CMWV - 2004 Vertical Water Source Heat Pump And Cooling Only Unit Models: MWV 015 A/AR MWV 020 A/AR MWV 025 A/AR MWV 030 A/AR MWV 040 A/AR MWV 050 A/AR
Contents Features ......................................................................................................................... 2 Specification ............................................................................................................. 3- 4 Operating Limits ............................................................................................................ 5 Water Loop System Diagram........................................................................................
Features High Energy efficiency The unit has high efficiency as the high energy/effect ratio and a Max. COP of 4.2 as well as saving the running cost due to water as cooling and heating media. Whisper- Quiet Operation Solid casing, special sound absorbing and thermal insulation material, separated fan and compressor as well as the special noise reduction for compressor ensure an effective noise control for the whole set.
Specifications MODEL COOLING CAPACITY Btu/h HEATING CAPACITY POWER INPUT COOLING HEATING POWER SOURCE MWV015A MWV015AR 14330 Btu/h W - W - V/Ph/Hz 15360 4500 220 - 240 / 1 / 50 - 7500 220 - 240 / 1 / 50 4 3.9 - 3.5 - 3.85 m2 0.183 0.183 0.267 W 103 215 191 Depth mm 178 178 254 Width mm 178 178 203 CFM 440 600 740 347 WATER FLOW WATER PRESSURE DROP WATER CONNECTIONS L/s 208 283 GPM 3.48 4.44 5.7 L/s 0.222 0.305 0.361 mH2O 1.3 1.5 1.7 FPT I.D.
Airflow Correction Factors Total Cooling Capillary Sensible Cooling Capillary kW -Cooling Total Heat Of Rejection Total Heating Capillary kW -Heating Total Heat Of Absorption 85 0.972 0.926 0.977 0.975 0.967 1.009 0.967 90 0.982 0.948 0.984 0.983 0.978 1.006 0.976 Percent of Nominal Airflow 95 100 105 0.994 1.000 1.007 0.974 1.000 1.027 0.993 1.000 1.011 0.991 1.000 1.008 0.990 1.000 1.009 1.003 1.000 0.997 0.989 1.000 1.010 110 1.010 1.055 1.018 1.015 1.017 0.995 1.019 115 1.013 1.066 1.028 1.018 1.
Operating Limits Air limits °C (Sl units) Cooling Heating Min. Ambient Air 19.4 21 Normal Ambient Air 26.7 21 35 26.7 19.4 21 26.7/19.4 21 35/21.7 26.7 Cooling Heating 13 10 29.4 21 40 32 Max. Ambient Air Min. Entering Air (1)&(2) Normal Entering Air, DB/WB Max. Entering Air, DB/WB (1)&(2) Note: 1. At ARI flow rate 2. Max and min values may not be combined. If one value is at max or min, the other two conditions may not exceed the normal condition. Water enthalpy °C (Sl units) Min.
Water Loop System Diagram expansion tank water supply cooling tower air vent valve thermometer water pump boiler flow switch filter filter thermometer flow switch AWV unit ACC indoor unit drain valve AWV unit Page 6 AWSC outdoor unit
Performance Tables Model: MWV 015A/AR 3 Air Flow: 760m /h Electrical Characteristics: 220V / 1Ph / 50Hz Water Flow (m3/h) E.W.T (oC) O.W.T ( C) 0.82 10 - 0.82 13 18 0.82 16 21 0.82 21 26 0.82 27 32 0.82 30 35 0.82 32 37 0.82 38 43 0.82 40 45 COOLING E.W.T = Entering Water Temperature O.W.T = Leaving Water Temperature o o HEATING o E.A.T ( C) Capacity (W) E.A.T ( C) Capacity (W) 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.
Model: MWV 020A/AR 3 Air Flow: 1020m /h Electrical Characteristics: 220V / 1Ph / 50Hz Water Flow (m3/h) E.W.T (oC) O.W.T (oC) 1.1 10 - 1.1 13 18 1.1 16 21 1.1 21 26 1.1 27 32 1.1 30 35 1.1 32 37 1.1 38 43 1.1 40 45 COOLING E.W.T = Entering Water Temperature O.W.T = Leaving Water Temperature HEATING E.A.T (oC) Capacity (W) E.A.T (oC) Capacity (W) 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.
Model: MWV 025A/AR 3 Air Flow: 1200m /h Electrical Characteristics: 220V / 1Ph / 50Hz Water Flow (m3/h) E.W.T (oC) O.W.T (oC) 1.32 10 - 1.32 13 18 1.32 16 21 1.32 21 26 1.32 27 32 1.32 30 35 1.32 32 37 1.32 38 43 1.32 40 45 COOLING E.W.T = Entering Water Temperature O.W.T = Leaving Water Temperature HEATING E.A.T (oC) Capacity (W) E.A.T (oC) Capacity (W) 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.
Model: MWV 030A/AR 3 Air Flow: 1650m /h Electrical Characteristics: 220V / 1Ph / 50Hz Water Flow (m3/h) E.W.T (oC) O.W.T (oC) 1.59 10 - 1.59 13 18 1.59 16 21 1.59 21 26 1.59 27 32 1.59 30 35 1.59 32 37 1.59 38 43 1.59 40 45 COOLING E.W.T = Entering Water Temperature O.W.T = Leaving Water Temperature HEATING E.A.T (oC) Capacity (W) E.A.T (oC) Capacity (W) 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.
Model: MWV 040A/AR 3 Air Flow: 1950m /h Electrical Characteristics: 380V / 3Ph / 50Hz Water Flow (m3/h) E.W.T (oC) O.W.T (oC) 1.92 10 - 1.92 13 18 1.92 16 21 1.92 21 26 1.92 27 32 1.92 30 35 1.92 32 37 1.92 38 43 1.92 40 45 COOLING E.W.T = Entering Water Temperature O.W.T = Leaving Water Temperature HEATING E.A.T (oC) Capacity (W) E.A.T (oC) Capacity (W) 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.
Model: MWV 050A/AR 3 Air Flow: 2500m /h Electrical Characteristics: 380V / 3Ph / 50Hz Water Flow (m3/h) E.W.T (oC) O.W.T (oC) 2.3 10 - 2.3 13 18 2.3 16 21 2.3 21 26 2.3 27 32 2.3 30 35 2.3 32 37 2.3 38 43 2.3 40 45 COOLING E.W.T = Entering Water Temperature O.W.T = Leaving Water Temperature HEATING E.A.T (oC) Capacity (W) E.A.T (oC) Capacity (W) 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.9 26.7/19.4 35/21.7 19.4/13.
Dimensions Data All dimensions are approximate. Certified drawings available upon request. DIMENSIONS UNIT SIZE A B C D E F inch mm inch mm inch mm inch mm inch mm inch 015 & 020 23.15 588 22.24 565 38.58 980 8.2 208 9.1 232 1.2 30 3/4 025 & 030 26.18 665 23.46 596 42.56 1081 11.3 287 10.5 267 1.2 30 3/4 40 30.12 765 24.25 616 48.82 1240 11.3 287 13.1 334 1.2 30 1 50 30.12 765 26.22 666 48.82 1240 11.3 287 13.1 334 1.
Wiring Diagrams Model: MWV 015 / 020A MODEL:AWV015A/020A RETURN AI R TEMP. SENSOR WATER TEMP. SENSOR COI L TEMP. SENSOR TRANSFORMER ( SLM) LI NE CONTROLLER C FM G/ Y YELLOW S BROWN R RED N BLUE L CM G/ Y BLUE RED WHI TE RED BLUE G/ R ORANGE BLUE C1 LP: LOW PRESSURE SWI TCH HP: HI GH PRESSURE SWI TCH FSW: FLOW SWI TCH C2 BLUE FM: FAN MOTOR CM: COMPRESSOR C1, C2: CAPACI TOR Model: MWV 015 / 020 AR MODEL:AWV015AR/020AR RETURN AI R TEMP. SENSOR WATER TEMP. SENSOR ( SLM) COI L TEMP.
Model: MWV 025 / 030 A MODEL:AWV025A/030A RETURN AI R TEMP. SENSOR WATER TEMP. SENSOR ( SLM) COI L TEMP. SENSOR WI RE CONTROLLER TRANSFORMER 红 C FM Y/ G KM1 S BROWN R YELLOW N BLUE L CM Y/ G RED Y/ G ORANGE RED T2 T3 L2 L3 RED RED BLUE WHI TE RED BLUE BLUE KM1 T1 L1 C1 LP: LOW PRESSURE SWI TCH HP: HI GH PRESSURE SWI TCH FSW: FLOW WATER SWI TCH C2 BLUE FM: FAN MOTOR CM: COMPRESSOR C1, C2: CAPACI TOR Model: MWV 025 / 030 AR MODEL:AWV025AR/030AR RETURN AI R TEMP.
Model: MWV 040 / 050 A MODEL:AWV040A/050A RETURN AI R TEMP. SENSOR WATER TEMP. SENSOR CM Y/ G COI L TEMP.
Transportation and Storage Upon receipt of the equipment, check the carton for visible damage. Make a notation on the shipper's delivery ticket before signing. If there is any evidence of rough handing, the cartons should be opened at once to check for concealed damage, If any damage is found, notify the carrier within 48 hours to establish your claim and request their inspection and a report. The Warranty Claims Department should then be contacted.
Typical closet installation with louver door return & with ducted return Duct and attenuation Discharge ductwork is normally used with these conditioners. Return air ductwork may also be required, but will require field installation of a 1" or 2" (21 or 51mm) return air duct collar/ filter rack kit.
Ventilation Air Outside air may be required for ventilation. The temperature of the ventilation air must be controlled so that mixture of outside air and return air entering the conditioner does not exceed application limits. It is also general practice to close off the ventilation air system during unoccupied periods (night setback). The ventilation air system is generally a separate building subsystem with distribution ductwork.
Piping 1. All units are recommended to be connected to supply and return piping in a two-pipe reverse return configuration. A reverse return system is inherently self-balancing and requires only trim balancing where multiple quantities of units with different flow and pressure drop characteristics are connected to the same loop. A simple way to check for proper water balance is to take a differential temperature reading across the water connections.
1 1/ 2" ( 38mm) 1 1/ 2" ( 38mm) FI GURE E 1/ 4" PER FOOT ( 20mm PER METER) 8. No point in the drain system may be above the drain connection of any unit. 9. Automatic flow controlled devices must not be installed prior to system cleaning and flushing. 10. A high point of the piping system must be vented. 11.
3. 4. 5. 6. Supplemental heater and circulator pump should be shut off. All drains and vents should be opened to completely drain down the system. Short circuited supply and return runouts should now be connected to the conditioner supply and return connections. Teflon tape is recommended over pipe dope for pipe dope for pipe thread connections. Do not use sealers at the swivel flare connections of hoses. Trisodium phosphate was formerly recommended as a cleaning agent during flushing.
Start-Up 1. 2. Open all valves to full open position and turn on power to the conditioners. Set thermostat for "Fan Only" operation by selecting "Off " at the system switch and "On" at the fan switch. If "Auto" fan operation were selected, the fan would cycle with the compressor. Check for proper air delivery. 3. All units have three-speed motors. 4. Set thermostat to "Cool". Many conditioners have time delays which protect the compressor against short cycling.
Maintenance 1. 2. 3. 4. 5. Normal maintenance on all conditioners is generally limited to filter changes. Lubrication of the fan motor is not required. Filter changes are required at regular intervals. The time period between changes will depend upon the project requirements. Some applications such as motels produce a lot of lint from carpeting and linen changes. It is suggested that the filter be checked at 60-day intervals for the first year until experience is acquired.
Compressor attempts to start but doesn’t 1. 2. 3. Check capacitor. Check for defective compressor by making resistance check on winding. Check run capacitor. Compressor runs in short cycle 1. 2. 3. 4. 5. 6. Check thermostat mounting and location. Check all relays, relaying and contacts. Check run capacitor. Check high pressure switch. Check low temperature switch. See if reversing valve has not fully shifted to either side. Insufficient cooling or heating 1. 2. 3. 4. 5.
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