C water range in evaporator.4 262.4 259.1 1379.6 2.5 121. 2.1 2.8 COMP.0 27.2 26.0 20.1 553.0 113.6 109.6 130.0 2.9 629.5 96.2 22.9 1183.6 248.1 2.8 2.5 30.9 387.5 36.1 1388.2 2.0 2.1 196.0 2. 2 553 3 127 2 226 2 66.4 20. The compressor crankcase heaters must be energized for 12 hours before the unit is initially started or after a prolonged power disconnection.87 1.20 271 132 111 291 160 135 320 176 149 476 230 194 506 263 223 521 283 241 600 331 279 572 315 265 763 388 328 901 436 368 947 489 415 977 530 451 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 .4 12.48 3.9 19.8 523 3 123 2 339 2 98.74 1. Neutral line required on 380V-3Ph-60Hz power supply only.9 4.6 553 3 139 2 69 2 8 5.40 73 2 6 3.74 1. Qty.0 868 3 212 2 327 2 96. 2.3 436 3 102 1 191 1 80.50 COMPRESSOR TYPE-1 CB1 RLA LRA CB MOCP Qty.2 27.0 602 3 146 2 394 2 115.1 268 3 63 2 32 2 8 3.0 527 3 121 2 704 2 131.6 553 3 139 2 248 2 72.6 13. 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 Volts 200 200 200 200 200 200 400 400 400 400 400 400 400 400 400 400 400 400 400 400 400 600 600 600 800 800 800 800 800 800 800 800 800 800 800 800 0.74 1.1 268 3 63 2 964 2 201.40 38 2 2 66.6 13.6 23.48 3.48 3.0 868 3 212 4 533 4 96.74 1. All field wiring must be in accordance with NEC and local standards.2 27.3 436 3 102 2 274 2 80.40 52 2 6 3.0 947 3 228 2 400 2 116.7 4.48 3.87 0. 7.Minimum Circuit Ampacity per NEC 430-24 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 Max.3 436 3 102 2 51 2 10 3.61 2.40 52 1 1 80.0 868 3 212 2 485 2 96.2 27. Minimum and maximum unit supply voltages are shown in the tabulated data above.60 114 1 1 201.4 20.4 11. (each) (each) Poles MTA Qty.48 Total Total Watts Amps CRANKCASE HEATER NOTES: 1.48 3.60 106 2 4 5.Must Trip Amps CB MTA .4 11.4 20. (each) kW MTA Qty. The ±10% voltage variation from the nominal is allowed for a short time only.4 20.74 1.Maximum Over Current Protection MCA LEGEND: ARY190A ARY170A ARY160A ARY140A ARY120A ARY110A ARY100A ARY090A ARY080A ARY070A ARY050A ARY040A UNIT SIZE ELECTRICAL DATA .00 62 2 2 96.4 8.0 947 3 228 1 380 1 116. SUPPLY VOLTAGE Nominal (V-Ph-Hz) MOCP .9 11.74 1.8 23.61 3.4 19.48 3.4 7.4 12.0 455 3 103 4 .1 268 3 63 2 677 2 201.0 868 3 212 2 106 2 10 5.3 436 3 102 1 51 1 6 3.2 27.74 1.2 351 3 85 4 1163 2 216.2 332 3 76 2 209 2 60.Circuit Breaker .0 868 3 212 1 106 1 6 5.74 1.00 62 4 10 3.74 2.90 114 2 6 5.40 62 2 6 3. The maximum incoming wire size is 500 mcm.90 106 2 2 131. On units having MCA greater than the ampacity of 500 mcm wire.74 1.4 21.0 4. Main power must be supplied from a single field supplied and mounted fused disconnects.20 42 2 2 60.40 61 2 6 3.0 455 3 103 2 851 2 251.4 11.4 35.0 455 3 103 2 1193 4 216.87 0.20 106 4 8 5. 5.2 332 3 76 2 38 2 8 3.6 10.2 59 34 34 59 34 34 FCA CONDENSER FAN MOTORS CB2 CB2 CB1 FLA Total RLA LRA CB Qty.74 1. 4. MTA Qty.6 35.48 3.0 947 3 228 4 647 4 116.60 42 2 4 3.60 51 2 4 3.0 868 3 212 1 228 1 96.4 20.0 4.9 19.2 332 3 76 2 326 2 60.4 17.48 3.4 20.20 114 2 2 201.2 351 3 85 1 411 2 120.9 7.40 29 2 4 2.0 455 3 103 1 737 2 216.8 523 3 123 4 549 4 98.4 15.6 13.0 332 3 70 2 35 2 6 3. 6.90 69 2 2 120.74 1.4 12.4 15.40 32 2 2 55 268 3 58 2 29 2 6 3.6 13.4 19.40 42 1 4 2.90 133 2 6 5.2 351 3 85 2 42 2 10 3.4 20.0 332 3 70 2 190 2 55.60 38 2 4 3.6 10.40 35 2 4 2.74 1.2 553 3 127 2 63 2 6 5.74 1.0 1089 3 265 2 469 2 138.4 21. 20 11.87 0.40 51 1 4 2.00 52 4 10 3.4 8.0 268 3 58 2 451 2 131.48 3. MCA Min.9 15.87 0.61 2.9 11.00 52 2 2 80.9 11.6 553 3 139 2 387 2 72. using dual element time delay fuse or circuit breaker.Full Load Amps .4 11.4 12.20 51 2 2 72.4 17.7 4.3 436 3 102 4 448 4 80.Rated Load Amps .40 69 2 4 5.9 4.4 20.8 523 3 123 2 513 2 98.4 35.9 7.2 351 3 85 2 722 1 216.50 114 4 10 5.20 42 4 8 3.2 351 3 85 2 1102 4 201.4 7.9 15.87 0.40 62 1 1 96.4 47. 106 1 4 5.4 35.Fan Circuit Amps FLA FCA .74 1.3 436 3 102 2 408 2 80. (each) (each) Poles MTA Qty.2 351 3 85 1 42 1 6 3.2 47. 472 1 201.48 3.9 11.48 3. the factory supplied power terminal block will accept two parallel field wires per phase.8 20 11.Locked Rotor Amps RLA LRA COMPRESSOR TYPE-2 2 2 2 2 2 2 2 2 2 2 2 2 3 3 3 3 3 3 3 3 3 3 3 3 4 4 4 4 4 4 5 5 5 5 5 5 CB Qty.20 51 4 8 3.40 63 2 4 5.8 523 3 123 1 321 1 98.0 947 3 228 2 606 2 116. 3.60 32 2 4 3. not permanent. 22 5.3 436 3 102 4 52 4 4 80.4 30.96 6.96 6.80 14 5.22 5.0 868 3 212 4 62 2 4 96.0 1089 3 265 6 1055 6 138.0 455 3 103 4 133 8 73 8 61 8 - COMPRESSOR TYPE-1 CB1 RLA LRA CB MOCP Qty.0 455 3 103 8 2300 4 251. The maximum incoming wire size is 500 mcm.4 30.0 602 3 146 4 643 4 114.0 868 3 212 6 746 6 96.9 26.22 5.96 6.4 54.6 47.20 51 4 18 3.8 82.70 18 5.96 6.20 18 3.60 42 4 14 3. 1319 2 251.0 455 3 103 2 133 4 73 4 61 4 106 6 51 6 42 6 114 2 4 201.10 106 4 14 5.8 523 3 123 8 968 8 98. 6.4 25.40 106 4 18 5.4 22.0 947 3 228 2 73 2 2 116.00 20 3.96 6.0 455 3 103 2 1649 6 216.10 14 5. 70.96 6.8 523 3 123 4 897 4 98. 5. 2.2 351 3 85 6 1589 2 216.8 40.0 602 3 146 8 1132 8 115.Maximum Over Current Protection MCA LEGEND: ARY420A ARY400A ARY380A ARY350A ARY320A ARY300A ARY280A ARY250A ARY240A ARY220A ARY200A UNIT SIZE ELECTRICAL DATA .4 38.3 436 3 102 4 52 2 4 80. MCA Min.22 5.4 25. 3.48 3.7 527 3 121 4 2440 8 251.9 22.4 54.48 3.8 523 3 123 6 758 6 98.4 22.4 43.20 42 4 18 3.22 5.4 94. 114 2 12 5.4 38.22 5.00 20 3.96 6.3 436 3 102 6 629 6 80.4 26.0 947 3 228 2 812 2 116. Minimum and maximum unit supply voltages are shown in the tabulated data above.0 602 3 146 4 853 4 114.9 34.4 30.8 70.4 54.7 527 3 121 4 1540 6 201.0 947 3 228 6 894 6 116.40 62 2 16 3.96 6.00 COMPRESSOR TYPE-2 CB2 CB1 RLA LRA CB Qty.22 5.8 523 3 123 2 61 4 2 98.0 1089 3 265 4 765 4 138. 4.4 26.4 38.80 12 5. All field wiring must be in accordance with NEC and local standards.2 351 3 85 4 114 6 62 6 52 6 133 4 2 216.6 47.9 30.Full Load Amps .8 523 3 123 4 61 4 4 98.2 61.Must Trip Amps .0 1089 3 265 4 1013 4 138.10 114 2 16 5.96 Total Total Watts Amps CRANKCASE HEATER 7.7 527 3 121 2 1389 4 251.22 5.0 947 3 228 8 1142 8 116.Locked Rotor Amps RLA LRA NOTES: 6 6 6 6 6 6 7 7 7 7 7 7 7 7 7 8 8 8 8 8 8 9 9 9 9 9 9 10 10 10 10 10 10 CB Qty.0 602 3 146 4 1062 4 114. (each) kW MTA Qty.22 5.22 5.80 52 2 12 3.8 523 3 123 2 687 2 98.4 34.4 30.6 47.0 455 3 103 4 2104 8 216.0 868 3 212 4 62 4 4 96.9 22.Circuit Breaker CB FLA . 1.40 52 2 16 3.9 26.0 455 3 103 2 133 6 73 6 61 6 114 4 4 201.9 26. 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 230 Volts 800 800 800 800 800 800 1200 1200 1200 1200 1200 1200 1200 1200 1200 1200 1200 1200 1200 1200 1200 1600 1600 1600 1600 1600 1600 1600 1600 1600 1600 1600 1600 3.2 106.00 62 4 20 3.40 16 3.4 38.0 455 3 103 6 1844 4 251.2 118 68 68 118 68 68 FCA CONDENSER FAN MOTORS CB2 FLA Total Qty. The ±10% voltage variation from the nominal is allowed for a short time only.22 5. MTA Qty.0 947 3 228 2 73 4 2 116.00 20 5.9 34.40 16 5.2 61.4 106.48 3.7 527 3 121 4 1914 6 251.Fan Circuit Amps MTA FCA .6 47.8 40.0 1089 3 265 8 1345 8 138. not permanent.40 16 3.2 61.22 5.60 14 3.60 14 3.8 40.9 38.48 3.96 6.4 54.80 62 2 12 3. Neutral line required on 380V-3Ph-60Hz power supply only.9 38.6 94.Rated Load Amps .4 43.48 3.9 30.60 14 3.4 34.22 5.6 82.2 351 3 85 4 114 8 62 8 52 8 133 4 4 216.4 34.0 602 3 146 6 888 6 115. 133 2 2 216.4 34.20 18 3.4 30.80 12 3.2 61.0 1089 3 265 2 723 2 138. (each) (each) Poles MTA Qty.8 523 3 123 2 61 2 2 98.22 5.60 14 3.80 12 3.0 527 3 121 6 2044 4 216.48 5. The compressor crankcase heaters must be energized for 12 hours before the unit is initially started or after a prolonged power disconnection. using dual element time delay fuse or circuit breaker.0 1089 3 265 4 1260 4 138.Minimum Circuit Ampacity per NEC 430-24 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 253 418 506 Max.22 6.0 947 3 228 4 1060 4 116. (each) (each) Poles MTA Qty.4 26.60 51 4 14 3. On units having MCA greater than the ampacity of 500 mcm wire.96 6.96 6.8 40.6 47.0 602 3 146 2 610 2 114. the factory supplied power terminal block will accept two parallel field wires per phase. Main power must be supplied from a single field supplied and mounted fused disconnects.21 1068 585 495 1138 627 528 1339 649 549 1373 696 589 1433 778 660 1593 875 738 1663 917 773 1828 943 799 1888 1025 870 2049 1122 947 2189 1207 1017 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 187 342 414 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 208/230-3-60 380-3-60 460-3-60 .6 47.6 82. SUPPLY VOLTAGE Nominal (V-Ph-Hz) MOCP .0 947 3 228 4 73 4 4 116.00 52 4 20 3.70 114 4 20 5.0 527 3 121 8 . 3 197. Feet of water = 2.3 710.2 858.7 93.4 590.5 884.7 598.8 763.2 226 244 267.6 174.5 1181. NOTE: If an application requires certain water flow rate outside these limits.6 491. 22 554.1 318 349.5 475.7 983.9 333.4 472.1 MODEL No.3 408.9 . Minimum GPM Maximum GPM 7 8 5 5 5 6 6 7 7 7 8 382.2 ARY200A ARY220A ARY240A ARY250A ARY280A ARY300A ARY320A ARY350A ARY380A ARY400A ARY420A CURVE No.7 441. please check with your nearest dealer/sales office.6 764.6 310.1 726.6 677. ARY040A ARY050A ARY070A ARY080A ARY090A ARY100A ARY110A ARY120A ARY140A ARY160A ARY170A ARY190A CURVE No.1 679.3 605.1 532.WATER SIDE PRESSURE DROP MODEL No.6 532.9 389.6 1048.2 218.6 184. 112 141. Minimum GPM Maximum GPM 1 2 3 3 4 4 5 5 6 6 6 7 75.5 152.989 Kilo Pascal (kpa).2 CONVERSION FACTOR: GPM = 0.5 242 286.063 Liters per second.4 734.7 369.1 1105.5 130. 23 A B C ARY040A 1530 250 310 ARY050A 1500 250 342 . UNLESS OTHERWISE SPECIFIED.DIMENSIONS ARY040A & ARY050A DIMENSIONS MODEL ARY070A & ARY080A NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. DIMENSIONS ARY090A & ARY100A ARY110A & ARY120A NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. 24 . UNLESS OTHERWISE SPECIFIED. DIMENSIONS ARY140A & ARY160A ARY170A NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. UNLESS OTHERWISE SPECIFIED. 25 . DIMENSIONS ARY190A ARY200A & ARY220A NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. UNLESS OTHERWISE SPECIFIED. 26 . ARY240A.27 NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. ARY250A & ARY280A DIMENSIONS . UNLESS OTHERWISE SPECIFIED. UNLESS OTHERWISE SPECIFIED. ARY300A & ARY320A DIMENSIONS .28 NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. 29 NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. ARY350A & ARY380A DIMENSIONS . UNLESS OTHERWISE SPECIFIED. UNLESS OTHERWISE SPECIFIED. ARY400A & ARY420A DIMENSIONS .30 NOTE: ALL DIMENSIONS ARE IN MILLIMETERS. 31 . Refer to unit control box (inside panel) for exact wiring diagram. Refer to next page for legend. notes & wiring diagram of optional items. 2.TYPICAL SCHEMATIC WIRING DIAGRAM COMP1 COMP2 CONTROL PANEL CONTROL PANEL FAN1 FAN2 FAN3 FAN4 FAN5 FAN6 FAN7 FAN8 NOTE: 1. . HOT GAS BYPASS OPTION 2. FAILURE TO FOLLOW THESE INSTRUCTIONS MAY RESULT IN COMPRESSOR DAMAGE. DIGITAL INPUT 1 AC/DC DIGITAL COMMON C/1C. IF POWER IS OFF 6 HOURS OR MORE. MAIN BOARD 7. POWER SUPPLY.TYPICAL SCHEMATIC WIRING DIAGRAM LEGEND UNIT EMERGENCY OPTION UNIT EXTERNAL ENABLE/DISABLE OPTION UVM CONNECTION CB COMP CC CCA CWP ETB EEV EEVB FLS FM FMC F HGBS HPS HVTB I/O LPS LLSV MB OPS PT P SB/AB S1 SSPS TRANS TS UL UVM UVR --- CIRCUIT BREAKER COMPRESSOR COMPRESSOR CONTACTOR COMPRESSOR CONTACTOR AUXILIARY CHILLED WATER PUMP EARTH TERMINAL BLOCK ELECTRONIC EXPANSION VALVE ECONOMIZER EXPANSION VALVE BOARD FLOW SWITCH FAN MOTOR FAN MOTOR CONTACTOR FUSE HOT GAS BYPASS SOLENOID HIGH PRESSURE SWITCH HIGH VOLTAGE TERMINAL BLOCK INPUT/OUTPUT LOW PRESSURE SWITCH LIQUID LINE SOLENOID VALVE MAIN BOARD OIL PRESSURE SWITCH PRESSURE TRANSDUCER PROPORTIONAL BAND SLAVE/AUXILIARY BOARD CONTROL SWITCH SOLID STATE PROTECTION SYSTEM TRANSFORMER TEMPERATURE SENSOR UNLOADER UNDER VOLTAGE MONITOR UNDER VOLTAGE RELAY TERMINAL BLOCK FIELD WIRING FIELD WIRING LEGEND ON MAIN BOARD A. 4. FOR GFP CONNECTION WITHOUT OPS.(GFP) NOTES 1. COMMON 1O DIGITAL OUT 1 JU/TU/TD/TL DIGITAL OUT 1 T1 THERMISTOR Q SH SHIELD X52/X53 SERIAL COMMUNICATION PORT X39 SERIAL COMMUNICATION PORT * OPS CONNECTION OPTION GROUND FAULT PROTECTION OPTION. LOW PRESSURE SWITCH CONNECTION WITHOUT COMPRESSOR CB (OPTIONAL) 6. NEUTRAL LINE REQUIRED ON 380V-3Ph-60Hz POWER SUPPLY ONLY. PLEASE READ BROKEN LINES AS CONTINUOUS LINES. TERMINAL 64A & 64B SHALL BE CONNECTED TO ATB#1 ONLY. 32 ./D.. 3. REFER TO UNIT NAMEPLATE. WHENEVER THERE IS TWO UNLOADERS ON A COMPRESSOR. LOW PRESSURE SWITCH CONNECTION WITH COMPRESSOR CB (OPTIONAL) 5. CRANKCASE HEATER MUST BE ON FOR 12 HOURS BEFORE OPERATING THE SYSTEM. POWER MUST BE SUPPLIED TO CRANKCASE HEATER FOR MINIMUM OF 12 HOURS PRIOR TO SYSTEM START UP. FUSES TO DUAL ELEMENT TYPE. COPPER CONDUCTORS ONLY. FUSED DISCONNECT SWITCH OR CIRCUIT BREAKER TO BE PROVIDED BY END USER WITH RATING AS RECOMMENDED BY MANUFACTURER.. 8. ON SEQUENCE Staging ON & OFF sequence is accomplished based on controlled water Temperature PID algorithm. then compressor #1 switch ON with the capacity unloader energized and the unit is at 25% capacity. Stage #4: After the minimum interval time elapsed. STAGE . the more running hour compressor is switched OFF if the compressor running time equalization is selected. then stage #4 switch OFF by energizing compressor #2 capacity unloader. Stage #2: After the minimum interval time elapse. compressor #2 unloader will be de-energized and the unit is at 100% capacity. Stage #3: After the minimum interval time elapsed.MICROPROCESSOR CONTROLLER Sequence of Operation The following describes the sequence of operation for a two reciprocating compressor chiller unit. compressor #1 capacity unloader will be de-energized and the unit is at 50% capacity. if the controlled water temperature is not decreased and stays equal or greater than the water temperature set point. Stage #1: If the controlled water temperature is greater than or equal to the water temperature set point. The condenser fans will switch ON with the increase of discharge pressure and switch OFF with the decrease of the discharge pressure. For initial start-up. All safety conditions are satisfied. if the controlled water temperature is still not reduced and stays equal or greater than the water temperature set point. and the unit is at 75% capacity. compressor #2 switch ON with the capacity unloader energized.OFF SEQUENCE During the staging OFF. Customer control is switch to run mode. If the controlled water temperature stays below the water temperature set point or decreased more. if the controlled water temperature is not decreased and stays equal or greater than the water temperature set point. As the controlled water temperature decreases below the water temperature set point and stays there. Press ESC on the microcomputer keypad. then stage #2 switch OFF by energizing compressor #1 capacity unloader. then stage #1 switch OFF by switching OFF compressor #1. Operation is similar for a one or eight reciprocating compressor unit. if any. then stage #3 switches OFF by switching OFF compressor #2. the following condition must be met: All power supplied to the unit shall be continuously energized for 12 hours. If the controlled water temperature stays below the water temperature set point or decreased more. Chilled water pump is running and chilled water flow switch contact is closed. · · · · · · Control power is switch on for at least 5 minutes. STAGE . 33 . If the controlled water temperature stays below the water temperature set point or decreased more. 2. 3* 14 1. 3. 4. 3 7 1. 6 1. 2. 4* 1. 5. 8 Indicates that compressors are unloaded. 2* 1. 2. 4. 2. 5. 2. 5. 2. 8* 16 1. 2. 5* 10 1. two compressor unit has 4 stages and a four compressor unit has 8 stages. 3* 6 1. 3 1. 2. 3* 1. 2. 2. 5. 3. 2. 5. 6. 3. 2. 6. 3. 2. 2. 2 1. 7 15 1. 4* 1. 34 . 6 1. 3. 4 1. 6* 12 1. 4. 3. 5* 1. 2. 4. 2. 3. 3. 5. 4. 3. 5. 2 1. 3 1. 4. 2* 1. 4* 8 1. 2. 3. 2 1. 2* 1.Compressor and Unloader Staging A one compressor unit has 2 stages. 2. 2. 4. 6* 1. 2. 3. 3. 4. 2 5 1. 6. 4. 3. 2. 7* 13 * 1. 7. 5 1. 3. 4. 2. 3. 4 9 1. 2* 4 1. The staging of a standard unit is shown in the following chart: Number of Compressors Stage 1 2 4 6 8 1 1* 1* 1* 1* 1* 2 1 1 1 1 1 3 1. 2. 2. 5 11 1. 3. 6. 3. 4. 7. 5. 4. 4 1. 3. The piping and pumping layout should be right for the application and must assure proper water return and circulation. unit capacity decreases and power input increases. For example. etc. apply appropriate correction factor from the table provided in this catalog. these chillers can start and operate satisfactorily up to 1250F (520C) ambient temperature at rated nominal voltage. For unit selection at other fouling factors. biological growth (algae. The water flow switch should be calibrated accordingly. Using unclean and untreated water may result in scale and deposit formation causing reduced cooler efficiency or heat transfer and corrosion or pitting leading to possible equipment damage. At altitudes substantially above sea level. the pH value of the water flowing through the cooler must be kept between 7 and 8. Over sizing adversely affects the operating efficiency due to erratic system operation and excessive compressor cycling which also results in reduced compressor life. UNIT SELECTION/SIZING Unit selection procedure and capacities are provided in this catalog for proper selection. When using glycol solution. 35 . Stable operation. organic contaminants (oils). magnesium. it is also recommended that installing two chillers instead of a single chiller be considered in applications where partial load operation at low capacities is necessary. silt. therefore care must be taken not to exceed the limits. silica. Over sizing chillers beyond a maximum limit of 5 – 10 % in order to assure adequate capacity or considering future expansions is not recommended.000018 m2-0C/W). clays. stratification and poor control and flow rates beyond the maximum limits cause excessive pressure drop and severe tube erosion. As fouling factor is increased. Design flow rates below the minimum limits will result in laminar flow causing freeze-up problems. dirt. an oversized unit is usually more costly to purchase. In such applications. Zamil recommends that a water treatment specialist is consulted to provide and maintain water treatment. units operate more efficiently when fully loaded rather than larger equipment operating at partial capacities. When any application varies from these guidelines. The Zamil electronic selection program may also be utilized for this purpose. this is particularly critical with glycol systems.5.00010 hr-ft2-0F/Btu (0. water flow rate must not vary more than ± 5% from the design flow rate. consult Zamil Air Conditioners for specific recommendations. These include calcium. HIGH AMBIENT CONSIDERATION These chillers are designed for year round operation over a range of ambient temperatures. it should be referred with Zamil Air Conditioners for specific recommendations. Further. FOULING FACTOR AND WATER REQUIREMENT The tabulated performance data provided in this catalog are based on a fouling factor of 0. apply appropriate correction factor from the table provided in this catalog. consider using multiple units. install and operate. fungi and bacteria). When over sizing is desired due to anticipation of future plant expansion. which should be kept to the minimum to retard scale and deposit formation. the greater the chances of scale and deposit formation and fouling. As a standard. The more scale forming material and suspended solids in the system water. WATER FLOW RATES AND COOLER PRESSURE DROP The maximum and minimum water flow rates for all unit models and the pressure drop chart are provided in this catalog. During unit operation. In order to prevent corrosion and pitting. These chillers are suitable for operation with well maintained water systems. performance and reliability of units is often dependent upon proper compliance with these recommendations. EFFECT OF ALTITUDE ON UNIT CAPACITY The tabulated performance data provided in this catalog are for use at or near sea level altitude applications.APPLICATION GUIDELINES INTRODUCTION These guidelines should be considered when designing systems and their installation utilizing Zamil ARY series liquid chillers. Operation of two chillers at higher loading is preferred to operating a single chiller at or near its minimum possible capacity. In addition. It should be noted that. The design water flow rate must be within this range. flow rate and pressure drop are higher than with water. For unit selection at these higher altitudes. the decreased air density will reduce condenser capacity and therefore unit capacity. install a single chiller for the present load requirement and install a second chiller for the foreseen additional load demand due to expansion. The tabulated performance data provided in this catalog is based on a chilled water temperature drop of 100F. 45°F 340 GPM 120 TR Chiller 45°F 82. A standard chiller can be used for this application as shown in the following basic schematic layout (single mixing arrangement). Our chillers can be utilized for these applications by selecting the chiller based on the specific process load and making a suitable piping and mixing arrangement in order to bring the flow rates and/or water temperatures relevant to the chiller within acceptable limits.6°F 500 GPM 65°F 240 GPM Example 2: An application requires 192 GPM of water at 650F and the return water temperature is 800F. Units may be operated at any desired temperature drop within the range of 5 to 150F as long as the temperature and flow limits are not violated and appropriate correction factors are applied on the capacity and power input. A standard chiller can be used for this application as shown in the following basic schematic layout (dual mixing arrangement).2 GPM 45°F 257.COOLER FLUID (WATER OR GLYCOL) TEMPERATURES RANGE Unit can start and pull down from 950F (350C) entering fluid temperature. It should be noted that temperature drop outside the aforesaid range is not permitted as it is beyond the optimum range of control and could adversely affect the functioning of microprocessor controller and may also prove to be detrimental for the equipment. FLOW RATES AND/OR WATER TEMPERATURES OUT OF RANGE Certain applications (particularly process cooling jobs) call for flow rates and/or water temperatures that are outside the above mentioned limits/range.4°F 80°F 340 GPM 82. The design entering chilled fluid temperature range is 50 to 600F.8 GPM 53.4°F 340 GPM 53.8 GPM 65°F 192 GPM Load 120 TR 80°F 109. Example 1: An application requires 240 GPM of water at 450F and the return water temperature is 650F. 45°F 240 GPM 45°F 500 GPM 200 TR Chiller Load 200 TR 45°F 260 GPM 54. The Zamil electronic selection program can be very handy in selecting equipment at different temperature drops.2 GPM 36 80°F 192 GPM . The design leaving chilled fluid temperature (LCWT) range as mentioned earlier in the tabulated performance data is 40 to 500F. The design cooler temperature drop (ΔT) range is 5 to 150F. energy economics. installation requirements and others to determine the best arrangement for his project. the multiple chilled streams are combined again in a common line after chilling. liquid to be chilled is divided among the liquid chillers. flexibility. nature of load and configuration of building. flow rate and pressure drop. Parallel arrangements permit adding chillers in the future for plant expansion with the appropriate considerations beforehand. As mentioned above. Zamil recommends the parallel arrangement for design temperature drops (ΔT) up to 150F and the series arrangement beyond that i. the chilled liquid pressure drop may be higher unless coolers with fewer liquid-side passes or baffles are used. Series chiller arrangements can be controlled in several ways based on the water temperatures depending on cooling demand. Multiple chiller arrangements offer the advantage of operational flexibility. No over chilling by either unit is required. two basic multiple chiller systems are used: parallel and series chilled water flow. units of same size should be preferred over different sizes to facilitate balanced water flow. and compressor power consumption is lower than it is for the parallel arrangement at partial loads. Water temperatures (EWT or LWT) can be used to cycle units On and Off based on the cooling demand. 16 to 200F.. In the parallel arrangement. standby capability is desired. therefore appropriate correction factors from the aforementioned table in this catalog should be applied. Some suggested arrangements with basic schematic layouts are as follows: 37 . A valved piping bypass is suggested around each chiller to facilitate future servicing as it gives the personnel an option for service without a complete shutdown.e. standby capacity and less disruptive maintenance. lower design flow and resulting installation and operational cost savings. The designer must weigh the pros and cons of cost. The system piping circuit (load distribution circuit) should be basically parallel piping either Direct Return or Reverse Return system with a good pumping arrangement. Complete design details on these parallel and series chilled water flow arrangements can be found in the ASHRAE handbooks and other design literature which should be referred by the designer in preparing his detailed designs. A multiple chiller arrangement should be provided if the system load is greater than a single chiller capacity. Also. Starting in-rush current is reduced. It is also possible to achieve higher overall entering to leaving temperature drops.COOLER FREEZE PROTECTION If the unit is located in an area where ambient temperatures fall below 320F (00C). In the series arrangement.30C) below minimum operating ambient temperature. The method of circuiting and pumping is a judgment decision by the designer. This glycol solution must be added to the water system loop to bring down the freezing point of water to a difference of 150F (8. as well as power costs at partial-load conditions. which may in turn provide the opportunity for lower chilled water design temperature. In all cases. they offer some standby capacity if repair work must be done on a chiller from a set of duty chillers. MULTIPLE CHILLER ARRANGEMENT OR PLANT CONFIGURATION A multiple chiller system has two or more chillers connected by parallel or series piping to a common distribution system. PIPING ARRANGEMENTS AND PLANT LAYOUT Our chillers are suitable for incorporating in ‘Two Pipe’ single temperature systems or ‘Four Pipe’ independent load systems. It is mandatory that cooler flow rates must be balanced to ensure proper flow to each chiller based on its respective capacity. it must be ensured that the design water flow is constantly maintained through the chillers at all stages of operation. large temperature drop (greater than 150F) is desired or application calls for splitting the total capacity for better part load operation. In designing a multiple chiller plant. Using this glycol solution causes a variation in unit performance. cooler protection in the form of Ethylene Glycol Solution is required to protect the cooler and fluid piping from low ambient freeze-up. the various load devices are controlled first. then the source (chillers) system capacity is controlled to follow the capacity requirement of the loads. Single or multiple chillers with constant water flow through chillers and load system: CHWS Load Chiller 3-Way Valve Load 3-Way Valve CHWR Constant Speed Pump In this type of arrangement. With a two-way valve. These valves control the capacity of each load by varying the amount of water flow through the load device.A. In terms of load control. Before proceeding further. a two-way valve and a three-way valve perform identical functions—they both vary the flow through the load as the load changes. the quantity of water flowing through the load gradually decreases from design flow to no flow. The fundamental difference between the two-way valve and the three-way valve is that as the source or distribution system sees the load. Control valves are commonly used to control loads. the two-way valve provides a variable flow load response and the three-way valve provides a constant flow load response. the quantity of water flowing through the load decreases in proportion to the load and the difference amount is directed through a bypass. Control valves for these applications are two-way (straight-through) and three-way valves. Where multiple zones of control are required.as the load reduces. 38 . On multiple chiller installations. The three-way mixing valve has the same effect on the load as the two way valve . constant water flow through the chillers and load distribution piping circuit is maintained. pumps are required to operate continuously and the sequencing of chillers is dependent on water temperatures. Referring to the foregoing schematic layout. a brief explanation on the operation of a typical chilled water system / valves which is fundamental to the design or analysis of a system. as the valve strokes from full-open to fullclosed. The effect of either valve is to vary the amount of water flowing through the load device. this is a conventional system and is not as energy efficient as the two-way valve systems especially on the pumping side due to constant water circulation in the system. 39 .B. Also. The speed of the chiller pumps is controlled by the differential pressure sensor/transmitter. since they are forced to operate with high radial thrusts. Brief sequence of operation is as follows: The bypass with its control valve and flow meter provides the design flow required through the chillers. Instead of using water temperature as an indicator of demand. the sequencing of chillers is dependent on water flow. Flow meter FM1 measures the actual flow to the chilled water system. the problem with this system is improper control of the bypass valve which does not guarantee proper flow through the chillers and high differential pressures in the control valves on the cooling coils when the system friction subsides at low loads which can cause lifting of the valve stems or wire cutting of the valve seats. maintaining the desired differential pressure (ΔP) across the cooling coils. Further. The system flow is compared with the required flow for the chillers. an almost constant volume system results and the pumping energy remains substantially that required at full system flow and head. This method is not recommended as it’s a wasteful practice because a considerable amount of energy is lost. Single or multiple chillers with constant water flow through chillers and variable water flow through load system: FM-1 CHWS Bypass Line Load Bypass Control Valve Chiller Load P FM-2 2-Way Valve 2-Way Valve Variable Speed Pump CHWR System Controller In this type of arrangement. however the quantity of water flowing through the load distribution piping system decreases in proportion to the load and the difference amount is directed through a bypass pipe that connects the supply and return headers. the actual flow to the system determines the number of chillers that should be in operation. Note: Some designers may consider installing constant speed pumps and utilize pressure relief bypass control valves controlled by a differential pressure sensor/controller to maintain a fixed differential pressure between the supply and return mains of the chilled water system in order to accommodate for the required chiller flow and to achieve some form of variable volume system. which increases the overpressure on the system and also increases the wear on the pumps. This flow meter controls the bypass valve to maintain the desired flow in the bypass based on the set points in the system controller (the valve is positioned by sum of flow meters FM1 and FM2). as all the water must be pumped at a head equal to or greater than the design head. The difference is made up through the bypass and is monitored by flow meter FM2. The chillers are rated in gallons per minute. The pump speed is modulated within a certain range in order to reduce the pumping head and not to alter the water flow rate (the duty flow rate of the pumps remains constant). constant water flow through the chillers is maintained. Each chiller-pump combination operates independently from the remaining chillers and each pump is shutdown when the respective chiller is stopped. Energy is saved because the system head is reduced appreciably when there are light cooling loads on the system and due to cycling of pumps. the pump or pumps are forced to run up the pump head capacity curve. their control valves and the branch piping. performance and trouble-free service. Further. into the return header indicates overcapacity and the chiller-pumps are turned off. maintaining the desired differential pressure (ΔP) across the cooling coils. the generation zone is separated from the transportation or distribution zone. their control valves and the branch piping. Where these requirements are not complied.C. UNIT LOCATION AND INSTALLATION These chillers are designed for outdoor installation and can be installed at ground level or on a suitable rooftop location. Each chiller-pump combination operates independently from the remaining chillers and each pump is shutdown when the respective chiller is stopped. it is essential that the proposed installation location and subsequent installing procedures meet the following requirements: • The most important consideration while deciding upon the location of air cooled chillers is the provision for supply of adequate ambient air to the condenser and removal of heated discharge air from the condenser. higher power consumption and possible eventual failure of equipment. the supply or discharge airflow restrictions or warm air recirculation will cause higher condensing temperatures resulting in poor unit operation. return water is forced through the bypass into the supply header. If greater flow is demanded than that supplied by the chiller-pumps. constant water flow through the chillers is maintained. This pump speed is modulated within a broad range in order to reduce the pumping head and alter the water flow rate based on the changing load conditions. This flow indicates a need for additional chiller capacity and another chiller-pump starts. The sequencing of chillers is dependent on water flow.e. 40 . Single or multiple chillers with constant water flow through chillers and variable water flow through load system (primary/secondary pumping arrangement): CHWS A Variable Speed Secondary Pump Load Load Chiller Flow Sensor P 2-Way Valve 2-Way Valve Constant Speed Primary Pump B CHWR System Controller This system is called a Primary – Secondary System and in this arrangement. the condenser fans are propeller type and are not recommended for use with ductwork or other hindrances in the condenser air stream. In this type of arrangement also. The sequence of operation is similar as the foregoing system with the following explanation: The speed of the secondary chiller pump is controlled by the differential pressure sensor/transmitter. This bypass pipe forms a ‘Hydraulic Coupling’ between the points A – B and is also called as Common Bridge or Decoupling Line. This is accomplished by maintaining sufficient clearances which have been specified in this Catalog around the units and avoiding obstructions in the condenser air discharge area to prevent the possibility of warm air circulation. The primary pumps are constant speed pumps and the design flow rate through the chillers remains constant. however the quantity of water flowing through the load distribution pump/piping system decreases in proportion to the load and the difference amount is directed through a bypass pipe that connects the supply and return headers. In order to achieve good operation.. Excess bypass flow with reference to the set points in the system controller in the opposite direction i. Energy is saved because the system head and water flow rate are reduced on the Secondary Pump when there are partial cooling loads on the system and due to cycling of Primary Pumps. The two types of vibration isolators generally utilized for mounting these units are Neoprene Pads and Spring Isolators. steps must be taken to prevent access to the unit by means of a protective fence. which may cause recirculation or uneven unit airflow. COOLER PIPING CONNECTIONS The following pertinent guidelines are served to ensure satisfactory operation of the units. choose the type of vibration isolators best suited for the application. The roof must be reinforced for supporting the individual point loads at the mounting isolator locations. exhaust vents and sources of airborne chemicals that could attack the condenser coils and steel parts of the unit. It must be checked and ensured that the concrete base is perfectly horizontal and levelled. it is also necessary to consider access requirements based on practical considerations for servicing. This will help to prevent the possibility of vandalism.but an interlock must be wired to the unit control panel (as shown in the wiring diagram) so that the unit can start only upon proof of pump operation. accidental damage or possible harm caused by unauthorized removal of panels or protective guards exposing rotating or high voltage components. The unit shall be mounted on a concrete slab similar to ground installations.• The unit’s longitudinal axis should be parallel to the prevailing wind direction in order to ensure a balanced air flow through the condenser coils. • If the location is an area which is accessible to unauthorized persons. Carefully select the vibration isolators’ models / configuration based on the respective point loads and place each mount in its correct position following the Load Distribution Data and Mounting Drawings provided in this Catalog. Avoid locations where the sound output and air discharge from the units may be objectionable. There should be a straight run of piping of at least five pipe diameters on either side of the flow switch. water must enter from the inlet connection on the cooler and leave from the outlet connection. damage to the unit and difficulty in servicing and maintenance: • Water piping must be connected correctly to the unit i. it must be ensured that the concrete base is stable and does not settle or dislocate upon installation of the unit which can strain the refrigerant lines resulting in leaks and may also cause compressor oil return problems.e. cleaning and replacing large components. follow the recommendations of structural and acoustical consultants. Spring Isolators are recommended for ground level installations which are noisesensitive areas or exposed to wind loads and all roof top installations. • Vibration isolators are necessary for installing these chillers in order to minimize the transmission of vibrations. • Based on the specific project requirements. steam. For locations where significant cross winds are expected.. Refer to the Schematic Mounting Layout drawings provided in the IOM manual of these chillers for further details in this regard. Paddle type flow switches can be obtained from Zamil which are supplied as optional items. When units are installed in an enclosure. For critical installations (extremely noise and vibration sensitive areas). Failure to follow these recommendations may cause improper operation and loss of performance. • The location should be selected for minimum sun exposure and away from hot air sources. FLAT and LEVELLED {within 1/2'' (13 mm) over its length and width} / CONCRETE BASE that extends fully to support the unit. • For ground level installations. Neoprene Pads are recommended for ground level normal installations jobs where vibration isolation is not critical and job costs must be kept to a minimum. It is recommended that the concrete slab is provided with appropriate footings. the enclosure height should not exceed the height of the unit. The carrying or supporting structure should be capable of handling complete operating weight of the unit as given in the Physical Data tables in this Catalog. • The chilled water pump(s) installed in the piping system should discharge directly into the unit cooler. • For rooftop installations. • The clearance requirements prescribed above are necessary to maintain good airflow and provide access for unit operation and maintenance. especially if the roof has been pitched to aid in water removal. • The unit must be installed on a ONE-PIECE. The pump(s) may be controlled external to the unit . The slab should not be connected to the main building foundation to avoid noise and vibration transmission. choose a place with adequate structural strength to safely support the entire operating weight of the unit. • A flow switch must be installed in the field piping at the outlet of the cooler (in horizontal piping) and wired back to the unit control panel using shielded cable. 41 . Consideration should also be given to the possibility of down-drafts caused by adjacent buildings. However. It should be determined prior to installation if any special treatment is required to assure a levelled installation else it could lead to the above mentioned problems. an enclosure of solid or louver type is recommended to prevent wind turbulence interfering with the unit airflow. fitted as close as possible to the liquid inlet connection. preferably of 20 mesh.• Flexible connections suitably selected for the fluid and pressure involved should be provided as mandatory in order to minimize transmission of vibrations to the piping / building as some movement of the unit can be expected during normal operation. Pressure gauges are recommended to check the water pressure before and after the cooler and to determine if any variations occur in the cooler and system.) but as near to the cooler as possible. The bypass can be used during maintenance to isolate the cooler without disrupting flow to other units. The piping and fittings must be separately supported to prevent any loading on the cooler. the taps should be located in the water piping a minimum of 24 inches downstream from any connection (flange etc. each unit should be piped as shown: OUT IN Isolating Valve . • Thermometer and pressure gauge connections should be provided on the inlet and outlet connections of each cooler. 42 . • The cooler must be protected by a strainer. When installing pressure taps to measure the amount of pressure drop across the water side of the cooler. The cooler must not be exposed to flushing velocities or debris released during flushing. It is recommended that a suitably sized bypass and valve arrangement is installed to allow flushing of the piping system.Normally Closed Flow Switch Balancing Valve Connection (flanged / Victaulic) Flow meter Pipe work Strainer Flexible connection Note: For chillers with two coolers. • The following is a suggested piping arrangement at the chiller for single unit installations. Hand shut-off valves are recommended for use in all lines to facilitate servicing. • The system water piping must be flushed thoroughly before connecting to the unit cooler. • Drain and air vent connections should be provided at all low and high points in the piping system to permit complete drainage of the cooler and piping as well as to vent any air in the pipes. For multiple chiller installations. and provided with a means of local isolation. the connecting pipes for entering and leaving water on one cooler must be joined to the corresponding pipes on the other cooler before connecting to the main headers in the system piping.Normally Open Pressure tapping Isolating Valve . chiller model ARY100 operating with a design water flow rate of 205 GPM for a standard air conditioning application would require 100 (Nom. Cap. reduce the rate of change of return water temperature. therefore. d) Laminar flow on the water side due to lower velocities at low loads on a coil is always a concern of the water system designer.) x 3 = 300 Gallons of water in the piping system loop. A number of conditions must be recognized before making the final selection of temperature differential: a) An increase in temperature differential decreases water flow and therefore saves pumping energy. the temperature control can be lost resulting in erratic system operation and excessive compressor cycling. To achieve the aforementioned water volume requirements. There is no one temperature difference for all chilled water systems. Therefore. This tank should be provided on the return water side to the chiller and the tank should be baffled to ensure that there is no stratification and the entering stream thoroughly mixes with the tank water. A careful balance between energy savings and first cost should be made by the designer. The possibility of laminar flow is greater with higher temperature differences. For example. These are the decisions that must be made by the designer for each application and only experienced designers should entertain water temperature differences in excess of 120F on chilled water systems. Laminar flow reduces the heat-transfer rate and should not occur in a coil at any point in its load range. to prevent this effect of a ‘Short Water Loop’ ensure that total volume of water in the piping system loop equals or exceeds 3 Gallons per Nominal Ton of cooling capacity for standard air conditioning applications and 6 Gallons per Nominal Ton of cooling capacity for process cooling jobs where accuracy is vital and applications requiring operation at very low ambient temperatures and low loading conditions. 43 . Temperature differential is the difference between the supply water and the return water temperatures. c) Higher temperature differentials increase the possibilities of loss of temperature difference in coils due to dirt on the air side and chemical deposits on the water side of them. at reduced loads and flows. it may be necessary to install a tank in the piping system loop to increase the volume of water in the system and therefore. they operate with laminar flow. See recommended tank design schematics below: TANK SCHEMATIC SUGGESTIONS ON SYSTEM DESIGN AND PIPING PRACTICES The prospective chilled water system should be designed to the specific requirements of the owner and to achieve the most efficient system possible. Many systems operate inefficiently because of coils that were selected at too low a friction loss through them at design load.CHILLED FLUID VOLUME REQUIREMENT The volume of water in a piping system loop is critical to the smooth and proper operation of a chilled water system. The actual temperature difference that is selected for a specific installation is determined by the cost of the cooling coils for various temperature differences and the effect that higher differences may have on the operating cost of the chillers. Following are some recommendations: • The first decision a designer of a chilled water system must make is the selection of the temperature differential. b) An increase in temperature differential may increase the cost of cooling coils that must operate with a higher mean temperature difference. If sufficient volume of water is not there in the system. Expansion tanks are generally connected to the suction side of the pump . spring loaded. • Distribution pumps should be selected for maximum efficiency at the design condition and within the economic constraints of the project. • Expansion tank should be provided to so that water volume changes can be accommodated. There may be some exceptional cases where parallel pumps are operated at different speeds. Pump discharge check valves should be center guided. b) Arrange the piping so that all chillers receive the same return water temperature.g.. These devices are listed here: a) Three-way temperature control valves b) Balancing valves. • Differential pressure control (bypass) valves should never be installed at the pump discharges. • Coil control valves and their actuators should be sized to ensure that they can operate at all loads on the system without lifting the valve head off the valve seat. c) Ensure that the required design water flow through the coolers is always maintained. The second step in this process is to ensure that the differential is maintained after the system is commissioned. It tells the operator just how good a job the control system and coils are doing in converting energy from the chillers to the air or water systems that are cooling the building. Pump sequencing should achieve maximum possible system efficiency. disc type check valves and should be sized so that the check valve is full open at design flow rate. • Circuiting Chilled water to Multiple Chillers : There are fundamentals for the circuiting of chillers that should not be violated in order to achieve maximum efficiency. This is such a basic criterion that it should be addressed early in the design of a chilled water system. Variable speed pumps should be controlled so that pumps operating in parallel never have more than one percent difference in actual operating speed.• Control of Return Water Temperature: Return water temperature is one of the most important operating values for a chilled water system. 44 . • Check valves should be provided in pump discharges when pumps are operating in parallel. Some of these are: a) Design the piping arrangement so that energy consumption of chillers is not increased. fittings and valves. Mixing of constant and variable speed pumps in parallel operation is wrong and leads to disastrous results. • Pumps in parallel must always operate at the same speed. manual or automatic c) Pressure-reducing or pressure-regulating valves • The piping should be designed without a) Reducing flanges or threaded reducing couplings b) Bullhead connections (e. it is better to use pumps of the same size when operating them in parallel. but only experienced designers should make evaluations for such a proposed operation. • The water system should be configured to distribute the water efficiently with a minimum use of energy-wasting devices. Generally this will require the check valve to be one pipe size smaller than the connecting piping. Distribution pumps should be added and subtracted to avoid operation of pumps at points of high thrust and poor efficiency. The proper method of controlling return temperature is through the correct selection of control valves and cooling coils. Also.lowest pressure point. In conclusion. one of the designer’s most important tasks is the selection of a sound temperature differential that will provide maximum possible system efficiency. two streams connected to the run connections of a tee with the discharge on the branch of the tee) • The friction for the piping should be calculated for all pipe runs. • Cooling coils should be selected with a high enough water velocity in the tubes to avoid laminar flow throughout the normal load range imposed on the coils. Care must be taken to avoid damage to the coils during handling.RIGGING INSTRUCTIONS ATTENTION TO RIGGERS Hook rigging sling thru holes in base rail. CAUTION All panels should be in place when rigging.ARY320A MODELS: ARY350A . Ensure center of gravity aligns with the main lifting point before lifting. Use spreader bar when rigging.ARY420A 45 . as shown below. Holes in base rail are centered around the unit center of gravity. MODELS: ARY040A . to prevent the slings from damaging the unit. Center of gravity is not unit center line.ARY220A MODELS: ARY240A . Insert packing material between coils & slings as necessary. All dimensions are in mm.1 STRAIGHT WALL FIGURE .ARY050A 2500 2000 ARY070A . 46 . Pit installations are not recommended.ARY420A 3500 2500 FIGURE . Re-circulation of hot condenser air in combination with surface air turbulence can not be predicted. 2.INSTALLATION CLEARANCE WALL MODEL NUMBER A B ARY040A .ARY220A 3000 2000 ARY240A . hot air re-circulation will severely affect unit efficiency (EER) and can cause high pressure or fan motor temperature trips.2 CORNER WALL NOTES: 1. ARY320A MODELS: ARY400A . 47 A ARY140A 1603 ARY160A 1603 ARY170A 1603 ARY190A 2052 ARY200A 2052 ARY220A 2052 MODEL MODELS: ARY350A .ARY420A NOTE: All dimensions are in mm.MOUNTING LOCATION MODELS: ARY040A .ARY120A MODEL A A B ARY090A ARY040A 2040 1988 ARY100A 1661 ARY050A 2040 1988 ARY110A 1922 ARY070A 2167 2150 ARY120A 1922 ARY080A 2167 2150 MODEL MODELS: ARY140A . Tolerance: ±2mm.ARY220A MODEL MODELS: ARY240A .ARY080A MODELS: ARY090A .ARY380A 1661 A ARY240A 1850 ARY250A 1850 ARY280A 1850 ARY300A 2060 ARY320A 2060 . (ALUMINUM CONDENSER COIL FINS) MODEL No. kg.LOAD DISTRIBUTION. R1 R2 R3 R4 R5 R6 R7 R8 R9 R10 R11 R12 R13 R14 ARY040A 441 406 338 325 - - - - - - - - - - ARY050A 524 488 397 376 - - - - - - - - - - ARY070A 645 598 530 484 - - - - - - - - - - ARY080A 712 665 564 492 - - - - - - - - - - ARY090A 528 497 481 473 442 426 - - - - - - - - ARY100A 540 508 493 482 451 435 - - - - - - - - ARY110A 581 549 534 527 496 480 - - - - - - - - ARY120A 689 646 624 602 559 538 - - - - - - - - ARY140A 627 590 577 564 550 512 500 487 - - - - - - ARY160A 656 619 606 593 565 527 514 502 - - - - - - ARY170A 675 637 624 612 579 542 529 516 - - - - - - ARY190A 746 708 696 683 661 624 611 598 - - - - - - ARY200A 760 723 710 697 674 636 624 611 - - - - - - ARY220A 766 729 716 703 681 643 631 618 - - - - - - ARY240A 864 823 802 795 788 805 763 743 736 729 - - - - ARY250A 870 829 808 801 794 808 766 746 739 732 - - - - ARY280A 882 840 820 813 806 814 772 752 745 738 - - - - ARY300A 971 930 910 903 896 927 886 865 858 851 - - - - ARY320A 983 941 921 914 907 937 895 875 868 861 - - - - ARY350A 932 902 891 885 873 828 932 794 783 777 765 725 - - ARY380A 955 926 914 908 897 850 955 813 801 796 784 743 - - ARY400A 873 849 838 826 814 808 803 774 751 739 727 716 710 704 ARY420A 879 856 844 833 821 815 809 782 759 747 735 724 718 712 R1 R2 R3 R4 R1 R3 R5 R6 48 . (COPPER CONDENSER COIL FINS) MODEL No. R1 R2 R3 R4 R5 R6 R7 R8 R9 R10 R11 R12 R13 R14 ARY040A 467 432 364 351 - - - - - - - - - - ARY050A 562 526 435 414 - - - - - - - - - - ARY070A 721 674 606 560 - - - - - - - - - - ARY080A 788 741 640 568 - - - - - - - - - - ARY090A 582 550 535 527 495 480 - - - - - - - - ARY100A 603 572 556 546 514 498 - - - - - - - - ARY110A 655 624 608 602 570 555 - - - - - - - - ARY120A 764 720 699 677 634 612 - - - - - - - - ARY140A 697 659 647 634 620 582 570 557 - - - - - - ARY160A 726 688 676 663 635 597 584 572 - - - - - - ARY170A 745 707 694 681 649 611 599 586 - - - - - - ARY190A 831 793 780 768 746 708 696 683 - - - - - - ARY200A 845 807 794 782 759 721 708 696 - - - - - - ARY220A 851 813 800 788 766 728 715 703 - - - - - - ARY240A 955 914 893 886 879 896 854 834 827 820 - - - - ARY250A 961 920 899 892 885 899 857 837 830 823 - - - - ARY280A 973 931 911 904 897 905 863 843 836 829 - - - - ARY300A 1082 1041 1020 1013 1006 1037 996 976 969 962 - - - - ARY320A 1106 1065 1044 1037 1030 1060 1019 998 991 984 - - - - ARY350A 1044 1015 1003 997 986 935 1044 907 895 889 877 832 - - ARY380A 1088 1059 1047 1041 1030 977 1088 946 934 928 917 870 - - ARY400A 1000 977 965 954 942 936 930 902 878 867 855 843 838 832 ARY420A 1007 984 972 961 949 943 937 910 886 875 863 851 846 840 R1 R2 R3 R4 R1 R3 R5 R6 49 . kg.LOAD DISTRIBUTION. PL-AP-ARY-08-2M-E .