Mitsubishi PUH-P200MYA, PUH-P250MYA Service Manual
TECHNICAL & SERVICE MANUAL
HEAT PUMP
PUH-P200MYA,PUH-P250MYA
(Single and Twin/Triple/Four)
Models
AIR-COOLED SPLIT-TYPE
PACKAGED AIR CONDITIONERS
<Outdoor unit>
2005
For use with the R407C
Page
Contents
1 PRECAUTIONS FOR DEVICES THAT USE R407C REFRIGERANT ...................................... 1
[1] Storage of Piping Material ...................................................................................................2
[2] Piping Machining ................................................................................................................. 3
[3] Necessary Apparatus and Materials and Notes on Their Handling ..................................... 4
[4] Brazing................................................................................................................................. 5
[5] Airtightness Test .................................................................................................................. 6
[6] Vacuuming ........................................................................................................................... 6
[7] Charging of Refrigerant ....................................................................................................... 7
2 SPECIFICATIONS ...................................................................................................................... 8
3 EXTERNAL DIMENSIONS ....................................................................................................... 10
4 ELECTRICAL WIRING DIAGRAM ............................................................................................ 11
[1] Outdoor Unit ....................................................................................................................... 11
[2] Skelton of Indoor/Outdoor Connection .............................................................................. 12
5 Technical Data of PUH-P200MYA/P250MYA to Meet LVD .................................................... 13
[1] Standard Operation Data ................................................................................................... 13
[2] Cooling Capacity Curves ................................................................................................... 15
[3] Heating Capacity Curves ................................................................................................... 15
[4] Capacity Reduction Ratio due to Changes in Piping Length ............................................. 16
[5] Center of Gravity (Outdoor unit) ........................................................................................ 17
[6] NC Curve (Outdoor unit) ................................................................................................... 18
6 SERVICE DATA ........................................................................................................................ 19
[1] Appearance of Equipment ................................................................................................. 19
[2] Refrigerant Circuit .............................................................................................................. 21
[3] Limitation of Refrigerant Piping Length.............................................................................. 21
[4] Refrigerant Piping .............................................................................................................. 22
[5] Refrigerant Charge ............................................................................................................ 22
[6] Operation Rage ................................................................................................................. 22
7 CONTROL ................................................................................................................................ 23
[1] Composition of Control ...................................................................................................... 23
[2] Control specifications......................................................................................................... 24
[3] Function of switches and connectors (outdoor unit) .......................................................... 28
[4] Simple parts check method ............................................................................................... 36
[5] Reference Data.................................................................................................................. 37
[6] Troubleshooting of each part ............................................................................................. 38
[7] Emergency operation......................................................................................................... 41
[8] Self-diagnosis and troubleshooting.................................................................................... 43
8T
est run
.................................................................................................................................... 53
–1–
¡ PRECAUTIONS FOR DEVICES THAT USE R407C REFRIGERANT
Caution
Do not use the existing refrigerant piping.
•A large amount of chlorine that may be contained in
the residual refrigerant and refrigerating machine oil
in the existing piping may cause the refrigerating
machine oil in the new unit to deteriorate.
Use refrigerant pipes made of phosphorus
deoxidized copper. Keep the inner and outer
surfaces of the pipes clean and free of such
contaminants as sulfur, oxides, dust, dirt, shaving
particles, oil, and water.
• These types of contaminants inside the refrigerant
pipes may cause the refrigerant oil to deteriorate.
Store the pipes to be installed indoors, and keep both
ends of the pipes sealed until immediately before
brazing. (Keep elbows and other joints wrapped in
plastic.)
•
Infiltration of dust, dirt, or water into the refrigerant
system may cause the refrigerating machine oil to
deteriorate or cause the unit to malfunction.
Use a small amount of ester oil, ether oil, or
alkylbenzene to coat flares and flanges.
• Infiltration of a large amount of mineral oil may
cause the refrigerating machine oil to deteriorate.
Charge liquid refrigerant (as opposed to gaseous
refrigerant) into the system.
• If gaseous refrigerant is charged into the system, the
composition of the refrigerant in the cylinder will
change and may result in performance loss.
Only use refrigerant R407C.
• The use of other types of refrigerant that contain
chlorine (i.e. R22) may cause the refrigerating
machine oil to deteriorate.
Use a vacuum pump with a reverse-flow check valve.
•
If a vacuum pump that is not equipped with a
reverse-flow check valve is used, the vacuum pump
oil may flow into the refrigerant cycle and cause the
refrigerating machine oil to deteriorate.
Prepare tools for exclusive use with R407C. Do not
use the following tools if they have been used with
the conventional refrigerant (gauge manifold,
charging hose, gas leak detector, reverse-flow
check valve, refrigerant charge base, vacuum
gauge, and refrigerant recovery equipment.).
• If the refrigerant or the refrigerating machine oil left
on these tools are mixed in with R407C, it may cause
the refrigerating machine oil to deteriorate.
• Infiltration of water may cause the refrigerating
machine oil to deteriorate.
• Gas leak detectors for conventional refrigerants will
not detect an R407C leak because R407C is free
of chlorine.
Do not use a charging cylinder.
•
If a charging cylinder is used, the composition of the
refrigerant will change, and the unit may experience
power loss.
Exercise special care when handling the tools for
use with R407C.
• Infiltration of dust, dirt, or water into the refrigerant
system may cause the refrigerating machine oil to
deteriorate.
If the refrigerant leaks, recover the refrigerant in the
refrigerant cycle, then recharge the cycle with the
specified amount of the liquid refrigerant indicated
on the air conditioner.
•Since R407C is a nonazeotropic refrigerant, if additionally charged when the refrigerant leaked, the composition of the refrigerant in the refrigerant cycle will
change and result in a drop in performance or abnormal stopping.
–2–
[1] Storage of Piping Material
(1) Storage location
Store the pipes to be used indoors. (Warehouse at site or owner’s warehouse)
Storing them outdoors may cause dirt, waste, or water to infiltrate.
(2) Pipe sealing before storage
Both ends of the pipes should be sealed until immediately before brazing.
Wrap elbows and T’s in plastic bags for storage.
* The new refrigerator oil is 10 times more hygroscopic than the conventional refrigerator oil (such as Suniso). Water
infiltration in the refrigerant circuit may deteriorate the oil or cause a compressor failure. Piping materials must be stored
with more care than with the conventional refrigerant pipes.
OK
OK
NO
NO
–3–
[2] Piping Machining
Use ester oil, ether oil or alkylbenzene (small amount) as the refrigerator oil to coat flares and flange connections.
Do not use oils other than ester oil, ether oil or alkylbenzene.
Use only the necessary minimum quantity of oil.
Reason:
1. The refrigerator oil used for the equipment is highly hygroscopic and may introduce water inside.
Notes:
• Introducing a great quantity of mineral oil into the refrigerant circuit may also cause a compressor failure.
•
–4–
[3] Necessary Apparatus and Materials and Notes on Their Handling
The following tools should be marked as dedicated tools for R407C.
<<Comparison of apparatus and materials used for R407C and for R22>>
Apparatus Used Use R22 R407C
Gauge manifold Evacuating, refrigerant filling Current product
Charging hose Operation check Current product
Charging cylinder Refrigerant charging Current product Do not use
Gas leakage detector Gas leakage check Current product Shared with R134a
Refrigerant collector Refrigerant collection R22 For R407C use only
Refrigerant cylinder Refrigerant filling R22 Identification of dedi-
cated use for R407C:
Record refrigerant name
and put brown belt on
upper part of cylinder.
Vacuum pump Vacuum drying Current product Can be used by attach-
ing an adapter with a
check valve.
Vacuum pump with a check valve Current product
Flare tool Flaring of pipes Current product
Bender Bending of pipes Current product
Application oil Applied to flared parts Current product Ester oil or Ether oil or
Alkybenzene (Small
amount)
Torque wrench Tightening of flare nuts Current product
Pipe cutter Cutting of pipes Current product
Welder and nitrogen cylinder Welding of pipes Current product
Refrigerant charging meter Refrigerant charging Current product
Vacuum gauge Checking the vacuum degree Current product
Symbols: To be used for R407C only. Can also be used for conventional refrigerants.
Tools for R407C must be handled with more care than those for conventional refrigerants. They must not come into contact
with any water or dirt.
–5–
[4] Brazing
No changes from the conventional method, but special care is required so that foreign matter (ie. oxide scale, water, dirt,
etc.) does not enter the refrigerant circuit.
Example: Inner state of brazed section
When non-oxide brazing was not used When non-oxide brazing was used
Items to be strictly observed:
1. Do not conduct refrigerant piping work outdoors on a rainy day.
2. Apply non-oxide brazing.
3. Use a brazing material (BCuP-3) which requires no flux when brazing between copper pipes or between a copper
pipe and copper coupling.
4. If installed refrigerant pipes are not immediately connected to the equipment, then braze and seal both ends of them.
Reasons:
1. The new refrigerant oil is 10 times more hygroscopic than the conventional oil. The probability of a machine failure if
water infiltrates is higher than with conventional refrigerant oil.
2. A flux generally contains chlorine. A residual flux in the refrigerant circuit may generate sludge.
Note:
• Commercially available antioxidants may have adverse effects on the equipment due to its residue, etc. When
applying non-oxide brazing, use nitrogen.
–6–
[5] Airtightness Test
No changes from the conventional method. Note that a refrigerant leakage detector for R22 cannot detect R407C leakage.
Halide torch R22 leakage detector
Items to be strictly observed:
1. Pressurize the equipment with nitrogen up to the design pressure and then judge the equipment’s airtightness, taking
temperature variations into account.
2. When investigating leakage locations using a refrigerant, be sure to use R407C.
3. Ensure that R407C is in a liquid state when charging.
Reasons:
1. Use of oxygen as the pressurized gas may cause an explosion.
2. Charging with R407C gas will lead the composition of the remaining refrigerant in the cylinder to change and this
refrigerant can then not be used.
Note:
•A leakage detector for R407C is sold commercially and it should be purchased.
[6] Vacuuming
1. Vacuum pump with check valve
A vacuum pump with a check valve is required to prevent the vacuum pump oil from flowing back into the refrigerant
circuit when the vacuum pump power is turned off (power failure).
It is also possible to attach a check valve to the actual vacuum pump afterwards.
2. Standard degree of vacuum for the vacuum pump
Use a pump which reaches 0.5 Torr (500 MICRON) or below after 5 minutes of operation.
In addition, be sure to use a vacuum pump that has been properly maintained and oiled using the specified oil. If the
vacuum pump is not properly maintained, the degree of vacuum may be too low.
3. Required accuracy of the vacuum gauge
Use a vacuum gauge that can measure up to 5 Torr. Do not use a general gauge manifold since it cannot measure a
vacuum of 5 Torr.
4. Evacuating time
•Evacuate the equipment for 1 hour after -755 mmHg (5 Torr) has been reached.
• After envacuating, leave the equipment for 1 hour and make sure the that vacuum is not lost.
5. Operating procedure when the vacuum pump is stopped
In order to prevent a backflow of the vacuum pump oil, open the relief valve on the vacuum pump side or loosen the
charge hose to drawn in air before stopping operation.
The same operating procedure should be used when using a vacuum pump with a check valve.
NO
NO
–7–
[7] Charging of Refrigerant
R407C must be in a liquid state when charging, because it is a non-azeotropic refrigerant.
For a cylinder with a syphon attached For a cylinder without a syphon attached
Cylinder color identification R407C-Gray Charged with liquid refrigerant
R410A-Pink
Reasons:
1. R407C is a mixture of 3 refrigerants, each with a different evaporation temperature. Therefore, if the equipment is
charged with R407C gas, then the refrigerant whose evaporation temperature is closest to the outside temperature is
charged first while the rest of refrigerants remain in the cylinder.
Note:
• In the case of a cylinder with a syphon, liquid R407C is charged without turning the cylinder up side down. Check the
type of cylinder before charging.
Cylin-
der
Cylin-
der
Valve
Valve
Liquid
Liquid
–8–
Cooling Heating
18,000 20,400
20.9 23.7
3N~ 380/400/415 V 50 Hz
7.27 7.17
13.0 12.8
Propeller fan × 1
185
0.38
Hermetic
5.5
0.05 (240V)
R407C/FVC68D
Steel plate painting with polyester powder
(MUNSELL 5Y8/1 or similar)
1,715(H) × 990(W) × 840(L)
3.3
Overcurrent protection/Thermal switch
ø12.7 Flare / ø25.4 Flange
PEH-RP200MYA
56
215
Indoor: 15 °CWB~24 °CWB Indoor: 15°CDB~27 °CDB
Outdoor: -5 °CDB~46 °CDB
Outdoor: -12 °CWB~18 °CWB
2 SPECIFICATIONS
Specifications of air-source heat pump type packaged air conditioner
(Outdoor unit)
Model name PUH-P200MYA Quantity
Capacity
kcal/h
kW
Power source
Power input kW
Current A
Type x Quantity
Fan Airflow rate m3/min
Motor output kW
Type
Compressor Motor output kW
Crankcase heater kW
Refrigerant/Lubricant
External finish
External dimension mm
High pressure protection MPa
Compressor/Fan
Refrigerant piping diameter Liquid/Gas mm
Indoor unit
Noise level dB (A)
Net weight kg
Operating temperature range
Notes:
1. Cooling/Heating capacity indicates the maximum value at operation under the following condition.
Cooling Indoor: 27 °CDB/19 °CWB Outdoor: 35
°
CDB
Heating Indoor: 20 °CDB Outdoor: 7
°
CDB/6 °CWB
Pipe length: 7.5m Height difference: 0m
2. Works not included: Installation/Foundation work, Electrical connection work, Duct work, Insulation
work, Power source switch, and other items not specified in this specifications.
Protection
device
–9–
Cooling Heating
22,400 26,200
26.0 30.5
3N~ 380/400/415V 50Hz
9.02 8.62
16.0 15.4
Propeller fan × 1
185
0.38
Hermetic
7.5
0.05 (240V)
R407C/FVC68D
Steel plate painting with polyester powder
(MUNSEL 5Y8/1 or similar)
1,715(H) × 990(W) × 840(L)
3.3
Overcurrent protection/Thermal switch
ø12.7 Flare / ø28.6 Flange
PEH-RP250MYA
57
220
Indoor: 15 °CWB~24 °CWB Indoor: 15 °CDB~27 °CDB
Outdoor: -5 °CDB~46 °CDB Outdoor: -12 °CWB~18 °CWB
Specifications of air-source heat pump type packaged air conditioner
(Outdoor unit)
Model name PUH-P250MYA Quantity
Capacity
kcal/h
kW
Power source
Power input kW
Current A
Type x Quantity
Fan Airflow rate m3/min
Motor output kW
Type
Compressor Motor output kW
Crankcase heater kW
Refrigerant/Lubricant
External finish
External dimension mm
High pressure protection MPa
Compressor/Fan
Refrigerant piping diameter Liquid/Gas mm
Indoor unit
Noise level dB (A)
Net weight kg
Operating temperature range
Notes:
1. Cooling/Heating capacity indicates the maximum value at operation under the following condition.
Cooling Indoor: 27 °CDB/19 °CWB Outdoor: 35 °CDB
Heating Indoor: 20 °CDB Outdoor: 7 °CDB/6 °CWB
Pipe length: 7.5 m Height difference: 0 m
2. Works not included: Installation/Foundation work, Electrical connection work, Duct work, Insulation
work, Power source switch, and other items not specified in this specifications.
Protection
device
–10–
3 EXTERNAL DIMENSIONS
• Models PUH-P200MYA/P250MYA
65
60
84
100 251
234
60 75
194
10048
80 40
121
50
6 5
840
910
15
880
15
990
215
215
560
1715
225
1490
413
55
190
149
40
70
16531
80
79
55
378
160
25
198
237
8073
Service panel
4-14X20 holes
<For mounting
anchor bolt M8>
(Field supply)
Plane view
Rear view
Left side view
Front view
Right side view
Refrig. service
valve (liquid)
φ
12.7<flare>
Refrig. service
valve(gas)
<flange>
φ
38.1 Knockout hole
<Bottom side hole for
the power supply>
φ
38.1 Knockout hole
<Left side hole for
the power supply>
Knockout hole
<Front side hole for
the power supply and
control wiring>
φ
38.1 Knockout hole
<Right side hole for
the power supply>
φ
25.4 Knockout hole
<Bottom side hole for
the control wiring>
φ
25.4 Knockout hole
<Left side hole for
the control wiring>
φ
25.4 Knockout hole
<Right side hole for
the control wiring>
Knockout hole
Left piping hole
Knockout hole
Front piping hole
Knockout hole
Pressure gauge
(for option)
Knockout hole
Rear piping hole
(It is necessary
for the option)
Connecting pipe
8 :
φ
25.4<brazed>
10 :
φ
28.6<brazed>
Note 1
Note 2
Note 3
Knockout hole
Bottom piping hole
Cross section X-X
Cross section Y-Y
X
X
Y
Y
Air outlet
Air
inlet
Air
inlet
<Accessory>
• Refrigerant connecting pipe ......................................
1pc.
(The connecting pipe is fixed with the unit)
•Packing for connecting pipe ......................................
1pc.
(It is attached control box cover)
• Conduit mounting plate
(Painted the same color as the unit body)
φ
27 ............................................................................
1pc.
φ
34 ............................................................................
1pc.
φ
40 ............................................................................
1pc.
•Tapping screw 4 x 12 ..............................................
4pcs.
Note: 1. Please leave a space under the outdoor unit for
the piping when you connected the piping from
the bottom.
(Please be careful not to close the hole of the
bottom plate by the basement.)
2. It is possible to change to
φ
27 or
φ
34 by selecting
the conduit mounting plate.
3. The hole size can be selected to
φ
27 or
φ
34 or
φ
40 by selecting the conduit mounting plate.
–11–
4 ELECTRICAL WIRING DIAGRAM
[1] Outdoor Unit
• Model PUH-P200MYA/P250MYA
Symbol Name
F1, F2 FUSE (15A 250VAC CLASS T)
F01~F04 FUSE (6.3A 250VAC CLASS F)
F10~F30 FUSE (6.3A 250VAC CLASS F)
51C OVER CURRENT RELAY (COMPRESSOR)
52C MAGNETIC CONTACTOR (COMPRESSOR)
63L PRESSURE SWITCH (LOW PRESSURE)
63H1 PRESSURE SWITCH (HIGH PRESSURE)
63H2 PRESSURE SWITCH (FOR CONTROL)
MC COMPRESSOR MOTOR
MF FAN MOTOR (OUTDOOR)
TR TRANSFORMER
X1 AUXILIARY RELAY (FOR 16, 20HP)
LED 1 LED (FOR SERVICE)
X01~X05 AUXILIARY RELAY (MAIN BOARD)
CN2,CN20~28
CN3,34,30,3N,3S
CN4,40,51~53,81
CONNECTOR MAIN BOARD
CNFC1, FG, S3
CNMT,VMNT
Symbol Name
SW1~SW5 SWITCH (MAIN BORD)
21S4 4-WAY VALVE
SV1 SOLENOID VALVE
CH CRANK CASE HEATER (COMPRESSOR)
LEV ELECTRINIC EXPANSION VALVE
TH1 LIQUID TEMP.
TH2 THERMISTOR DISCHARGE TEMP.
TH3 COND./EVA. TEMP.
TB1 POWER SOURCE TERMINAL BLOCK
TB3, 4 OUTDOOR/INDOOR CONNECTION TERMINAL BLOCK
TB8 TERMINAL BLOCK (FOR 16, 20HP)
C11, C12 CONNECTOR (FAN MOTOR)
C14 CONNECTOR (63H2)
CAFAN, CNFC2
CONNECTOR (F. C. BOARD)
CNPO
CNOUT1, 2
CONNECTOR (N, F. BOARD)
CNIN
Note :
1. Be sure to apply earth work to the unit.
(Use the earth terminal of TB1.)
2. The dotted lines show field wiring.
3. Color of earth wire is yellow and green
twisting.
4. This motor (*1) includes auto reset type
internal thermostat.
5. Indoor and outdoor connecting wires
(*2) are made with polarities, make
sure matching wiring and terminal.
6. SW5 (*3) is shown PUH-P250MYA setting.
In case of PUH-P200MYA setting is
shown as below.
Caution :
1. To protect compressor from abnormal current, over current relays is installed. Therefore, do not change factory set value of over
current relays.
(*3)
14
SW5
ON
OFF
63H1
63L
CN23
1
3
CN22
1
3
CN21
1
3
CN26
1
3
5
CN25
1
3
CN53
1
3
CN52
1
3
5
6
CNFC1
1
6
CN20
L1
7
F01
N
F04
L2
F02
L3
1
F03
X1
INDOOR UNIT
TB4
S1
S2
S3
(3P)
(3P)
(3P)
(5P)
(3P)
(3P)
(6P)
(6P)
(7P)
3
RED
51C
52C
RED
TB1
L1
L2 L3 N PE
POWER SUPPLY
3N~PE
380/400/415V
50HZ
MC
WHITE WHITE
BLACK
BLACK
(*1)
MF
13 1
C11
(3P)
35
1
CNFAN
(5P)
CNFC2
F. C .
BOARD
CNPO
(5P)
CNOUT1
BLUE
5
3
11
(5P)
1
F10
3
F20
5
F30
7
CNIN
(7P)
GREEN/YELLOW
F1
F2
PE
CIRCUIT BREAKER
(FIELD SUPPLY)
PUH-P200MYA-EU : 50A
PUH-P250MYA-EU : 60A
3
(6P)
CNOUT2
N.F.BOARD
TB3
C12
(3P)
1
6
3
(3P)
S1 S2 S3
SV1
51C
52C
52C
PE
TO INDOOR UNIT
CONNECTING WIRES (*2)
(POLER)
21S4
TB8
CH
OUT OUT ININ
CNVMNT
(3P)
X04
X01
X02
X05
CNFG
(3P)
1
CNMNT
(5P)
(*3)
O
OFF
4
1
SW5
O
OFF
SW3
X03
LED1
Transmission
Circuit
CNS3
(3P)
OUTDOOR UNIT CONTROL BOX
TH1
TH2
LEV
1
212
2
CN2
CN40 CN4CN3
(2P)
(6P)
1
SW4
3
2
(2P) (2P)
O
OFF
16
SW1
O
OFF
1
6
SW2
CN34
CN28
(3P)
3
1
1
TR
DC power
supply
(3P)
TH3
3
1
CN3D
(3P)
CN3S
(3P)
CN3N
(3P)
CN24
(3P)
CN27
(3P)
CN81
(3P)
CN51
(5P)
1
X1
3
1
63H2
2
3
1
1
C14
(2P)
–12–
Indoor Units
PEH-RP*MYA
PLH-P*KAH, PLH-P*AAH
PLA-P*KA, PLA-P*AA
PEHD-P*EAH, PEAD-P*EA
PCH-P*GAH, PCA-P*GA
PKH-P*GALH, PKH-P*FALH
PKA-P*GAL, PKA-P*FAL
PSH-P*GAH, PSA-P*GA
Indoor Units
PEH-RP*MYA
PLH-P*KAH, PLH-P*AAH
PLA-P*KA, PLA-P*AA
PEHD-P*EAH, PEAD-P*EA
PCH-P*GAH, PCA-P*GA
PKH-P*GALH, PKH-P*FALH
PKA-P*GAL, PKA-P*FAL
PSH-P*GAH, PSA-P*GA
Multi distributor pipes
(Option)
25 : 25 : 25 : 25
2HP+2HP
+2HP+2HP
–
–
2.5HP+2.5HP+
2.5HP+2.5HP
–
–
SDT-1111SA-E
[2] Skelton of Indoor/Outdoor Connection
(1) Applicable combinations of 8 & 10HP [PUH-P200MYA/P250MYA]
(2) System
Indoor units
Distributor
Remote
controller
Outdoor unit
Pipe work
Transmission
line
3-core cable
Distributor
Remote
controller
Outdoor unit
Pipe work
Transmission
line
3-core cable
Indoor unit
Remote
controller
Outdoor unit
Pipe work
Pipe work
Transmission line
3-core
*4-core cable
cable 3-core *cable
Indoor units
Twin
TripleSingle
Single
8HP
–
–
–
–
–
10HP
–
–
–
–
–
–
50 : 50
4HP+4HP
–
5HP+5HP
–
–
SDD-50WSA-E
33 : 33 : 33
2.5HP+2.5HP
+2.5HP
–
–
3HP+3HP
+3HP
–
SDT-111SA-E
25 : 25 : 50
2HP+2HP
+4HP
–
–
2.5HP+2.5HP
+5HP
–
–
–
SDT-112SA-E
20 : 40 : 40
1.6HP+3HP
+3HP
–
–
–
2HP+4HP
+4HP
–
–
SDT-122SA-E
PUH-P250MYA PUH-P200MYA
Four
Distributor
Remote
controller
Outdoor unit
Pipe work
Transmission
line
3-core cable
Indoor units
*
indicates applicable HP
* Two outdoor units connected when using
PEH-P400·500MYA,
therefore 4-core cable required in order to send and receive
alternate defrost signal.
Outdoor unit
Indoor Units
PEH-P*MYA
Indoor Unit
PEH-P*MYA
16HP
20HP
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–
–13–
380 400 415 380 400 415
50 50 50 50 50 50
27/19 27/19 27/19 20/– 20/– 20/–
35/– 35/– 35/– 7/6 7/6 7/6
7.5 7.5 7.5 7.5 7.5 7.5
7.9 7.9 7.9 7.9 7.9 7.9
13.0 13.0 13.0 12.8 12.8 12.8
7.27 7.27 7.27 7.17 7.17 7.17
11.9 11.9 11.9 11.7 11.7 11.7
1.1 1.1 1.1 1.1 1.1 1.1
1.12 1.12 1.12 1.12 1.12 1.12
0.65 0.65 0.65 0.65 0.65 0.65
2.11 2.11 2.11 1.91 1.91 1.91
0.48 0.48 0.48 0.40 0.40 0.40
75 75 75 70 70 70
666000
46 46 46 0 0 0
35 35 35 30 30 30
5 Technical Data of PUH-P200MYA/P250MYA to Meet LVD
[1] Standard Operation Data
(1) PUH-P200MYA
Operating condition
Operating condition Cooling Heating
Voltage V
Power source frequency Hz
Indoor air condition (DB/WB) °C
Outdoor air condition (DB/WB) °C
Piping length m
Refrigerant charge kg
Current A
Input kW
Compressor current A
Fan current A
Current A
Input kW
Discharge pressure MPa
Suction pressure MPa
Discharge refrigerant temperature °C
Suction refrigerant temperature °C
Liquid pipe temperature
(at piping sensor)
°C
Compressor shell bottom temperature °C
Outdoor unit
Indoor unit
Refrigerant circuit
Electrical characteristics
380 400 415 380 400 415
50 50 50 50 50 50
27/19 27/19 27/19 20/– 20/– 20/–
35/– 35/– 35/– 7/6 7/6 7/6
7.5 7.5 7.5 7.5 7.5 7.5
8.4 8.4 8.4 8.4 8.4 8.4
16.0 16.0 16.0 15.4 15.4 15.4
9.02 9.02 9.02 8.62 8.62 8.62
14.9 14.9 14.9 14.3 14.3 14.3
1.1 1.1 1.1 1.1 1.1 1.1
1.64 1.64 1.64 1.64 1.64 1.64
0.94 0.94 0.94 0.94 0.94 0.94
2.22 2.22 2.22 1.75 1.75 1.75
0.50 0.50 0.50 0.38 0.38 0.38
80 80 80 65 65 65
888-1-1-1
48 48 48 0 0 0
30 30 30 20 20 20
(2) PUH-P250MYA
Operating condition
Operating condition Cooling Heating
Voltage V
Power source frequency Hz
Indoor air condition (DB/WB) °C
Outdoor air condition (DB/WB) °C
Piping length m
Refrigerant charge kg
Current A
Input kW
Compressor current A
Fan current A
Current A
Input kW
Discharge pressure MPa
Suction pressure MPa
Discharge refrigerant temperature °C
Suction refrigerant temperature °C
Liquid pipe temperature
(at piping sensor)
°C
Compressor shell bottom temperature °C
Outdoor unit
Indoor unit
Refrigerant circuit
Electrical characteristics
Note: The values listed above indicate that when connected with the indoor unit PEH-RP200MYA as representative data.
Note: The values listed above indicate that when connected with the indoor unit PEH-RP250MYA
as representative data.
(3) PUH-P200MYA×2 units
V 380 415 380 415
Hz 50 50 50 50
°C 27/19 27/19 20/– 20/–
°C 35/– 35/– 7/6 7/6
m 7.5 7.5 7.5 7.5
kg 7.9 7.9 7.9 7.9
Current A 13.0 13.0 12.8 12.8
Input kW 7.27 7.27 7.17 7.17
Compressor Current A 11.9 11.9 11.7 11.7
Fan current A 1.1 1.1 1.1 1.1
Current A 4.5 4.1 4.5 4.1
Input kW 2.30 2.30 2.30 2.30
MPa 2.11 2.11 1.81 1.81
MPa 0.52 0.52 0.40 0.40
°C75 75 70 70
°C6 6 0 0
°C46 46 0 0
°C35 35 30 30
Note: The values listed above indicate that when connected with the indoor unit PEH-P400MYA as representative data.
*1: Value for one outdoor unit.
(4) PUH-P250MYA×2 units
V 380 415 380 415
Hz 50 50 50 50
°C 27/19 27/19 20/– 20/–
°C 35/– 35/– 7/6 7/6
m 7.5 7.5 7.5 7.5
kg 8.4 8.4 8.4 8.4
Current A 16.0 16.0 15.4 15.4
Input kW 9.02 9.02 8.62 8.62
Compressor Current A 14.9 14.9 14.3 14.3
Fan current A 1.1 1.1 1.1 1.1
Current A 5.1 4.7 5.1 4.7
Input kW 2.50 2.50 2.50 2.50
MPa 2.22 2.22 1.75 1.75
MPa 0.50 0.50 0.38 0.38
°C80 80 65 65
°C8 8 -1 -1
°C48 48 0 0
°C30 30 20 20
Note: The values listed above indicate that when connected with the indoor unit PEH-P500MYA as representative data.
*1: Value for one outdoor unit.
Cooling Heating
Electrial characterristics
Outdoor unit
*1
Indoor unit
Refrigerant circuit
Discharge pressure
Suction pressure
Discharge refrigerant temperature
Suction refrigerant temperature
Liquid pipe temperature (at piping sensor)
Compressor shell bottom temperature
Cooling Heating
Operating condition
Operating condition
Voltage
Power source frequency
Indoor air condition(DB/WB)
Outdoor air condition(DB/WB)
Piping length
Refrigerant charge
*1
Indoor air condition(DB/WB)
Refrigerant circuit
Discharge pressure
Suction pressure
Discharge refrigerant temperature
Suction refrigerant temperature
Liquid pipe temperature (at piping sensor)
Compressor shell bottom temperature
Outdoor air condition(DB/WB)
Operating condition
Outdoor unit
*1
Piping length
Refrigerant charge
*1
Operating conditionElectrial characterristics
Indoor unit
Voltage
Power source frequency
–14–
–15–
[2] Cooling Capacity Curves
• PUH-P200MYA/P250MYA
[3] Heating Capacity Curves
• PUH-P200MYA/P250MYA
-5 -3 -1 1 3 5 7 9 11 13 15171921232527293133353739414345
22
20
18
16
0.6
0.8
1
1.2
1.4
Capacity ratio
-5 -3 -1 1 3 5 7 9 11 13 15 17 19 21 23 25 27 29 31 33 35 37 39 41 43 45
22
20
18
16
0.7
0.9
1.1
1.22
Input ratio
-12 -10 -8 -6 -4 -2 0 2 4 6 8 10 12 14 16 18
15
20
25
0.6
0.8
1
1.2
1.4
Capacity ratio
-12 -10 -8 -6 -4 -2 0 2 4 6 8 10 12 14 16 18
25
20
15
0.6
0.8
1
1.2
1.4
Input ratio
Indoor inlet air wet
bulb temp. <˚CWB>
inlet air wet
bulb temp. <˚CWB>
Indoor
Indoor inlet air dry
bulb temp. <˚CDB>
Indoor inlet air dry
bulb
temp. <˚CDB>
Outdoor air
temperature
<˚CWB>
Outdoor air temperature
<˚CWB>
Outdoor air temperature
<˚CDB>
Outdoor air
temperature
<˚CDB>
–16–
[4] Capacity Reduction Ratio due to Changes in Piping Length
(1) Cooling capacity
(2) Heating capacity
(3) Calculation formula of equivalent piping length
PUH-P200MYA
PUH-P250MYA
Model name
Equivalent piping length
~
30m 30 ~ 50m 50 ~70m
1.0 0.995 0.99
PUH-P200MYA Equivalent piping length (m) = Actual piping length (m) + (0.47 × Number of bend)
PUH-P250MYA Equivalent piping length (m) = Actual piping length (m) + (0.5 × Number of bend)
6 1.0
4 0.98
2 0.88
0 0.85
-2 0.86
-4 0.89
-6 0.92
-8 0.92
-10 0.92
(4) Reduction ratio by frosting
Outdoor unit inlet wet bulb temperature
Heating capacity reduction ratio
(°CWB)
Capacity ratio
Equivalent piping length (m)
0 10 20 30 40 50 60 70
0.8
0.9
1
PUH-P200MYA
Capacity ratio
Equivalent piping length (m)
0 10 20 30 40 50 60 70
0.8
0.9
1
PUH-P250MYA
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