Tableau avec les données techniques pour EWYQ-CWP

EWYQ016CAWP EWYQ021CAWP EWYQ025CAWP EWYQ032CAWP EWYQ040CAWP EWYQ050CAWP EWYQ064CAWP
Cooling capacity Nom. kW 17.0 (1) 21.2 (1) 25.5 (1) 31.8 (1) 42.3 (1) 50.7 (1) 63.3 (1)
Capacity control Method   Inverter controlled Inverter controlled Inverter controlled Inverter controlled Inverter controlled Inverter controlled Inverter controlled
  Minimum capacity % 25 25 25 25 25 25 25
Power input Cooling Nom. kW 5.81 (1) 7.47 (1) 9.45 (1) 12.7 (1) 15.1 (1) 19.0 (1) 25.5 (1)
EER 2.93 2.84 2.70 2.50 2.80 2.67 2.48
Dimensions Unit Depth mm 774 774 774 774 780 780 780
    Height mm 1,684 1,684 1,684 1,684 1,684 1,684 1,684
    Width mm 1,370 1,370 1,370 1,680 2,360 2,360 2,980
Weight Unit kg 280 332 332 414 604 604 765
Casing Colour   Daikin White Daikin White Daikin White Daikin White Daikin White Daikin White Daikin White
  Material   Polyester coated galvanised steel plate Polyester coated galvanised steel plate Polyester coated galvanised steel plate Polyester coated galvanised steel plate Polyester coated galvanised steel plate Polyester coated galvanised steel plate Polyester coated galvanised steel plate
Air heat exchanger Type   Air cooled coil Air cooled coil Air cooled coil Air cooled coil Air cooled coil Air cooled coil Air cooled coil
Fan Quantity   1 1 1 2 2 2 4
  Type   Axial Axial Axial Axial Axial Axial Axial
Fan motor Drive   Direct drive Direct drive Direct drive Direct drive Direct drive Direct drive Direct drive
Compressor Quantity   1 2 2 3 4 4 6
  Type   Hermetically sealed scroll compressor Hermetically sealed scroll compressor Hermetically sealed scroll compressor Hermetically sealed scroll compressor Hermetically sealed scroll compressor Hermetically sealed scroll compressor Hermetically sealed scroll compressor
Operation range Air side Cooling Min. °CDB -5 -5 -5 -5 -5 -5 -5
      Max. °CDB 43 43 43 43 43 43 43
  Water side Evaporator Min. °CDB -10 (4) -10 (4) -10 (4) -10 (4) -10 (4) -10 (4) -10 (4)
      Max. °CDB 20 20 20 20 20 20 20
Sound power level Cooling Nom. dBA 78 78 78 80 81 81 83
Refrigerant Type   R-410A R-410A R-410A R-410A R-410A R-410A R-410A
  GWP   2,087.5 2,087.5 2,087.5 2,087.5 2,087.5 2,087.5 2,087.5
  Circuits Quantity   1 1 1 1 2 2 2
Power supply Phase   3N~ 3N~ 3N~ 3N~ 3N~ 3N~ 3N~
  Frequency Hz 50 50 50 50 50 50 50
  Voltage V 400 400 400 400 400 400 400
  Voltage range Min. % -10 -10 -10 -10 -10 -10 -10
    Max. % 10 10 10 10 10 10 10
Unit Starting current Max A 0.0 (9) 77.7 78.7 88.7 99.8 101.9 120.7
  Running current Max A 22.2 25.3 26.4 35.2 47.4 49.6 67.2
Notes (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C (1) - Cooling: entering evaporator water temp. 12°C; leaving evaporator water temp. 7°C; ambient air temp. 35°C
  (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C) (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C) (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C) (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C) (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C) (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C) (2) - Condition: Ta DB/WB 7°C/6°C - LWC 45°C (Dt=5°C)
  (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C) (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C) (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C) (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C) (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C) (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C) (3) - Condition: Ta 35°C - LWE 7°C ( DT = 5°C)
  (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti (4) - Water can be used above 5°C. Between 0°C and 5°C a 30% glycol solution (propylene or ethylene) has to be used. Between 0°C and -10°C a 40% glycol solution (propylene or ethylene) has to be used (see installation manual and information related to OPZL opti
  (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info. (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info. (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info. (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info. (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info. (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info. (5) - Excluding water volume in the unit. In most applications this minimum water volume will have a satisfying result. In critical processes or in rooms with a high heat load though, extra water volume might be required. Refer to operation range for more info.
  (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils) (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils) (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils) (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils) (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils) (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils) (6) - Excluding the water volume in the unit. This volume will guarantee suficient defrost energy for all applications, however, this volume can be multiplied by 0,66 if the heating sepoint is ≥ 45° C (eg. Fan coils)
  (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop. (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop. (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop. (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop. (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop. (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop. (7) - This is PD between inlet & outlet connections of unit. It includes the water side heat exchanger pressure drop.
  (8) - Including piping + PHE; excluding expansion vessel (8) - Including piping + PHE; excluding expansion vessel (8) - Including piping + PHE; excluding expansion vessel (8) - Including piping + PHE; excluding expansion vessel (8) - Including piping + PHE; excluding expansion vessel (8) - Including piping + PHE; excluding expansion vessel (8) - Including piping + PHE; excluding expansion vessel
  (9) - No peak current because of inverter compressor (9) - No peak current because of inverter compressor (9) - No peak current because of inverter compressor (9) - No peak current because of inverter compressor (9) - No peak current because of inverter compressor (9) - No peak current because of inverter compressor (9) - No peak current because of inverter compressor