Mitsubishi Electronics OC376 User Manual

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SPLIT-TYPE, HEAT PUMP AIR CONDITIONERS

HFC

utilized

R410A

TECHNICAL & SERVICE MANUAL

January 2008

No. OC376

REVISED EDITION-B

[Model name]

[Service Ref.]

PUMY-P100VHM

PUMY-P125VHM

PUMY-P140VHM

PUMY-P100VHMA

PUMY-P125VHMA

PUMY-P140VHMA

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

CONTENTS

1. TECHNICAL CHANGES···································2

2. SAFETY PRECAUTION····································2

3. OVERVIEW OF UNITS······································5

4. SPECIFICATIONS·············································7

5. DATA ·································································8

6. OUTLINES AND DIMENSIONS······················18

7. WIRING DIAGRAM·········································20

NECESSARY CONDITIONS FOR SYSTEM CONSTRUCTION

9. TROUBLESHOOTING ····································32

10. ELECTRICAL WIRING····································75

11. REFRIGERANT PIPING TASKS ·····················78

12. DISASSEMBLY PROCEDURE ·······················82

13. PARTS LIST ····················································87

14. RoHS PARTS LIST ·········································90

Model name indication

OUTDOOR UNIT

NOTE :

· This service manual describes technical data of outdoor unit. As for indoor units, refer to its service manual.

· RoHS compliant products have <G> mark on the spec name plate.

· For servicing of RoHS compliant products, refer to the RoHS PARTS LIST.

15. OPTIONAL PARTS ·········································95

Revision:

· PUMY-P100/125/140VHMA are added in REVISED EDITION-B.

· Some descriptions have been modified.

· Please void OC376 REVISED EDITION-A

···22

Use new refrigerant pipes.

Make sure that the inside and outside of refrigerant piping are clean and it has no contamination such as sulfur hazardous for use, oxides, dirt, shredded particles, etc. In addition, use pipes with specified thickness.

Store the piping to be used during installation indoors and keep both ends of the piping sealed until just before brazing. (Leave elbow joints, etc. in their packaging.)

Use ester oil, ether oil or alkylbenzene oil (small amount) as the refrigerant oil applied to flares and flange connections.

Avoid using thin pipes.

Charge refrigerant from liquid phase of gas cylinder.

If the refrigerant is charged from gas phase, composition change may occur in refrigerant and the efficiency will be lowered.

Do not use refrigerant other than R410A.

If other refrigerant (R22 etc.) is used, chlorine in refrigerant can cause deterioration of refrigerant oil etc.

Use a vacuum pump with a reverse flow check valve.

Vacuum pump oil may flow back into refrigerant cycle and that can cause deterioration of refrigerant oil etc.

Use the following tools specifically designed for use with R410A refrigerant.

The following tools are necessary to use R410A refrigerant.

Keep the tools with care.

If dirt, dust or moisture enters into refrigerant cycle, that can cause deterioration of refrigerant oil or malfunction of compressor.

Do not use a charging cylinder.

If a charging cylinder is used, the composition of refrigerant will change and the efficiency will be lowered.

Flare tool

Electronic refrigerant charging scale

Vacuum pump adaptor

Size adjustment gauge

Gauge manifold

Torque wrench

Gas leak detector

Charge hose

Tools for R410A

Contamination inside refrigerant piping can cause deterioration of refrigerant oil etc.

If dirt, dust or moisture enters into refrigerant cycle, that can cause deterioration of refrigerant oil or malfunction of compressor.

If large amount of mineral oil enters, that can cause deterioration of refrigerant oil etc.

Ventilate the room if refrigerant leaks during operation. If refrigerant comes into contact with a flame, poisonous gases will be released.

1 TECHNICAL CHANGES

PUMY-P100VHM PUMY-P100VHMA PUMY-P125VHM PUMY-P125VHMA PUMY-P140VHM PUMY-P140VHMA

• Compressor(MC) and oil have been changed. ANB33FDCMT ANB33FDHMT Ester oil Ether oil

• Electrical parts below have been changed.

1Controller board (MULTI.B.) 2Noise filter circuit board (N.F.) 3Active filter module(ACTM) 4Relay(52C), Resister(RS)(Including N.F.)

• PEFY-P15 can be connected.

2 SAFETY PRECAUTION

CAUTIONS RELATED TO NEW REFRIGERANT

Cautions for units utilizing refrigerant R410A

[1] Cautions for service

(1) Perform service after recovering the refrigerant left in unit completely. (2) Do not release refrigerant in the air. (3) After completing service, charge the cycle with specified amount of refrigerant. (4) When performing service, install a filter drier simultaneously.

Be sure to use a filter drier for new refrigerant.

[2] Additional refrigerant charge

When charging directly from cylinder

· Check that cylinder for R410A on the market is syphon type.

· Charging should be performed with the cylinder of syphon stood vertically. (Refrigerant is charged from liquid phase.)

Unit

Gravimeter

[3] Service tools

Use the below service tools as exclusive tools for R410A refrigerant.

No. Tool name Specifications

1 Gauge manifold ·Only for R410A

·Use the existing fitting

·Use high-tension side pressure of 5.3MPa·G or over.

2 Charge hose ·Only for R410A

·Use pressure performance of 5.09MPa·G or over.

3 Electronic scale 4 Gas leak detector ·Use the detector for R134a, R407C or R410A. 5 Adaptor for reverse flow check ·Attach on vacuum pump. 6 Refrigerant charge base 7 Refrigerant cylinder ·Only for R410A ·Top of cylinder (Pink)

·Cylinder with syphon

8 Refrigerant recovery equipment

specifications

. (UNF1/2)

Cautions for refrigerant piping work

1/4 3/8 1/2 5/8 3/4

6.35

9.52

12.70

15.88

19.05

0.8

1.0

—

0.8

1.0

Nominal

dimensions(inch)

Diagram below: Piping diameter and thickness

Outside

diameter

(mm)

Thickness

(mm)

R410A R22

1/4 3/8 1/2 5/8 3/4

6.35

9.52

12.70

15.88

19.05

9.1

13.2

16.6

19.7

—

9.0

13.0

16.2

19.4

23.3

Nominal

dimensions(inch)

Flare cutting dimensions

Outside

diameter

Dimension A

( )

-0.4

(mm)

R410A R22

1/4 3/8 1/2 5/8 3/4

6.35

9.52

12.70

15.88

19.05

17.0

22.0

26.0

29.0

—

17.0

22.0

24.0

27.0

36.0

Nominal

dimensions(inch)

Flare nut dimensions

Outside

diameter

Dimension B

(mm)

R410A R22

Gauge manifold Charge hose Gas leak detector

Refrigerant recovery equipment Refrigerant cylinder Applied oil

Safety charger

Charge valve Vacuum pump

Flare tool

Bender Pipe cutter Welder and nitrogen gas cylinder Refrigerant charging scale

Vacuum gauge or thermistor vacuum gauge and vacuum valve Charging cylinder

Air purge, refrigerant charge and operation check Gas leak check Refrigerant recovery Refrigerant charge Apply to flared section

Prevent compressor malfunction when charging refrigerant by

spraying liquid refrigerant Prevent gas from blowing out

when detaching charge hose Vacuum drying and air purge

Flaring work of piping

Bend the pipes Cut the pipes Weld the pipes Refrigerant charge Check the degree of vacuum. (Vacuum

valve prevents back flow of oil and refrigerant to thermistor vacuum gauge) Refrigerant charge

Tool exclusive for R410A Tool exclusive for R410A Tool for HFC refrigerant Tool exclusive for R410A Tool exclusive for R410A Ester oil, ether oil and alkylbenzene oil (minimum amount) Tool exclusive for R410A

Tool exclusive for R410A Tools for other refrigerants can

be used if equipped with adopter for reverse flow check Tools for other refrigerants

can be used by adjusting flaring dimension

Tools for other refrigerants can be used Tools for other refrigerants can be used Tools for other refrigerants can be used Tools for other refrigerants can be used Tools for other refrigerants can be used

Tool exclusive for R410A

Tools and materials Use R410A tools Can R22 tools be used?

(Usable if equipped

with adopter for rever se flow)

(Usable by adjusting flaring dimension)

Can R407C tools be used?

Ester oil, ether oil: Alkylbenzene oil: minimum amount

(Usable if equipped

with adopter for rever se flow)

(Usable by adjusting

flaring dimension)

: Prepare a new tool. (Use the new tool as the tool exclusive for R410A.) : Tools for other refrigerants can be used under certain conditions. : Tools for other refrigerants can be used.

New refrigerant R410A is adopted for replacement inverter series. Although the refrigerant piping work for R410A is same as for R22, exclusive tools are necessary so as not to mix with different kind of refrigerant. Furthermore as the working pressure of R410A is 1.6 time higher than that of R22, their sizes of flared sections and flare nuts are different. 1Thickness of pipes

Because the working pressure of R410A is higher compared to R22, be sure to use refrigerant piping with thickness shown below. (Never use pipes of 0.7mm or below.)

2Dimensions of flare cutting and flare nut

The component molecules in HFC refrigerant are smaller compared to conventional refrigerants. In addition to that, R410A is a refrigerant, which has higher risk of leakage because its working pressure is higher than that of other refrigerants. Therefore, to enhance airtightness and intensity, flare cutting dimension of copper pipe for R410A have been specified separately from the dimensions for other refrigerants as shown below. The dimension B of flare nut for R410A also have partly been changed to increase intensity as shown below. Set copper pipe correctly referring to copper pipe flaring dimensions for R410A below. For 1/2 and 5/8 inch, the dimension B changes. Use torque wrench corresponding to each dimension.

Dimension A

3Tools for R410A (The following table shows whether conventional tools can be used or not.)

Dimension B

Branching pipe

components

Branch header

(2 branches)

Branch header

(4 branches)

Branch header

(8 branches)

CMY-Y62-G-E CMY-Y64-G-E CMY-Y68-G-E

Outdoor unit

Capacity

50% ~130% of outdoor unit capacity *2

Type 15(VHMA)/20(VHM) ~Type 140

1~ 8 unit

Indoor unit that can be connected

Number of units Total system wide capacity

5HP

PUMY-P125VHM

PUMY-P125VHMA

6HP

PUMY-P140VHM

PUMY-P140VHMA

Type 15(VHMA)/20(VHM) ~ Type 125

1~ 6 unit

4HP

PUMY-P100VHM

PUMY-P100VHMA

3 OVERVIEW OF UNITS

15 20 25 32 40 50 63 71

80 100 125 140

– 20VCM-E 25VCM-E

32VCM-E/32VBM-E 40VCM-E/40VBM-E

50VBM-E 63VBM-E

– 80VBM-E

100VBM-E 125VBM-E

–

– 20VLMD-E 25VLMD-E 32VLMD-E 40VLMD-E 50VLMD-E 63VLMD-E

– 80VLMD-E

100VLMD-E 125VLMD-E

–

15VMS/(L)-E 20VML-E / VMM-E 25VML-E / VMM-E 32VML-E / VMM-E 40VMH-E / VMM-E 50VMH-E / VMM-E 63VMH-E / VMM-E 71VMH-E / VMM-E 80VMH-E / VMM-E

100VMH-E / VMM-E 125VMH-E / VMM-E

140VMM-E

– 20VM-E 25VM-E 32VM-E 40VM-E 50VM-E 63VM-E 71VM-E 80VM-E

100VM-E 125VM-E

–

– 20VBM-E 25VBM-E 32VGM-E 40VGM-E 50VGM-E

–

– 20VLEM-E 25VLEM-E 32VLEM-E 40VLEM-E 50VLEM-E 63VLEM-E

–

– 20VLRM-E 25VLRM-E 32VLRM-E 40VLRM-E 50VLRM-E 63VLRM-E

–

– – – –

40VGM-E

–

63VGM-E

–

– 100VGM-E 125VGM-E

–

PLFY-P PLFY-P PEFY-P PDFY-P PKFY-P PCFY-P PFFY-P PFFY-P

– – – – – – – –

80VMH-E-F

– –

140VMH-E-F

PEFY-P

Capacity

Model

Cassette Ceiling

4-way flow 2-way flow

– 20VBM-E 25VBM-E 32VBM-E 40VBM-E

–

PMFY-P

1-way flow

Ceiling

Concealed

Ceiling

mounted

built-in

Ceiling

Suspended

Ceiling

Concealed

(Fresh Air)

Wall

Mounted

Floor standing

Exposed Concealed

Remote

controller

Name

Model number

Functions

M-NET remote controller

PAR-F27MEA-E

• A handy remote controller for use in conjunction with the Melans centralized management system.

• Addresses must be set.

• Addresses setting is not necessary.

MA remote controller

PAR-21MAA

3-1. UNIT CONSTRUCTION

Decorative panel

*1. It is possible only by 1:1 system.

*2. When the indoor unit of Fresh Air type is connected with the outdoor unit, the maximum connectable total indoor unit

(1 indoor unit of Fresh Air type is connected with 1 outdoor unit.) Operating temperature range (outdoor temperature) for fresh air type indoor units differ from other indoor units. Refer to 3-2(3).

capacity is 110%(100% in case of heating below -5

:(23˚F)).

3-2. UNIT SPECIFICATIONS

P L F Y - P 80 V BM - E PU M Y - P 125 V H M A

PAC type

AM BM KM M KM LMD

Frequency conversion controller

Refrigerant R407C/R22 R410A commonness

Refrigerant R410A

NEW frequency converter one-to-many air conditioners (flexible design type)

Indicates equivalent to Cooling capacity (k cal / h)

Power supply V: Single phase 220-230-240V 50Hz 220V 60Hz

Power supply V: 1-phase

220-230-240V : 50Hz 220V : 60Hz

L : Ceiling cassette K : Wall-mounted type E : Hidden skylight type C: Ceiling suspended type M: Ceiling cassette type F : Floor standing type

}

M-NET control

Outdoor unit model type

Sub-number Sub-number

M-NET control

Frequency conversion controller

Outdoor unit

MULTI-S

Service Ref.

Capacity

Cooling (kW) Heating (kW)

PUMY-P140VHM PUMY-P140VHMA

15.5

18.0

3.3

PUMY-P125VHM PUMY-P125VHMA

14.0

16.0

2.9

PUMY-P100VHM PUMY-P100VHMA

11.2

12.5

2.2Motor for compressor (kW)

Cooling W.B. 15~24°C D.B. -5~46°C

Heating D.B. 15~27°C W.B. -15~15°C

Indoor-side intake air temperature Outdoor-side intake air temperature

■ In case of connecting fresh air type indoor unit

air type indoor

Capacity of Fresh

Cooling

Heating

Indoor-side and Outdoor-side

P80

D.B.21~43: w2 W.B.15.5~35:

D.B.-10~20:

intake air temperature

P140

D.B.21~43:

W.B.15.5~35:

D.B.-5~20: w3

2.Thermo-off(FAN-mode) automatically starts if the outdoor temp. is lower than 21:D.B..

3.Thermo-off(FAN-mode) automatically starts if the outdoor temp. is higher than 20:D.B..

(1) Outdoor Unit

Cooling / Heating capacity indicates the maximum value at operation under the following condition.

w. Cooling Indoor : D.B. 27°C / W.B. 19.0°C

Outdoor : D.B. 35°C

Heating Indoor : D.B. 20°C

Outdoor : D.B. 7°C / W.B. 6°C

(2) Method for identifying MULTI-S model

■ Indoor unit < When using Model 80 >

■ Outdoor unit <When using model 125 >

(3) Operating temperature range

Notes D.B. : Dry Bulb Temperature

W.B. : Wet Bulb Temperature

w1. 10~46°C DB : In case of connecting PKFY-P20/P25 type indoor unit.

4 SPECIFICATIONS

PUMY-P100VHM

PUMY-P100VHMA

Cooling Capacity kW 14.0 Heating Capacity kW 16.0 Input (Cool) kW 4.32 Input Current (Cool) A Power factor (Cool) Input (Heat) kW 4.33 Input Current (Heat) A

Power factor (Heat)

EER (Cool) 3.24 COP (Heat) 3.69 Connectable indoor units (Max.) 8 Max. Connectable Capacity kW 18.2 (130%) Power Supply Breaker Size 32A Sound level (Cool/Heat) dB 50 / 52 External finish Munsell 3Y 7.8/1.1 Refrigerant control Linear Expansion Valve Compressor Hermetic

*3 *3 *3 *3 *3 *3 *3 *3

Model

Motor output kW 2.9

Starting method Inverter Crankcase heater W — Heat exchanger Plate fin coil (Anti corrosion fin treatment)

Fan Fan (drive) o No. Propeller fan o 2

Fan motor output kW 0.060 + 0.060

Airflow m

Dimensions (HxWxD) W mm(in.) 950(37-3/8)

D mm(in.) 330+30(13+1-3/16)

H mm(in.) 1,350(53-1/8) Weight kg(lbs) 127(280) Refrigerant R410A

Charge kg(lbs) 8.5 (18.7)

Oil (Model) 2.3 (VHM:MEL56, VHMA:FV50S) Protection High pressure protection HP switch devices Compressor protection Discharge thermo, Over current detection

Fan motor protection Overheating/Voltage protection

Total Piping length (Max.) m Farthest m 80 Max. Height difference m 30 Chargeless length m 50

Piping diameter

Guaranteed operation range

Gas [mm(in) 15.88 (5/8)

Liquid [mm(in) 9.52 (3/8)

/min(CFM) 100 (3,530)

(cool) -5~ 46: DB

(heat) -15~ 15: WB

11.2

12.5

3.34

15.4/14.8/14.1, 15.4

98.4

3.66

16.9/16.2/15.5,16.9

98.4

3.35

3.42 6

14.5 (130%) Single phase , 50Hz 220/230/240V, 60Hz 220V

49 / 51

VHM:ANB33FDCMT, VHMA:ANB33FDHMT

2.2

PUMY-P125VHM

PUMY-P125VHMA

20.0/19.1/18.3, 20.0

98.4

20.0/19.1/18.3, 20.0

98.5

120

PUMY-P140VHM

PUMY-P140VHMA

15.5

18.0

5.35

24.7/23.6/22.7,24.7

98.4

5.58

25.8/24.7/23.6,25.8

98.4

2.90

3.23

20.2 (130%)

51 / 53

3.3

Rating conditions (JIS B 8616)

Cooling Indoor : D.B. 27: / W.B. 19:

Outdoor : D.B. 35: / W.B. 20:

Heating Indoor : D.B. 20:

Outdoor : D.B. 7: / W.B. 6:

Note. *1. 20m :In case of installing outdoor unit lower than indoor

unit.

*2. 10~46:DB :In case of connecting PKFY-P20/P25 type indoor

unit.

*3. Electrical data is for only outdoor unit.

5 DATA

Model 20

Model Number for indoor unit

Model Capacity

Model 15

Model 2528Model 3236Model 4045Model 5056Model 6371Model 7180Model 8090Model 100

112

Model 125

140

Model 140

160

5-1. COOLING AND HEATING CAPACITY AND CHARACTERISTICS

5-1-1. Method for obtaining system cooling and heating capacity:

To obtain the system cooling and heating capacity and the electrical characteristics of the outdoor unit, first add up the ratings of all the indoor units connected to the outdoor unit (see table below), and then use this total to find the standard capacity with the help of the tables on 5-2.STANDARD CAPACITY DIAGRAM.

(1) Capacity of indoor unit

(2) Sample calculation

1System assembled from indoor and outdoor unit (in this example the total capacity of the indoor units is greater than that of

the outdoor unit)

• Outdoor unit PUMY-P125VHM

• Indoor unit PKFY-P25VAM-E o 2 , PLFY-P50VLMD-E o 2

2According to the conditions in 1, the total capacity of the indoor unit will be: 28 o 2 + 56 o 2 = 168 3The following figures are obtained from the 168 total capacity row of 5-2. STANDARD CAPACITY DIAGRAM :

Capacity (kW)

Cooling

A 14.60

Heating

B 16.33

Outdoor unit power consumption (kW)

Cooling

4.39

Heating

3.99

Outdoor unit current (A)/230V

Cooling

19.4

Heating

17.6

5-1-2. Method for obtaining the heating and cooling capacity of an indoor unit:

(1) The capacity of each indoor unit (kW) = the capacity A (or B)

(2) Sample calculation (using the system described above in 5-1-1. (2) ):

During cooling: During heating:

• The total model capacity of the indoor unit is:

2.8 o 2 + 5.6 o 2=16.8kW Therefore, the capacity of PKFY-P25VAM-E and PLFY-P50VLMD-E will be calculated as follows by using the formula in 5-1-2. (1):

Model 25=14.6 o = 2.43kW

Model 50=14.6 o = 4.87kW

2.8

16.8

5.6

16.8

total model capacity of all indoor units

• The total model capacity of indoor unit is:

3.2 o 2 + 6.3 o 2=19.0 Therefore, the capacity of PKFY-P25VAM-E and PLFYP50VLMD-E will be calculated as follows by using the formula in 5-1-2. (1):

Model 25=16.33 o = 2.75kW

Model 50=16.33 o = 5.41kW

model capacity

3.2

19.0

6.3

19.0

5-2. STANDARD CAPACITY DIAGRAM

Total capacity of

Capacity(kW

)

Power Consumption(kW)Current(A)/220V Current(A)/230V Current(A)/240V

indoor units*

Cooling Heating Cooling Heating Cooling Heating Cooling Heating Cooling Heating

56 5.60 6.30 1.37 1.79 6.3 8.3 6.1 7.9 5.8 7.6 57 5.70 6.41 1.39 1.82 6.4 8.4 6.2 8.1 5.9 7.7 58 5.80 6.53 1.42 1.85 6.6 8.6 6.3 8.2 6.0 7.8 59 5.90 6.64 1.44 1.88 6.7 8.7 6.4 8.3 6.1 8.0 60 6.00 6.75 1.46 1.91 6.8 8.8 6.5 8.4 6.2 8.1 61 6.10 6.87 1.49 1.94 6.9 9.0 6.6 8.6 6.3 8.2 62 6.20 6.98 1.51 1.97 7.0 9.1 6.7 8.7 6.4 8.4 63 6.30 7.09 1.54 2.00 7.1 9.2 6.8 8.8 6.5 8.5 64 6.40 7.20 1.56 2.03 7.2 9.4 6.9 9.0 6.6 8.6 65 6.50 7.32 1.59 2.06 7.4 9.5 7.0 9.1 6.7 8.7 66 6.60 7.43 1.62 2.09 7.5 9.7 7.2 9.2 6.9 8.9 67 6.70 7.54 1.64 2.12 7.6 9.8 7.3 9.4 7.0 9.0 68 6.80 7.66 1.67 2.15 7.7 9.9 7.4 9.5 7.1 9.1 69 6.90 7.77 1.70 2.18 7.9 10.1 7.5 9.6 7.2 9.2 70 7.00 7.88 1.73 2.22 8.0 10.3 7.7 9.8 7.3 9.4 71 7.10 8.00 1.76 2.25 8.1 10.4 7.8 10.0 7.5 9.5 72 7.20 8.11 1.79 2.28 8.3 10.5 7.9 10.1 7.6 9.7 73 7.30 8.22 1.82 2.31 8.4 10.7 8.1 10.2 7.7 9.8 74 7.40 8.33 1.85 2.34 8.6 10.8 8.2 10.3 7.8 9.9 75 7.50 8.44 1.88 2.37 8.7 11.0 8.3 10.5 8.0 10.0 76 7.60 8.56 1.91 2.41 8.8 11.1 8.4 10.7 8.1 10.2 77 7.70 8.67 1.94 2.44 9.0 11.3 8.6 10.8 8.2 10.3 78 7.80 8.78 1.97 2.47 9.1 11.4 8.7 10.9 8.4 10.5 79 7.90 8.89 2.00 2.50 9.2 11.6 8.8 11.1 8.5 10.6 80 8.00 9.00 2.04 2.54 9.4 11.7 9.0 11.2 8.6 10.8 81 8.10 9.10 2.07 2.57 9.6 11.9 9.2 11.4 8.8 10.9 82 8.20 9.20 2.10 2.60 9.7 12.0 9.3 11.5 8.9 11.0 83 8.30 9.30 2.14 2.64 9.9 12.2 9.5 11.7 9.1 11.2 84 8.40 9.40 2.17 2.67 10.0 12.3 9.6 11.8 9.2 11.3 85 8.50 9.50 2.21 2.70 10.2 12.5 9.8 11.9 9.4 11.4 86 8.60 9.60 2.24 2.74 10.4 12.7 9.9 12.1 9.5 11.6 87 8.70 9.70 2.28 2.77 10.5 12.8 10.1 12.2 9.7 11.7 88 8.80 9.80 2.32 2.80 10.7 12.9 10.3 12.4 9.8 11.9 89 8.90 9.90 2.35 2.84 10.9 13.1 10.4 12.6 10.0 12.0 90 9.00 10.00 2.39 2.87 11.1 13.3 10.6 12.7 10.1 12.2 91 9.10 10.10 2.43 2.91 11.2 13.5 10.7 12.9 10.3 12.3 92 9.20 10.22 2.47 2.94 11.4 13.6 10.9 13.0 10.5 12.5 93 9.30 10.33 2.50 2.97 11.6 13.7 11.1 13.1 10.6 12.6 94 9.40 10.45 2.54 3.01 11.7 13.9 11.2 13.3 10.8 12.8 95 9.50 10.56 2.58 3.04 11.9 14.1 11.4 13.4 10.9 12.9 96 9.60 10.67 2.62 3.08 12.1 14.2 11.6 13.6 11.1 13.1 97 9.70 10.79 2.66 3.11 12.3 14.4 11.8 13.8 11.3 13.2 98 9.80 10.90 2.70 3.15 12.5 14.6 11.9 13.9 11.4 13.3

99 9.90 11.02 2.75 3.19 12.7 14.7 12.2 14.1 11.7 13.5 100 10.00 11.13 2.79 3.22 12.9 14.9 12.3 14.2 11.8 13.6 101 10.10 11.24 2.83 3.26 13.1 15.1 12.5 14.4 12.0 13.8 102 10.20 11.36 2.87 3.29 13.3 15.2 12.7 14.5 12.2 13.9 103 10.30 11.47 2.91 3.33 13.5 15.4 12.9 14.7 12.3 14.1 104 10.40 11.59 2.96 3.36 13.7 15.5 13.1 14.9 12.5 14.2 105 10.50 11.70 3.00 3.40 13.9 15.7 13.3 15.0 12.7 14.4 106 10.60 11.81 3.05 3.44 14.1 15.9 13.5 15.2 12.9 14.6 107 10.70 11.93 3.09 3.47 14.3 16.0 13.7 15.3 13.1 14.7 108 10.80 12.04 3.14 3.51 14.5 16.2 13.9 15.5 13.3 14.9 109 10.90 12.16 3.18 3.55 14.7 16.4 14.1 15.7 13.5 15.0 110 11.00 12.27 3.23 3.59 14.9 16.6 14.3 15.9 13.7 15.2

5-2-1. PUMY-P100VHM PUMY-P100VHMA

*Before calculating the sum of total capacity of indoor units, please convert the value into the kW model capacity following the formula on 5-1-1.

)

Total capacity of indoor units*

111 11.10 12.38 3.27 3.62 15.1 16.7 14.5 16.0 13.9 15.3 112 11.20 12.50 3.34 3.66 15.4 16.9 14.8 16.2 14.1 15.5 113 11.22 12.51 3.35 3.65 15.5 16.9 14.8 16.1 14.2 15.5 114 11.24 12.53 3.35 3.64 15.5 16.8 14.8 16.1 14.2 15.4 115 11.26 12.54 3.36 3.63 15.5 16.8 14.9 16.0 14.2 15.4 116 11.28 12.55 3.36 3.62 15.5 16.7 14.9 16.0 14.2 15.3 117 11.30 12.56 3.36 3.61 15.5 16.7 14.9 16.0 14.2 15.3 118 11.32 12.57 3.37 3.59 15.6 16.6 14.9 15.9 14.3 15.2 119 11.34 12.58 3.37 3.58 15.6 16.5 14.9 15.8 14.3 15.2 120 11.36 12.60 3.38 3.57 15.6 16.5 14.9 15.8 14.3 15.1 121 11.38 12.61 3.38 3.56 15.6 16.5 14.9 15.7 14.3 15.1 122 11.40 12.62 3.38 3.55 15.6 16.4 14.9 15.7 14.3 15.0 123 11.42 12.63 3.39 3.54 15.7 16.4 15.0 15.7 14.4 15.0 124 11.44 12.64 3.39 3.52 15.7 16.3 15.0 15.6 14.4 14.9 125 11.47 12.66 3.40 3.51 15.7 16.2 15.0 15.5 14.4 14.9 126 11.49 12.67 3.40 3.50 15.7 16.2 15.0 15.5 14.4 14.8 127 11.51 12.68 3.40 3.49 15.7 16.1 15.0 15.4 14.4 14.8 128 11.53 12.69 3.41 3.48 15.8 16.1 15.1 15.4 14.4 14.7 129 11.55 12.70 3.41 3.47 15.8 16.0 15.1 15.3 14.4 14.7 130 11.57 12.71 3.42 3.45 15.8 15.9 15.1 15.3 14.5 14.6 131 11.59 12.73 3.42 3.44 15.8 15.9 15.1 15.2 14.5 14.6 132 11.61 12.74 3.42 3.43 15.8 15.9 15.1 15.2 14.5 14.5 133 11.63 12.75 3.43 3.42 15.9 15.8 15.2 15.1 14.5 14.5 134 11.65 12.76 3.43 3.41 15.9 15.8 15.2 15.1 14.5 14.4 135 11.67 12.77 3.44 3.40 15.9 15.7 15.2 15.0 14.6 14.4 136 11.69 12.78 3.44 3.38 15.9 15.6 15.2 14.9 14.6 14.3 137 11.71 12.80 3.45 3.37 15.9 15.6 15.3 14.9 14.6 14.3 138 11.73 12.81 3.45 3.36 15.9 15.5 15.3 14.9 14.6 14.2 139 11.75 12.82 3.45 3.35 15.9 15.5 15.3 14.8 14.6 14.2 140 11.77 12.83 3.46 3.34 16.0 15.4 15.3 14.8 14.7 14.2 141 11.79 12.84 3.46 3.32 16.0 15.3 15.3 14.7 14.7 14.1 142 11.82 12.86 3.47 3.31 16.0 15.3 15.3 14.6 14.7 14.0 143 11.84 12.87 3.47 3.30 16.0 15.3 15.3 14.6 14.7 14.0 144 11.86 12.88 3.47 3.29 16.0 15.2 15.3 14.5 14.7 13.9 145 11.88 12.89 3.48 3.28 16.1 15.2 15.4 14.5 14.7 13.9

Capacity(kW

Cooling Heating Cooling Heating Cooling Heating Cooling Heating Cooling Heating

Power Consumption(kW)Current(A)/220V Current(A)/230V Current(A)/240V

5-2-2. PUMY-P125VHM PUMY-P125VHMA

*Before calculating the sum of total capacity of indoor units, please convert the value into the kW model capacity following the formula on 5-1-1.

Total capacity of

indoor units*

70 7.00 7.88 71 7.10 8.00 72 7.20 8.11 73 7.30 8.22 74 7.40 8.33 75 7.50 8.44 76 7.60 8.56 77 7.70 8.67 78 7.80 8.78 79 7.90 8.89 80 8.00 9.00 81 8.10 9.10 82 8.20 9.20 83 8.30 9.30 84 8.40 9.40 85 8.50 9.50 86 8.60 9.60 87 8.70 9.70 88 8.80 9.80 89 8.90 9.90 90 9.00 10.00 91 9.10 10.10 92 9.20 10.22 93 9.30 10.33 94 9.40 10.45 95 9.50 10.56 96 9.60 10.67 97 9.70 10.79 98 9.80 10.90

99 9.90 11.02 100 10.00 11.13 101 10.10 11.24 102 10.20 11.36 103 10.30 11.47 104 10.40 11.59 105 10.50 11.70 106 10.60 11.81 107 10.70 11.93 108 10.80 12.04 109 10.90 12.16 110 11.00 12.27 111 11.10 12.38 112 11.20 12.50 113 11.30 12.63 114 11.40 12.75 115 11.50 12.88 116 11.60 13.00 117 11.70 13.13 118 11.80 13.25 119 11.90 13.38 120 12.00 13.50 121 12.10 13.63 122 12.20 13.75 123 12.30 13.88 124 12.40 14.00 125 12.50 14.13 126 12.60 14.25 127 12.70 14.38 128 12.80 14.50 129 12.90 14.63 130 13.00 14.75

Capacity(kW)

Cooling Heating Cooling Heating Cooling Heating Cooling Heating Cooling Heating

Power Consumption(kW)

1.83

1.85

1.88

1.90

1.93

1.96

1.98

2.01

2.04

2.07

2.09

2.12

2.15

2.18

2.21

2.24

2.27

2.30

2.33

2.36

2.39

2.42

2.45

2.49

2.52

2.55

2.58

2.62

2.65

2.68

2.72

2.75

2.79

2.82

2.86

2.89

2.93

2.96

3.00

3.04

3.07

3.11

3.15

3.19

3.22

3.26

3.30

3.34

3.38

3.42

3.46

3.50

3.54

3.58

3.62

3.66

3.71

3.75

3.79

3.83

2.05

2.08

2.11

2.13

2.16

2.19

2.21

2.24

2.27

2.29

2.32

2.35

2.38

2.41

2.44

2.46

2.49

2.52

2.55

2.58

2.61

2.64

2.67

2.70

2.73

2.76

2.79

2.82

2.85

2.89

2.92

2.95

2.98

3.01

3.05

3.08

3.11

3.14

3.18

3.21

3.24

3.28

3.31

3.34

3.38

3.41

3.45

3.48

3.52

3.55

3.59

3.62

3.66 16.4

3.69 16.5

3.73 16.7

3.76 16.9

3.80 17.1

3.84 17.3

3.87 17.5

3.91 17.7

3.88 3.95 17.9

Current(A)/ 220V Current(A)/ 230V Current(A)/ 240V

8.4

8.6

8.7

8.8

8.9

9.0

9.2

9.3

9.4

9.5

9.7

9.8

9.9

10.1

10.2

10.3

10.5

10.6

10.8

10.9

11.0

11.2

11.3

11.5

11.6

11.8

11.9

12.1

12.2

12.4

12.6

12.7

12.9

13.0

13.2

13.4

13.5

13.7

13.9

14.0

14.2

14.4

14.5

14.7

14.9

15.1

15.3

15.4

15.6

15.8

16.0

16.2

9.5

9.6

9.7

9.8

10.0

10.1

10.2

10.3

10.5

10.6

10.7

10.8

11.0

11.1

11.2

11.4

11.5

11.6

11.8

11.9

12.0

12.2

12.3

12.5

12.6

12.7

12.9

13.0

13.2

13.3

13.5

13.6

13.8

13.9

14.1

14.2

14.4

14.5

14.7

14.8

15.0

15.1

15.3

15.4

15.6

15.7

15.9

16.1

16.2

16.4

16.5

16.7

16.9

17.0

17.2

17.4

17.5

17.7

17.9

8.1

8.2

8.3

8.4

8.5

8.6

8.8

8.9

9.0

9.1

9.3

9.4

9.5

9.6

9.8

9.9

10.0

10.2

10.3

10.4

10.6

10.7

10.8

11.0

11.1

11.3

11.4

11.6

11.7

11.9

12.0

12.2

12.3

12.5

12.6

12.8

12.9

13.1

13.3

13.4

13.6

13.7

13.9

14.1

14.2

14.4

14.6

14.8

14.9

15.1

15.3

15.5

15.6

15.8

16.0

16.2

16.4

16.6

16.7

18.0 16.9

9.1

9.2

9.3

9.4

9.5

9.6

9.8

9.9

10.0

10.1

10.3

10.4

10.5

10.6

10.8

10.9

11.0

11.1

11.3

11.4

11.5

11.7

11.8

11.9

12.1

12.2

12.3

12.5

12.6

12.7

12.9

13.0

13.2

13.3

13.4

13.6

13.7

13.9

14.0

14.2

14.3

14.5

14.6

14.8

14.9

15.1

15.2

15.4

15.5

15.7

15.8

16.0

16.1

16.3

16.5

16.6

16.8

16.9

17.1

17.3

7.7

7.8

8.0

8.1

8.2

8.3

8.4

8.5

8.6

8.7

8.9

9.0

9.1

9.2

9.4

9.5

9.6

9.7

9.9

10.0

10.1

10.3

10.4

10.5

10.7

10.8

10.9

11.1

11.2

11.4

11.5

11.7

11.8

11.9

12.1

12.2

12.4

12.6

12.7

12.9

13.0

13.2

13.3

13.5

13.7

13.8

14.0

14.1

14.3

14.5

14.7

14.8

15.0

15.2

15.3

15.5

15.7

15.9

16.0

16.2 16.5

18.2 17.1 17.4 16.4 16.7

8.7

8.8

8.9

9.0

9.1

9.2

9.4

9.5

9.6

9.7

9.8

9.9

10.1

10.2

10.3

10.4

10.5

10.7

10.8

10.9

11.0

11.2

11.3

11.4

11.6

11.7

11.8

11.9

12.1

12.2

12.3

12.5

12.6

12.7

12.9

13.0

13.2

13.3

13.4

13.6

13.7

13.9

14.0

14.1

14.3

14.4

14.6

14.7

14.9

15.0

15.2

15.3

15.5

15.6

15.8

15.9

16.1

16.2

16.4

Total capacity of

indoor units*

131 13.10 14.88 132 13.20 15.00 133 13.30 15.13 134 13.40 15.25 135 13.50 15.38 136 13.60 15.50 137 13.70 15.63 138 13.80 15.75 139 13.90 15.88 140 14.00 16.00 141 14.02 16.01 142 14.04 16.02 143 14.06 16.03 144 14.08 16.04 145 14.10 16.06 146 14.12 16.07 147 14.15 16.08 148 14.17 16.09 149 14.19 16.10 150 14.21 16.12 151 14.23 16.13 152 14.25 16.14 153 14.27 16.15 154 14.30 16.16 155 14.32 16.17 156 14.34 16.19 157 14.36 16.20 158 14.38 16.21 159 14.40 16.22 160 14.42 16.23 161 14.45 16.25 162 14.47 16.26 163 14.49 16.27 164 14.51 16.28 165 14.53 16.29 166 14.55 16.31 167 14.57 16.32 168 14.60 16.33 169 14.62 16.34 170 14.64 16.35 171 14.66 16.36 172 14.68 16.38 173 14.70 16.39 174 14.72 16.40 175 14.75 16.41 176 14.77 16.42 177 14.79 16.44 178 14.81 16.45 179 14.83 16.46 180 14.85 16.47 181 14.87 16.48 182 14.89 16.50

Capacity(kW)

Cooling Heating Cooling Heating Cooling Heating Cooling Heating Cooling Heating

Power Consumption(kW)

3.92 3.98 18.1 18.4 17.3

3.96 4.02 18.3 18.6 17.5

4.01 4.06 18.5 18.7 17.7

4.05 4.10 18.7 18.9 17.9

4.09 4.14 18.9 19.1 18.1

4.14 4.17 19.1 19.3 18.3

4.18 4.21 19.3 19.4 18.5

4.23 4.25 19.5 19.6 18.7

4.27 4.29 19.7 19.8 18.9

4.32 4.33 20.0 20.0 19.1

4.33 4.32 20.0 19.9 19.1

4.33 4.31 20.0 19.9 19.1

4.33 4.30 20.0 19.8 19.1

4.33 4.28 20.0 19.8 19.1

4.33 4.27 20.0 19.7 19.2

4.34 4.26 20.0 19.7 19.2

4.34 4.25 20.0 19.6 19.2

4.34 4.23 20.1 19.5 19.2

4.34 4.22 20.1 19.5 19.2

4.35 4.21 20.1 19.4 19.2

4.35 4.20 20.1 19.4 19.2

4.35 4.19 20.1 19.3 19.2

4.35 4.17 20.1 19.3 19.2

4.35 4.16 20.1 19.2 19.2

4.36 4.15 20.1 19.1 19.3

4.36 4.14 20.1 19.1 19.3

4.36 4.12 20.1 19.0 19.3

4.36 4.11 20.2 19.0 19.3

4.37 4.10 20.2 18.9 19.3

4.37 4.09 20.2 18.9 19.3

4.37 4.08 20.2 18.8 19.3

4.37 4.06 20.2 18.8 19.3

4.37 4.05 20.2 18.7 19.3

4.38 4.04 20.2 18.6 19.3

4.38 4.03 20.2 18.6 19.3

4.38 4.01 20.2 18.5 19.4

4.38 4.00 20.2 18.5 19.4

4.39 3.99 20.3 18.4 19.4

4.39 3.98 20.3 18.4 19.4

4.39 3.97 20.3 18.3 19.4

4.39 3.95 20.3 18.2 19.4

4.39 3.94 20.3 18.2 19.4

4.40 3.93 20.3 18.1 19.4

4.40 3.92 20.3 18.1 19.4

4.40 3.91 20.3 18.0 19.4

4.40 3.89 20.3 18.0 19.5

4.41 3.88 20.4 17.9 19.5

4.41 3.87 20.4 17.9 19.5

4.41 3.86 20.4 17.8 19.5

4.41 3.84 20.4 17.7 19.5

Current(A)/ 220V Current(A)/ 230V Current(A)/ 240V

17.6 16.6 16.9

17.8 16.8 17.0

17.9 17.0 17.2

18.1 17.1 17.3

18.3 17.3 17.5

18.4 17.5 17.7

18.6 17.7 17.8

18.8 17.9 18.0

18.9 18.1 18.1

19.1 18.3 18.3

19.0 18.3 18.2

18.9 18.3 18.1

18.9 18.4 18.1

18.8 18.4 18.0

18.7 18.4 18.0

18.7 18.4 17.9

18.6 18.4 17.9

18.6 18.4 17.8

18.5 18.4 17.8

18.5 18.4 17.7

18.4 18.4 17.7

18.4 18.4 17.6

18.3 18.4 17.5

18.3 18.5 17.5

18.2 18.5 17.4

18.1 18.5 17.3

18.0 18.5 17.3

18.0 18.5 17.2

17.9 18.5 17.2

17.9 18.5 17.1

17.8 18.5 17.1

17.8 18.5 17.0

17.7 18.6 17.0

17.7 18.6 16.9

17.6 18.6 16.9

17.6 18.6 16.8

17.5 18.6 16.8

17.5 18.6 16.7

17.4 18.6 16.7

17.3 18.6 16.6

17.2 18.6 16.5

17.1 18.7 16.4

17.0 18.7 16.3

4.42 3.83 20.4 17.7 19.5 16.9 18.7 16.2

4.42 3.82 20.4 17.6 19.5 16.9 18.7 16.2

5-2-3. PUMY-P140VHM PUMY-P140VHMA

Total capacity of

Capacity(kW

)

Power Consumption(kW)Current(A)/220V Current(A)/230V Current(A)/240V

indoor units*

Cooling Heating Cooling Heating Cooling Heating Cooling Heating Cooling Heating

80 8.00 9.00 2.35 2.86 10.9 13.2 10.4 12.6 10.0 12.1 81 8.10 9.10 2.38 2.90 11.0 13.4 10.5 12.8 10.1 12.3 82 8.20 9.20 2.41 2.93 11.1 13.5 10.7 13.0 10.2 12.4 83 8.30 9.30 2.44 2.96 11.3 13.7 10.8 13.1 10.3 12.5 84 8.40 9.40 2.48 2.99 11.5 13.8 11.0 13.2 10.5 12.7 85 8.50 9.50 2.51 3.03 11.6 14.0 11.1 13.4 10.6 12.8 86 8.60 9.60 2.54 3.06 11.7 14.1 11.2 13.5 10.8 13.0 87 8.70 9.70 2.57 3.09 11.9 14.3 11.4 13.7 10.9 13.1 88 8.80 9.80 2.61 3.13 12.1 14.5 11.5 13.8 11.1 13.3 89 8.90 9.90 2.64 3.16 12.2 14.6 11.7 14.0 11.2 13.4 90 9.00 10.00 2.67 3.19 12.3 14.7 11.8 14.1 11.3 13.5 91 9.10 10.11 2.71 3.23 12.5 14.9 12.0 14.3 11.5 13.7 92 9.20 10.23 2.74 3.26 12.7 15.1 12.1 14.4 11.6 13.8 93 9.30 10.34 2.77 3.29 12.8 15.2 12.2 14.5 11.7 13.9 94 9.40 10.46 2.81 3.33 13.0 15.4 12.4 14.7 11.9 14.1 95 9.50 10.57 2.84 3.36 13.1 15.5 12.6 14.9 12.0 14.2 96 9.60 10.68 2.88 3.40 13.3 15.7 12.7 15.0 12.2 14.4 97 9.70 10.80 2.91 3.43 13.5 15.9 12.9 15.2 12.3 14.5 98 9.80 10.91 2.95 3.46 13.6 16.0 13.0 15.3 12.5 14.7

99 9.90 11.03 2.98 3.50 13.8 16.2 13.2 15.5 12.6 14.8 100 10.00 11.14 3.02 3.53 14.0 16.3 13.4 15.6 12.8 15.0 101 10.10 11.25 3.05 3.57 14.1 16.5 13.5 15.8 12.9 15.1 102 10.20 11.37 3.09 3.60 14.3 16.6 13.7 15.9 13.1 15.3 103 10.30 11.48 3.13 3.64 14.5 16.8 13.8 16.1 13.3 15.4 104 10.40 11.60 3.16 3.67 14.6 17.0 14.0 16.2 13.4 15.6 105 10.50 11.71 3.20 3.71 14.8 17.1 14.1 16.4 13.6 15.7 106 10.60 11.82 3.24 3.74 15.0 17.3 14.3 16.5 13.7 15.8 107 10.70 11.94 3.27 3.78 15.1 17.5 14.5 16.7 13.9 16.0 108 10.80 12.05 3.31 3.81 15.3 17.6 14.6 16.8 14.0 16.1 109 10.90 12.17 3.35 3.85 15.5 17.8 14.8 17.0 14.2 16.3 110 11.00 12.28 3.39 3.88 15.7 17.9 15.0 17.2 14.4 16.4 111 11.10 12.39 3.43 3.92 15.9 18.1 15.2 17.3 14.5 16.6 112 11.20 12.51 3.46 3.95 16.0 18.3 15.3 17.5 14.7 16.7 113 11.30 12.63 3.50 3.99 16.2 18.4 15.5 17.6 14.8 16.9 114 11.40 12.75 3.54 4.03 16.4 18.6 15.7 17.8 15.0 17.1 115 11.50 12.88 3.58 4.06 16.5 18.8 15.8 17.9 15.2 17.2 116 11.60 13.00 3.62 4.10 16.7 18.9 16.0 18.1 15.3 17.4 117 11.70 13.13 3.66 4.13 16.9 19.1 16.2 18.3 15.5 17.5 118 11.80 13.25 3.70 4.17 17.1 19.3 16.4 18.4 15.7 17.7 119 11.90 13.38 3.74 4.21 17.3 19.5 16.5 18.6 15.8 17.8 120 12.00 13.50 3.78 4.24 17.5 19.6 16.7 18.7 16.0 18.0 121 12.10 13.63 3.82 4.28 17.7 19.8 16.9 18.9 16.2 18.1 122 12.20 13.75 3.86 4.32 17.8 20.0 17.1 19.1 16.4 18.3 123 12.30 13.88 3.90 4.35 18.0 20.1 17.2 19.2 16.5 18.4 124 12.40 14.00 3.95 4.39 18.3 20.3 17.5 19.4 16.7 18.6 125 12.50 14.13 3.99 4.43 18.4 20.5 17.6 19.6 16.9 18.8 126 12.60 14.25 4.03 4.46 18.6 20.6 17.8 19.7 17.1 18.9 127 12.70 14.38 4.07 4.50 18.8 20.8 18.0 19.9 17.2 19.1 128 12.80 14.50 4.12 4.54 19.0 21.0 18.2 20.1 17.5 19.2 129 12.90 14.63 4.16 4.58 19.2 21.2 18.4 20.2 17.6 19.4 130 13.00 14.75 4.20 4.61 19.4 21.3 18.6 20.4 17.8 19.5 131 13.10 14.88 4.24 4.65 19.6 21.5 18.7 20.6 18.0 19.7 132 13.20 15.00 4.29 4.69 19.8 21.7 19.0 20.7 18.2 19.9 133 13.30 15.13 4.33 4.73 20.0 21.9 19.1 20.9 18.3 20.0 134 13.40 15.25 4.38 4.77 20.2 22.0 19.4 21.1 18.6 20.2 135 13.50 15.38 4.42 4.80 20.4 22.2 19.5 21.2 18.7 20.3 136 13.60 15.50 4.46 4.84 20.6 22.4 19.7 21.4 18.9 20.5 137 13.70 15.63 4.51 4.88 20.8 22.6 19.9 21.6 19.1 20.7 138 13.80 15.75 4.55 4.92 21.0 22.7 20.1 21.7 19.3 20.8 139 13.90 15.88 4.60 4.96 21.3 22.9 20.3 21.9 19.5 21.0 140 14.00 16.00 4.64 5.00 21.4 23.1 20.5 22.1 19.7 21.2 141 14.10 16.13 4.69 5.03 21.7 23.2 20.7 22.2 19.9 21.3 142 14.20 16.26 4.74 5.07 21.9 23.4 21.0 22.4 20.1 21.5 143 14.30 16.40 4.78 5.11 22.1 23.6 21.1 22.6 20.3 21.6 144 14.40 16.53 4.83 5.15 22.3 23.8 21.4 22.8 20.5 21.8 145 14.50 16.66 4.87 5.19 22.5 24.0 21.5 22.9 20.6 22.0

*Before calculating the sum of total capacity of indoor units, please convert the value into the kW model capacity following the formula on 5-1-1.

)

Total capacity of

indoor units*

146 14.60 16.80 4.92 5.23 22.7 24.2 21.7 23.1 20.8 22.2 147 14.70 16.93 4.97 5.27 23.0 24.4 22.0 23.3 21.1 22.3 148 14.80 17.06 5.02 5.31 23.2 24.5 22.2 23.5 21.3 22.5 149 14.90 17.20 5.06 5.35 23.4 24.7 22.4 23.6 21.4 22.7 150 15.00 17.33 5.11 5.39 23.6 24.9 22.6 23.8 21.6 22.8 151 15.10 17.46 5.16 5.43 23.8 25.1 22.8 24.0 21.9 23.0 152 15.20 17.60 5.21 5.47 24.1 25.3 23.0 24.2 22.1 23.2 153 15.30 17.73 5.26 5.51 24.3 25.5 23.3 24.4 22.3 23.3 154 15.40 17.86 5.31 5.55 24.5 25.6 23.5 24.5 22.5 23.5 155 15.50 18.00 5.35 5.58 24.7 25.8 23.6 24.7 22.7 23.6 156 15.51 18.01 5.35 5.57 24.7 25.7 23.7 24.6 22.7 23.6 157 15.52 18.02 5.35 5.55 24.7 25.7 23.7 24.5 22.7 23.5 158 15.54 18.04 5.36 5.54 24.8 25.6 23.7 24.5 22.7 23.5 159 15.55 18.05 5.36 5.52 24.8 25.5 23.7 24.4 22.7 23.4 160 15.57 18.06 5.36 5.51 24.8 25.5 23.7 24.4 22.7 23.3 161 15.58 18.07 5.37 5.49 24.8 25.4 23.7 24.3 22.7 23.3 162 15.60 18.09 5.37 5.48 24.8 25.3 23.7 24.2 22.7 23.2 163 15.61 18.10 5.37 5.47 24.8 25.3 23.7 24.2 22.8 23.2 164 15.62 18.11 5.37 5.45 24.8 25.2 23.8 24.1 22.8 23.1 165 15.64 18.12 5.38 5.44 24.8 25.1 23.8 24.0 22.8 23.0 166 15.65 18.14 5.38 5.42 24.9 25.1 23.8 24.0 22.8 23.0 167 15.67 18.15 5.38 5.41 24.9 25.0 23.8 23.9 22.8 22.9 168 15.68 18.16 5.38 5.39 24.9 24.9 23.8 23.8 22.8 22.8 169 15.70 18.17 5.39 5.38 24.9 24.9 23.8 23.8 22.8 22.8 170 15.71 18.19 5.39 5.36 24.9 24.8 23.8 23.7 22.8 22.7 171 15.73 18.20 5.39 5.35 24.9 24.7 23.8 23.6 22.8 22.7 172 15.74 18.21 5.40 5.34 24.9 24.7 23.9 23.6 22.9 22.6 173 15.76 18.22 5.40 5.32 24.9 24.6 23.9 23.5 22.9 22.5 174 15.77 18.24 5.40 5.31 25.0 24.5 23.9 23.5 22.9 22.5 175 15.79 18.25 5.40 5.29 25.0 24.5 23.9 23.4 22.9 22.4 176 15.80 18.26 5.41 5.28 25.0 24.4 23.9 23.3 22.9 22.4 177 15.81 18.27 5.41 5.26 25.0 24.3 23.9 23.3 22.9 22.3 178 15.83 18.29 5.41 5.25 25.0 24.3 23.9 23.2 22.9 22.2 179 15.84 18.30 5.41 5.23 25.0 24.2 23.9 23.1 22.9 22.2 180 15.86 18.31 5.42 5.22 25.0 24.1 23.9 23.1 23.0 22.1 181 15.87 18.32 5.42 5.21 25.0 24.1 24.0 23.0 23.0 22.1 182 15.89 18.34 5.42 5.19 25.1 24.0 24.0 22.9 23.0 22.0 183 15.90 18.35 5.43 5.18 25.1 23.9 24.0 22.9 23.0 21.9 184 15.92 18.36 5.43 5.16 25.1 23.9 24.0 22.8 23.0 21.9 185 15.93 18.37 5.43 5.15 25.1 23.8 24.0 22.8 23.0 21.8 186 15.95 18.39 5.43 5.13 25.1 23.7 24.0 22.7 23.0 21.7 187 15.96 18.40 5.44 5.12 25.1 23.7 24.0 22.6 23.0 21.7 188 15.97 18.41 5.44 5.10 25.1 23.6 24.0 22.6 23.0 21.6 189 15.99 18.42 5.44 5.09 25.2 23.5 24.1 22.5 23.1 21.6 190 16.00 18.44 5.45 5.07 25.2 23.5 24.1 22.4 23.1 21.5 191 16.02 18.45 5.45 5.06 25.2 23.4 24.1 22.4 23.1 21.4 192 16.03 18.46 5.45 5.05 25.2 23.3 24.1 22.3 23.1 21.4 193 16.05 18.47 5.45 5.03 25.2 23.3 24.1 22.2 23.1 21.3 194 16.06 18.49 5.46 5.02 25.2 23.2 24.1 22.2 23.1 21.3 195 16.08 18.50 5.46 5.00 25.2 23.1 24.1 22.1 23.1 21.2 196 16.09 18.51 5.46 4.99 25.2 23.1 24.1 22.1 23.1 21.1 197 16.11 18.52 5.46 4.97 25.3 23.0 24.2 22.0 23.1 21.1 198 16.12 18.54 5.47 4.96 25.3 22.9 24.2 21.9 23.2 21.0 199 16.14 18.55 5.47 4.94 25.3 22.9 24.2 21.9 23.2 20.9 200 16.15 18.56 5.47 4.93 25.3 22.8 24.2 21.8 23.2 20.9 201 16.16 18.57 5.48 4.92 25.3 22.7 24.2 21.7 23.2 20.8 202 16.18 18.59 5.48 4.90 25.3 22.7 24.2 21.7 23.2 20.8 203 16.19 18.60 5.48 4.89 25.3 22.6 24.2 21.6 23.2 20.7 204 16.21 18.61 5.48 4.87 25.3 22.5 24.2 21.5 23.2 20.6 205 16.22 18.62 5.49 4.86 25.4 22.5 24.3 21.5 23.2 20.6 206 16.24 18.64 5.49 4.84 25.4 22.4 24.3 21.4 23.3 20.5 207 16.25 18.65 5.49 4.83 25.4 22.3 24.3 21.3 23.3 20.5 208 16.27 18.66 5.49 4.81 25.4 22.3 24.3 21.3 23.3 20.4

Capacity(kW

Cooling Heating Cooling Heating Cooling Heating Cooling Heating Cooling Heating

Power Consumption(kW)Current(A)/220V Current(A)/230V Current(A)/240V

5-3. CORRECTING COOLING AND HEATING CAPACITY

Rated cooling capacity Rated heating capacity

Indoor D.B. 27°C / W.B. 19°C Outdoor D.B. 35°C

Indoor D.B. 20°C Outdoor D.B. 7°C / W.B. 6°C

0.4

-5 0 10 20 30 40 46

0.6

0.8

1.0

1.2

1.4

0.6

0.8

1.0

1.2

1.4

22 20 18 16

20 18 16

0.6

0.4

0.8

1.0

1.2

1.4

0.4

0.6

0.8

1.0

1.2

1.4

-10-15 -5 0 5 10 15

5-3-1. Correcting Capacity for Changes in Air Conditions

(1)The performance curve charts (Figure 1, 2) show the change ratio of capacity and input (power consumption) according to the

indoor and outdoor temperature condition when defining the rated capacity (total capacity) and rated input under the standard condition in standard piping length (5m) as “1.0”.

• Standard conditions:

• Use the rated capacity and rated input given in “5-2.”.

• The input is the single value of the outdoor unit; the input of each indoor unit must be added to obtain the total input.

(2)The capacity of each indoor unit may be obtained by multiplying the total capacity obtained in (1) by the ratio between the

individual capacity at the rated time and the total capacity at the rated time.

Individual capacity under stated conditions = total capacity under the stated conditions o

(3)Capacity correction factor curve

Figure 1.PUMY-P100VHM PUMY-P100VHMA

PUMY-P125VHM PUMY-P125VHMA PUMY-P140VHM PUMY-P140VHMA

Figure 2. PUMY-P100VHM PUMY-P100VHMA

PUMY-P125VHM PUMY-P125VHMA PUMY-P140VHM PUMY-P140VHMA

Cooling performance curve

Cooling Capacity (ratio)

Cooling Power consumption (ratio)

INDOOR <W.B. :>

Heating Capacity (ratio)

Heating Power consumption (ratio)

individual capacity at the rated time

total capacity at the rated time

Heating performance curve

INDOOR <D.B. :>

Outdoor <D.B. ::>

Outdoor <W.B. ::>

5-3-2. Correcting Capacity for Changes in the Length of Refrigerant Piping

Cooling Heating

100

5 101520253035404550556065707580[m]

Cooling P100 model

Heating P100, 125, 140 models

Cooling P125 model

Cooling P140 model

Capacity ratio [%]

Corrected pipe length

(1) During cooling, to obtain the ratio (and the equivalent piping length) of the outdoor units rated capacity and the total

in-use indoor capacity, first find the capacity ratio corresponding to the standard piping length from Figure 3, and then multiply by the cooling capacity from Figure 1 to obtain the actual capacity.

(2) During heating, to find the equivalent piping length, first find the capacity ratio corresponding to standard piping length

from Figure 3, and then multiply by the heating capacity from Figure 2 to obtain the actual capacity.

(1) Capacity CORRECTION CURVE (Figure 3)

(2) Method for Obtaining the Equivalent Piping Length

Equivalent length for type P100·125·140 = (length of piping to farthest indoor unit) + (0.3 o number of bends in the piping) (m)

Length of piping to farthest indoor unit: type P100~P140.....80m

5-3-3. Correction of Heating Capacity for Frost and Defrosting

If heating capacity has been reduced due to frost formation or defrosting, multiply the capacity by the appropriate correction factor from the following table to obtain the actual heating capacity.

Correction factor diagram

Outdoor Intake temperature (W.B.°C)

Correction factor

1.0

0.98

0.89

0.88

-2

0.89

-4

0.9

-6

0.95

-8

0.95

-10

0.95

5-4. NOISE CRITERION CURVES

1.5m

MICROPHONE

UNIT

GROUND

63 125 250 500 1000 2000 4000 8000

APPROXIMATE THRESHOLD OF HEARING FOR CONTINUOUS NOISE

OCTAVE BAND SOUND PRESSURE LEVEL, dB (0 dB = 0.0002 µbar)

BAND CENTER FREQUENCIES, Hz

NC-60

NC-50

NC-40

NC-30

NC-20

NC-70

PUMY-P100VHM PUMY-P100VHMA

COOLING

MODE

HEATING

SPL(dB)

LINE

63 125 250 500 1000 2000 4000 8000

APPROXIMATE THRESHOLD OF HEARING FOR CONTINUOUS NOISE

OCTAVE BAND SOUND PRESSURE LEVEL, dB (0 dB = 0.0002 µbar)

BAND CENTER FREQUENCIES, Hz

NC-60

NC-50

NC-40

NC-30

NC-20

NC-70

PUMY-P125VHM PUMY-P125VHMA

COOLING

MODE

HEATING

SPL(dB)

LINE

63 125 250 500 1000 2000 4000 8000

APPROXIMATE THRESHOLD OF HEARING FOR CONTINUOUS NOISE

OCTAVE BAND SOUND PRESSURE LEVEL, dB (0 dB = 0.0002 µbar)

BAND CENTER FREQUENCIES, Hz

NC-60

NC-50

NC-40

NC-30

NC-20

NC-70

PUMY-P140VHM PUMY-P140VHMA

COOLING

MODE

HEATING

SPL(dB)

LINE

OUTLINES AND DIMENSIONS

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

2-U Shaped notched holes

(Foundation Bolt M10)

600175 175

Rear Air Intake

Installation Feet

417

330

56 37

2-12o36 Oval holes

28 370 53

(Foundation Bolt M10)

Left·········For the power supply

Center····For the transmission line

Terminal block

950

Air Discharge

Right·······For concentration control

Ground for the transmission line

( )

Ground for the power supply

("GR"marking position)

322

Ground for concentration control

Service panel

1088

Handle for moving

635371

1350

w1 507

w1 423

Front piping cover

Rear piping cover

Bottom piping hole

(Knockout)

81 219

Unit : mm

Drain hole

(5-[33)

14514522030 145

Side Air Intake

4 PIPING-WIRING DIRECTIONS

Piping and wiring connections

can be made from 4 directions:

front, right, rear and below.

FOUNDATION

500

Over

Less than

500

Over

Service space

Please secure the unit

firmly with 4 foundation (M10)

bolts.(Bolts and washers must

be purchased locally.)

150

Over

2 SERVICE SPACE 3 FOUNDATION BOLTS

Dimensions of space needed

for service access are

shown in the below diagram.

Handle for moving

Side Air Intake

Rear Air Intake

Handle for moving

Air intake

Rear trunking hole

(Knockout)

Power supply wiring hole

(2-[27Knockout)

45 40

Right trunking hole

(Knockout)

Power supply wiring hole

(2-[27Knockout)

75 40

Right piping hole

(Knockout)

4540

Power supply wiring hole

(2-[27Knockout)

[

n92

Rear piping hole

(Knockout)

27 55

23 73 63

19 55

73 63 23 27 92

23 73 63 27 55

Over 10

FREE

1 FREE SPACE (Around the unit)

The diagram below shows a

basic example.

Explantion of particular details is

given in the installation manuals etc.

Over 10

Over 150Over 1000

Example of Notes

w1·····Indication of STOP VALVE connection location.

1Refrigerant GAS pipe connction(FLARE)[15.88(5/8 inch)

2Refrigerant LIQUID pipe connection(FLARE)[ 9.52(3/8 inch)

Front piping hole

Front trunking hole

(Knockout)

Piping Knockout Hole Details

PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

417

56 37

2-U Shaped notched holes

(Foundation Bolt M10)

1088

Front piping cover

28 370

Left·········For the power supply

Center····For the transmission line

Right·······For concentration control

Terminal block

( )

Ground for the transmission line

Ground for concentration control

Service panel

Handle for moving

w1 507

w1 423

Rear piping cover

Bottom piping hole

(Knockout)

Drain hole

(5-[33)

600175 175

Rear Air Intake

Installation Feet

2-12o36 Oval holes

330

Side Air Intake

4 PIPING-WIRING DIRECTIONS

Piping and wiring connections

can be made from 4 directions:

front, right, rear and below.

FOUNDATION

Please secure the unit

firmly with 4 foundation (M10)

bolts.(Bolts and washers must

be purchased locally.)

150

Over

500

Over

950

Air Discharge

(Foundation Bolt M10)

Less than

500

Over

Ground for the power supply

("GR"marking position)

322

Handle for moving

Side Air Intake

Rear Air Intake

635371

1350

Handle for moving

Rear trunking hole

Power supply wiring hole

(2-[27Knockout)

45 40

Right trunking hole

(Knockout)

Power supply wiring hole

(2-[27Knockout)

75 40

Right piping hole

(Knockout)

4540

81 219

(Knockout)

[

n92

14514522030 145

Rear piping hole

(Knockout)

27 55

23 73 63

19 55

73 63 23 27 92

23 73 63 27 55

2 SERVICE SPACE 3 FOUNDATION BOLTS

Dimensions of space needed

for service access are

shown in the below diagram.

FREE

1 FREE SPACE (Around the unit)

The diagram below shows a

basic example.

Explantion of particular details is

given in the installation manuals etc.

Over

Over 10

Service space

Over 150Over 1000

Handle for moving

Example of Notes

w1·····Indication of STOP VALVE connection location.

1Refrigerant GAS pipe connction(FLARE)[15.88(5/8 inch)

2Refrigerant LIQUID pipe connection(FLARE)[ 9.52(3/8 inch)

Air intake

(Knockout)

n92

Front piping hole

(Knockout)

Power supply wiring hole

(2-[27Knockout)

Front trunking hole

Piping Knockout Hole Details

WIRING DIAGRAM

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

SYMBOL NAME SYMBOL NAME SYMBOL NAMESYMBOL NAME

TB1 Terminal Block <Power Supply> TB3 Terminal Block <Transmission> TB7 Terminal Block <Centralized Control> MC Motor for Compressor MF1,MF2 Fan Motor 21S4 Solenoid Valve <Four way valve> SV1 Solenoid Valve <Bypass valve> TH3

Thermistor <Outdoor Pipe Temperature>

TH4 Thermistor <Discharge Temperature>

Thermistor <Low Pressure Saturated Temperature>

TH6 TH7 Thermistor <Outdoor Temperature> TH8 Thermistor <Heatsink> 63HS

High Pressure Sensor <Discharge Pressure>

63H High Pressure Switch 63L Low Pressure Switch CB Main Smoothing Capacitor ACTM

Active filter Module

RS Rush Current Protect Resistor

Reactor

DCL

P.B. Power Circuit Board

Connection Terminal <U/V/W-Phase>

U/V/W TAB-S/T

Terminal <L/N-Phase> Terminal <DCVoltage>

TAB-P/P1/P2

Terminal <DCVoltage>

TAB-N/N1/N2

Connector

CN2~5

Connector

CNDC

Connector

CNAF

Inverter

IPM

Light Emitting Diodes <Inverter Control Status>

LED1

N.F. Noise Filter Circuit Board

Connection Lead <L-Phase>

LI/LO NI/NO

Connection Lead <N-Phase> Connection Terminal <Ground>

Connector

CNAC1/2

Connector

CN5

TH7TH6 TH3 TH463HS 63H63L

Multi Controller Board

MULTI.B.

Fuse <6.3A>

F1,F2 F500

Fuse <3A>

SW1

Switch <Display Selection>

SW2

Switch <Function Selection>

SW3

Switch <Test Run>

SW4

Switch <Model Selection>

SW5

Switch <Function Selection>

SW6

Switch <Function Selection>

SW7

Switch <Function Selection>

SW8

Switch <Function Selection>

SWU1

Switch <Unit Address Selection, 1st digit>

SWU2

Switch <Unit Address Selection, 2nd digit>

TRANS

Transformer

LED1,2

Digital Indicator <Operation Inspection Display>

LED3

LED <Power Supply to Main Microcomputer>

CNS1

Connector <Multi System>

CNS2

Connector <Centralized Cotrol>

MULTI. B.

CN3D

CN3S

CN3N

MF1

MF2

TB3

(BRN)

M1 M2

(BRN)

TO INDOOR UNIT

CONNECTING WIRES

DC 30V(Non-polar)

TB7

(ORN)

M1 M2

(ORN)

FOR CENTRALIZED

CONTROL

DC 30V(Non-polar)

POWER SUPPLY ~/N AC220/230/240V 50Hz

NO FUSE

AC220V 60Hz

BREAKER

TB1

L N

52C

(BLK)

F500

X505

4 5 6 7

21S4 (GRN)

3 1

21S4

CNF1 (WHT)

CNF2

(WHT)

CNDC

(PNK)

X504

SV2

(BLU)

3 1

TH8

X503

1 2 3

63HS

(WHT)

TRANS

(WHT)

2 1

SV1

52C

P. B.

123

CNAF

4 5 6

(WHT)

12 12 12 123 4 5 6 7

(WHT)

(RED)

(WHT)

TABN TABP

X502

SV1

CN2

CN3 CN5 CN4

1 2 1 2 1 23 4

TH7/6

(RED)

63H

(YLW)

(WHT)

3 1

X501

TABP2

TH3

(WHT)

RED

F1 F2

WHT

(WHT)

BLK

TH4

63L

(RED)

DCL

CNDC

(PIN)

LED3

CNAC (RED)

ACTM

1 3

TABN1

CNS1 (RED)

TABN2

(WHT)

1 2 3

(WHT)

7 6 5 4 3 2 1

CNS2 (YLW)

121

(RED)

CN2

123 4 5 6

TABT

~ ~

TABS

~ ~

TABP1

1 2 3

N1 N2

(BLU)

1 2 3

CN4

(WHT)

2 1

CN51

(WHT)

SWU2SWU1

54321

CN41

(WHT)

3 13

CNAC2

(RED)

CNAC1

(WHT)

(WHT) 4 3 2 14 3 2 1

SW5

LED1

CN40

E I

LO NO

CN5

(RED)

M-P.B.

N. F.

NILI

SW6

SW2SW8SW1

SW7SW3SW4

LED2

CN102 (WHT) 4 3 2 1

1 2 3 4

CN2

(WHT)

TP1

CN1

(WHT)

3 1

w1 MODEL SELECT

MODELS PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

CNAC

Connector <To Noise Filter Circuit Board>

CNDC

Connector <To Noise Filter Circuit>

CN2

Connector <To Power Circuit Board>

CN4

Connector <To Power Circuit Board>

CN40

Connector <Centralized Cotrol Power Supply>

CN41

Connector <For shorting Jumper Connector>

TH3

Connector <Thermistor>

TH4

Connector <Thermistor>

TH7/6

Connector <Thermistor>

63HS

Connector <High Pressure Sensor>

63H

Connector <High Pressure Switch>

63L

Connector <Low Pressure Switch>

CNF1,CNF2

Connector <Fan Motor>

21S4

Connector <Four-way Valve>

SV1

Connector <Bypass Valve>

Connector <For Option>

CN3D

Connector <For Option>

CN3S

Connector <For Option>

CN3N

Connector <For Option>

CN51

Connector <For Option> Relay

X501~505

Transmission Power Board

M-P.B.

CN1

Connector <To Noise Filter Circuit Board>

CN2

Connector <To Multi Controller Board>

1: ON 0: OFF

123456

SW4 0

0 0

Cautions when Servicing

• WARNING: When the main supply is turned off, the voltage[340V] in the main capacitor will drop to 20V in approx. 2 minutes (input voltage:240V).

When servicing,make sure that LED1, LED2 on the outdoor circuit board goes out, and then wait for at least 1 minute.

• Components other than the outdoor board may be faulty: Check and take corrective action, referring to the service manual. Do not replace the outdoor board without checking. NOTES:

1.Refer to the wiring diagrams of the indoor units for details on wiring of each indoor unit. Self-diagnosis function The indoor and outdoor units can be diagnosed automatically using the self-diagnosis switch (SW1) and LED1, LED2 (LED indication) found on the multi-controller of the outdoor unit. LED indication : Set all contacts of SW1 to OFF.

• During normal operation

• The LED indicates the drive state of the controller in the outdoor unit.

Bit

Indication

Compressor operated

52C321S44SV1

(SV2)6—

Always lit

—

[Example] When the compressor and SV1 are turned on during cooling operation.

12345678

• When fault requiring inspection has occurred The LED alternately indicates the inspection code and the location of the unit in which the fault has occurred.

PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

63H

TH7 TH6 TH3 TH4

CNF1

(WHT)

CNF2

(WHT)

21S4

RED

BLU

GRN/YLW

CNDC

(PNK)

X504

(GRN)

21S4

TH8

63HS

(WHT)

TRANS

t°

2 2

WHT

RED

141 TH7/6 (RED)

X503 1

(BLU)

SV2

P. B.

6 1

1 2

(WHT)

SV1

CNAF (WHT)

CN2

(WHT)

(RED)

(WHT)

TABN TABP

SYMBOL NAME

TB1 Terminal Block <Power Supply> TB3 Terminal Block <Comunication Line> TB7 Terminal Block < MC Motor For Compressor MF1,MF2 Fan Motor 21S4 Solenoid Valve<Four-Way Valve> 63H High Pressure Switch 63L Low Pressure Switch 63HS High Pressure Sensor SV1 Solenoid Valve<Bypass valve> TH3 TH4 Thermistor<Discharge> TH6 Thermistor<Low Pressure Saturated> TH7 TH8 DCL ACTM CE Main Smoothing Capacitor P.B. Power Circuit Board

N.F. Noise Filter Circuit Board

C.B.

M-NET P.B.

Thermistor<Outdoor Pipe>

Thermistor<Outdoor> Thermistor<Heatsink> Reactor Active Filter Module

Connection Terminal<U/V/W-Phase>

TABU/V/W TABS/T

Connection Terminal<L/N-Phase> Connection Terminal<DC Voltage>

TABP1/P2/P

Connection Terminal<DC Voltage>

TABN1/N2/N

Diode Bridge

DS2,DS3

Power Module

IPM

Connection Terminal<L-Phase>

LI/LO NI/NO

Connection Terminal<N-Phase> Connection Terminal<Ground>

EI,E2 52C

52C Relay Controller Circuit Board

SW1

Switch<Display Selection>

SW2

Switch<Function Selection>

SW3

Switch<Test Run>

SW4

Switch<Model Selection>

SW5

Switch<Function Selection>

SW6

Switch<Function Selection>

SW7

Switch<Function Selection>

SW8

Switch<Function Selection>

SWU1

Switch<Unit Address Selection, 1st digit>

SWU2

Switch<Unit Address Selection, 2nd digit>

CNLVB

Connector<To N.F. Board CN52C> (Symbol of Board is CNLVB)

Connector<Connection For Option>

CN3D

Connector<Connection For Option>

CN3S

Connector<Connection For Option>

CN3N

Connector<Connection For Option>

CN51

Connector<Connection For Option> LED<Operation Inspection Display>

LED1,LED2 LED3

LED<Power Supply to Main Microcomputer> Fuse<T6,3AL250V>

F1,F2 X501~505

Relay M-NET Power Circuit Board

TP1

ConnectionTerminal<Ground>

Centralized Control Line>

MULTI. B.

MF1

MF2

X505

52C

(BLK)

TB3

RED

TO INDOOR UNIT CONNECTING WIRES DC 30V(Non-polar)

TB7

YLW

FOR CENTRALIZED CONTROL DC 30V(Non-polar)

POWER SUPPLY ~/N 230V 50Hz

TB1

Cautions when Servicing

WARNING: When the main supply is turned off, the voltage [340 V] in the main capacitor will drop to 20 V in approx. 2 minutes (input voltage: 240 V).

When servicing, make sure that LED1, LED2 on the outdoor circuit board goes out, and then wait for at least 1 minute. Components other than the outdoor board may be faulty: Check and take corrective action, referring to the service manual. Do not replace the outdoor board without checking.

NOTES:

· During normal operation The LED indicates the drive state of the controller in the outdoor unit.

Bit

Indication

When fault requiring inspection has occurred The LED alternately indicates the inspection code and the location of the unit in which the fault has occurred.

Compressor operated

52C321S44SV15(SV2)

—

63L

t°

t° t° t°

2112

TH3

TH4

(WHT)

113

63L

(RED)

63H

(YLW)

X501

X502

SV1

12 12

(WHT)

IPM

TABP2

CN3

RED

CN5 CN4

TABU

RED

DCL

RED

BLK

ACTM

—

TABV

TABW

BLK

WHT

L1 L2

Always lit

CN3D

CN3S

CN3N

(WHT)

(RED)

(BLU)

131313

LED3

CNS2

CNS1

(YLW)

(RED)

CNAC (RED)

CNDC

(PIN)

1 3

TABN1

BLK

TABN2

WHT

N1 N2

CNLVB

SWU2SWU1

(WHT)

BLU

WHT

CN41

SW5

LED1

CN40

(WHT)

3 1

CNAC2

CNAC1

(RED)

CN51

(WHT)

CN4

CN2

(WHT)

TABT

DS3

TABS

DS2

TABP1

RED

WHT

RED

w1 MODEL SELECT 1:ON 0:OFF

PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

[Example] When the compressor and SV1 are turned on during cooling operation.

12345678

CN102

(WHT)

(RED)

(WHT)

SW6

SW2SW8SW1

SW7SW3SW4

LED2

WHT

52C

L I

RED

MODELS

N I

BLU

M-NET P.B.

CN2

(WHT)

TP1

BLK

CN1

(WHT)

N. F.

(BLK)

CN52C

BLK

CN5

(RED)

BLK

E I

SW4 123456 010010 010001 010011

051

056

001

010

101

002

102 104 154

1111

009

008

003

007

006

004

005

1 A transmission wire must be

connected to each refrigerant

system (outdoor and indoor).

2 Set addresses:

Outdoor unit ..............051-100

Indoor unit .................001-050

Remote controller .....101-200

3 PUMY has no 3rd digit switch.

The address automatically become

"100" if it is set as "01~50".

Remote

controller

Remote

controller

Remote

controller

Remote

controller

105

Remote

controller

157

Remote

controller

107

Remote

controller

For centralized

management

For remote

controller

Address SW Address SW Address SW Address SW Address SW

Piping

Outdoor unit

Indoor unit Indoor unit Indoor unit Indoor unit Indoor unit

Indoor unitIndoor unitIndoor unitIndoor unitIndoor unit

Address SW Address SW Address SW Address SW Address SW

Address SWAddress SWAddress SWAddress SWAddress SW

Address SWAddress SW

For centralized

management

For remote

controller

Transmission wire

NECESSARY CONDITIONS FOR SYSTEM CONSTRUCTION

8-1. TRANSMISSION SYSTEM SETUP

8-2. REFRIGERANT SYSTEM DIAGRAM

Refrigerant Gas pipe

<5/8>

Refrigerant Liquid pipe

<3/8>

Check valve <Low pressure>

Accumulator

Thermistor <Low pressure saturation temperature> (TH6)

Bypass valve (SV1)

Capillary tube

Check valve <High pressure>

High pressure sensor (63HS)

High pressure switch (63H)

Low pressure switch (63L)

Thermistor (TH7) (Outdoor temperature)

Discharge thermistor (TH4)

Heatsink thermistor (TH8)

Thermistor (TH3) (Pipe temperature)

Oil separator

Service port

4-way valve

Strainer

Stop valve

Distributor

Compressor

Strainer

Refrigerant flow in cooling Refrigerant flow in heating

Refrigerant piping specifications <dimensions of flared connector>

Capillary tube for oil separator : [2.5 o [0.8 o L1000

Capacity

Item

Liquid piping

Gas piping

P15, P20, P25, P32, P40, P50 P63, P80, P100 P125, P140 P100, P125, P140

Indoor unit

Outdoor unit

[6.35<1/4>

[9.52<3/8>

[12.7<1/2>

[15.88<5/8>

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

Unit:mm<inch>

8-3. SYSTEM CONTROL

M1M2

TB5

S12

TB15

101

M1M2

TB3

SAB

TB7

M1M2

TB5

S12

TB15

102

M1M2

TB5

S12

TB15

101

(Main)

151

M1M2

TB3

SAB

TB7

M1M2

TB5

S12

TB15

(Sub)

102

(Main)

152

(Sub)

AB AB AB AB

M1M2

TB5

S12

TB15

101

IC(Main)

M1M2

TB3

SAB

TB7

M1M2

TB5

S122

TB15

IC(Sub)

Example for the System

• Example for wiring control cables, wiring method and address setting, permissible lengths, and the prohibited items are listed in the standard system with detailed explanation.

A. Example of a M-NET remote controller system (address setting is necessary.)

Example of wiring control cables Wiring Method and Address Setting

1. Standard operation

a. Use feed wiring to connect terminals M1 and M2 on

transmission cable block (TB3) for the outdoor unit (OC) to terminals M1 and M2 on the transmission cable block (TB5) of each indoor unit (IC). Use non-polarized 2 wire.

b. Connect terminals M1 and M2 on transmission cable

terminal block (TB5) for each indoor unit with the

terminal block (TB6) for the remote controller (RC).

c. Set the address setting switch (on outdoor unit

P.C.B.) as shown below.

• 1 remote controller for each indoor unit.

• There is no need for setting the 100 position on the remote controller.

2. Operation using two remote controllers

• Using 2 remote controllers

for each indoor unit.

3. Group operation

• Multiple indoor units operated together by 1 remote controller

Combinations of 1through 3 above are possible.

Unit

Indoor unit (IC)

Outdoor unit

(OC)

Remote

controller (RC)

Range

001 to 050 051 to 100 101 to 150

Setting Method

Use the smallest address of all the indoor unit plus 50. Indoor unit address plus

100.

a. Same as above. b. Same as above. c. Set address switch (on outdoor unit P.C.B.) as

shown below.

Unit

Indoor Unit (IC)

Outdoor unit

(OC)

Main Remote

Controller (RC)

Sub Remote

Controller (RC)

Range

001 to 050 051 to 100

101 to 150 151 to 200

Setting Method

Use the smallest address of all the indoor units plus 50. Indoor unit address plus

100. Indoor unit address plus

150.

a. Same as above. b. Connect terminals M1 and M2 on transmission cable

terminal block (TB5) of the IC main unit with the most recent address within the same indoor unit (IC) group to terminal block (TB6) on the remote controller.

c. Set the address setting switch (on outdoor unit

P.C.B.) as shown below.

Unit

IC (Main)

IC (Sub)

Outdoor Unit

Main Remote

Controller

Sub Remote

Controller

Range

001 to 050

051 to 100 101 to 150 151 to 200

Use the smallest address within the same group of indoor units. Use an address, other than that of the IC (Main) from among the units within the same group of indoor units. This must be in sequence with the IC (Main). Use the smallest address of all the indoor units plus 50. Set at an IC (Main) address within the same group plus 100. Set at an IC (Main) address within the same group plus 150.

Setting Method

d. Use the indoor unit (IC) within the group with the

most functions as the IC (Main) unit.

—

• Name, Symbol and the Maximum Remote controller Units for Connection

M1M2

TB5

S12

TB15

102

IC(Main)

M1M2

TB3

SAB

TB7

M1M2

TB5

S12

TB15

IC(Sub)

M1M2

TB5

S12

TB15

101

(Main)

151

M1M2

TB3

SAB

TB7

M1M2

TB5

S12

TB15

(Sub)

102

(Main)

103

(Sub)

104

AB AB AB AB AB

M1M2

TB5

S12

TB15

101

M1M2

TB3

SAB

TB7

M1M2

TB5

S12

TB15

Name

Outdoor unit

Indoor unit

M-NET remote

controller

Symbol

Maximum units for connection

— 1 OC unit can be connected to 1-8 IC units (P100 : 1-6 IC units) Maximum 2 RC for 1 indoor unit, Maximum 16 RC for 1 OC

Permissible Lengths Prohibited items

Longest transmission cable length (1.25 mm L

1 + L2, L2 + L3, L3 + L1 [ 200m

)

Remote controller cable length

1. If 0.5 to 1.25 mm

R1, R2 [10m

2. If the length exceeds 10 meters, the exceeding section should be 1.25 mm

and that section should be a value within the total extension length of the transmission cable and maximum transmission cable

length. (L

Same as above

• M-NET remote controller(RC) and MA remote controller(MA) cannot be used together.

• Do not connect anything with TB15 of indoor unit(IC).

• Use the indoor unit(IC) address plus 150 as the sub remote controller address. In this case, it should be 152.

• 3 or more remote controller (RC) cannot be connected to 1 indoor unit.

Same as above

• The remote controller address is the indoor

unit main address plus

100. In this case, it should be 101.

B. Example of a group operation system with 2 or more outdoor units and a M-NET remote controller.

M1M2S

M1 M2 S

TB7

TB3

(51)

M1 M2 S

TB5

(01)

M1 M2 S

TB5

(03)

M1 M2 S

TB5

(02)

M1 M2 S

TB5

(04)

M1 M2 S

TB5

(05)

M1 M2 S

TB5

(07)

M1 M2 S

TB5

(06)

(101)

(105)

(104)

(155)

M1 M2 S

TB7

(53)

M1M2S

Power Supply

Unit

M1M2S

G-50A

L6L7

AB AB AB

M1M2 S

TB3

A : Group 1 B : Group 3 C : Group 5 D : Shielded Wire E : Sub Remote Controller

( ): Address

(Address settings are necessary.)

Examples of Transmission Cable WiringWiring Method Address Settings

slla. Always use shielded wire when making connections between the outdoor unit (OC) and the indoor unit (IC), as well

for all OC-OC, and IC-IC wiring intervals.

b. Use feed wiring to connect terminals M1 and M2 and the ground terminal on the transmission cable terminal block

(TB3) of each outdoor unit (OC) to terminals M1 and M2 on the terminal S on the transmission cable block of the indoor unit (IC).

c. Connect terminals M1 and M2 on the transmission cable terminal block of the indoor unit (IC) that has the most

recent address within the same group to the terminal block on the remote controller (RC).

d. Connect together terminals M1, M2 and terminal S on the terminal block for central control (TB7) for the outdoor

unit (OC). e. DO NOT change the jumper connector CN41 on MULTI controller board. f. The earth processing of S terminal for the centralized control terminal block(TB7) is unnecessary.

Connect the terminal S on the power supply unit with the earth.

g. Set the address setting switch as follows.

Unit

IC (Main)

IC (Sub)

Outdoor Unit

Main Remote Controller

Sub Remote Controller

MA Remote Controller

101 to 150 151 to 200

Range

01 to 50 01 to 50

51 to 100

—

Use the smallest address within the same group of indoor units. Use an address, other than the IC (Main) in the same group of indoor units.

This must be in sequence with the IC (Main). Use the smallest address of all the indoor units plus 50. *The address automatically becomes “100” if it is set as “01 - 50”. Set at an IC (Main) address within the same group plus 100. Set at an IC (Main) address within the same group plus 150. Unnecessary address setting (Necessary main/ sub setting)

Setting Method

h. The group setting operations among the multiple indoor units is done by the remote controller (RC) after the electrical

power has been turned on.

• Name, Symbol, and the Maximum Units for Connection

M1M2S

M1 M2 S

TB7

TB3

(51)

M1 M2 S

TB5

(01)

M1 M2 S

TB5

(03)

M1 M2 S

TB5

(02)

M1 M2 S

TB5

(04)

M1 M2 S

TB5

(05)

M1 M2 S

TB5

(07)

M1 M2 S

TB5

(06)

(101)

(105)

(104)

(155)

M1 M2 S

TB7

(53)

M1M2S

Power Supply

Unit

M1M2S

G-50A

AB AB AB

M1M2 S

TB3

A : Group 1 B : Group 3 C : Group 5 D : Shielded Wire E : Sub Remote Controller

( ): Address

• Longest length via outdoor units : L1+L2+L3+L4, L1+L2+L3+L5, L1+L2+L6+L7 [ 500 meters (1.25mm2)

• Longest transmission cable length : L

• Remote controller cable length : R

1,R2, R2+R3, R4 [ 10 meters (0.5 to 1.25mm

If the length exceeds 10 meters, use a 1.25 mm

tion (L

1, L3+L4, L3+L5, L6, L2+L6, L7 [ 200 meters (1.25mm

8) should be included in the calculation of the maximum length and overall length.

) shielded wire. The length of this sec-

Permissible Length

)

Prohibited items

• Never connect together the terminal blocks (TB5) for transmission wires for indoor units (IC) that have been connected to different outdoor units (OC).

• Set all addresses to ensure that they are not overlapped.

• M-NET remote controller and MA remote controller cannot be connected with the indoor unit of the same group wiring together.

C. Example of a MA remote controller system (address setting is not necessary.)

M1M2

TB5

S12

TB15

M1M2

TB3

M1M2

TB7

1 L2

M1M2

TB5

S12

TB15

MAMA

M1M2

TB5

S12

TB15

M1M2

TB3

SM1M2

TB7

M1M2

TB5

S12

TB15

AB AB

MA MA

M1M2

TB5

S12

TB15

M1M2

TB3

M1M2

TB7

M1M2

TB5

S12

TB15

NOTE : In the case of same group operation, need to set the address that is only main indoor unit.

Example of wiring control cables Wiring Method and Address Setting

1. Standard operation

a. Use feed wiring to connect terminals M1 and M2 on

transmission cable block (TB3) for the outdoor unit (OC) to terminals M1 and M2 on the transmission cable block (TB5) of each indoor unit (IC). Use non-polarized 2 wire.

b. Connect terminals 1 and 2 on transmission cable

terminal block (TB15) for each indoor unit with the terminal block for the MA remote controller (MA).

• 1 remote controller for each indoor unit.

2. Operation using two remote controllers

• Using 2 remote controllers

for each indoor unit.

3. Group operation

a. The same as above. b. The same as above. c. In the case of using 2 remote controllers, connect

terminals 1 and 2 on transmission cable terminal block (TB15) for each indoor unit with the terminal block for 2 remote controllers.

· Set the sub remote controller position for one of MA remote controller’s main switch. Refer to the installation manual of MA remote controller

a. The same as above. b. The same as above. c. Connect terminals 1 and 2 on transmission cable ter-

minal block (TB15) of each indoor unit, which is doing group operation with the terminal block for MA remote controller. Use non-polarized 2 wire.

d. In the case of same group operation, need to set the

address that is only main indoor unit. Please set the smallest address within number 01-50 of the indoor unit with the most functions in the same group.

• Multiple indoor units operated together by 1 remote controller

Combinations of 1through 3 above are possible.

Permissible Lengths Prohibited items

M1M2

TB5

S12

TB15

M1M2

TB3

M1M2

TB7

M1M2

TB5

S12

TB15

M1M2

TB5

S12

TB15

M1M2

TB3

M1M2

TB7

M1M2

TB5

S12

TB15

AB AB

MA MAMA

AB AB

M1M2

TB5

S12

TB15

M1M2

TB3

M1M2

TB7

M1M2

TB5

S12

TB15

MAMA

Longest transmission cable length L

1 + L2 [ 200m (1.25 mm

)

MA remote controller cable length

1, R2 [ 200m (0.3 ~ 1.25 mm

Longest transmission cable length The same as above. MA remote controller cable length

3 +R4, R5 +R6 [ 200m

(0.3 ~ 1.25 mm

)

The MA remote controller and the M-NET remote controller cannot be used together with the indoor unit

)

of the same group.

3 MA remote controllers or more cannot be connected with the indoor unit of the same group.

Longest transmission cable length The same as above. MA remote controller cable length

7 +R8 [ 200m (0.3 ~ 1.25 mm

)

The second MA remote controller is connected with the terminal block(TB15) for the MA remote controller of the same indoor unit(IC) as the first remote control.

D. Example of a group operation with 2 or more outdoor units and a MA remote controller.

M1 M2 S

TB7

(51)

M1 M2 1 2S

TB5 TB15

TB15

(01)

M1 M2 S

TB5

(03)

M1 M2 S

TB5

(02)

M1 M2 S

TB5

(04)

M1 M2 S

TB5

(05)

M1 M2 S

TB5

(07)

M1 M2 S

TB5

(06)

MAMAMA

M1 M2 S

TB7

(53)

Power Supply

Unit

G-50A

L6L7

ABABAB

M1M2

2 2

M1M2S

TB3

M1M2S

TB3

A : Group 1 B : Group 3 C : Group 5 D : Shielded Wire E : Sub Remote Controller

( ): Address

(Address settings are necessary.)

Examples of Transmission Cable Wiring

a. Always use shielded wire when making connections between the outdoor unit (OC) and the indoor unit (IC), as well

for all OC-OC, and IC-IC wiring intervals.

b. Use feed wiring to connect terminals M1 and M2 and the ground terminal on the transmission cable terminal block

Setting Method

(TB3) of each outdoor unit (OC) to terminals M1 and M2 on the terminal S on the transmission cable block of the indoor unit (IC).

c. Connect terminals M1 and M2 on the transmission cable terminal block of the indoor unit (IC) that has the most

recent address within the same group to the terminal block on the remote controller (RC).

d. Connect together terminals M1, M2 and terminal S on the terminal block for central control (TB7) for the outdoor

unit (OC). e. DO NOT change the jumper connector CN41 on MULTI controller board. f. The earth processing of S terminal for the centralized control terminal block(TB7) is unnecessary.

Connect the terminal S on the power supply unit with the earth.

g. Set the address setting switch as follows.

Unit

IC (Main)

IC (Sub)

Wiring Method Address Settings

Outdoor Unit

Main Remote Controller

Sub Remote Controller

MA Remote Controller

h. The group setting operations among the multiple indoor units is done by the remote controller (RC) after the electrical

power has been turned on.

Range

01 to 50 01 to 50

51 to 100

101 to 150 151 to 200

—

Use the smallest address within the same group of indoor units. Use an address, other than the IC (Main) in the same group of indoor units.

This must be in sequence with the IC (Main). Use the smallest address of all the indoor units plus 50.

*The address automatically becomes “100” if it is set as “01 - 50”. Set at an IC (Main) address within the same group plus 100. Set at an IC (Main) address within the same group plus 150.

Unnecessary address setting (Necessary main/ sub setting)

• Name, Symbol, and the Maximum Units for Connection

A : Group 1 B : Group 3 C : Group 5 D : Shielded Wire E : Sub Remote Controller

( ): Address

M1 M2 S

TB7

(51)

M1 M2 1 2S

TB5 TB15

TB15

(01)

M1 M2 S

TB5

(03)

M1 M2 S

TB5

(02)

M1 M2 S

TB5

(04)

M1 M2 S

TB5

(05)

M1 M2 S

TB5

(07)

M1 M2 S

TB5

(06)

MAMAMA

M1 M2 S

TB7

(53)

Power Supply

Unit

G-50A

M1M2S

TB3

M1M2S

TB3

ABABAB

M1M2

Longest length via outdoor unit (M-NET cable): L1+L2+L3+L4 and L1+L2+L6+L7 [ 500 m (1.25 mm2 or more) Longest transmission cable length (M-NET cable): L1 and L3+L4 and L6 and L2+L6 and L7 [ 200 m (1.25 mm2 or more) Remote controller cable length: m1 and m1+m2+m3 and m1+m2+m3+m4

[ 200 m (0.3 to 1.25

mm2)

Permissible LengthProhibited items

• Never connect together the terminal blocks (TB5) for transmission wires for indoor units (IC) that have been connected to different outdoor units (OC).

• M-NET remote controller and MA remote controller cannot be connected with the indoor unit of the same group wiring together.

9 TROUBLESHOOTING

ON/OFF

TEST RUN

˚C

1Hr.

FILTER

CHECK TEST

TEMP.

TIMER SET

Check code indicator (see NOTE 1) Test run remaining time indicator (see NOTE 3)

Display panel

(M-NET Remote controller)

ON/OFF button 9

ON/OFF LED (Lights up in operation)

LOUVER button 6

TEST RUN button 2

AIR DIRECTION button 6

FAN SPEED button 5

TEST RUN indicator

Indoor unit liquid pipe temperature indicator

(see NOTE 4)

(Cooling/Heating) OPERATION SWITCH button 3,4

Control panel

9-1. CHECK POINTS FOR TEST RUN

9-1-1. Procedures of test run

(1) Before test run, make sure that following work is completed.

• Installation related : Make sure that the panel of cassette type and electrical wiring is done. Otherwise electrical functions like auto vane will not operate normally.

• Piping related : Perform leakage test of refrigerant and drain piping. Make sure that all joints are perfectly insulated. Check stop valves on both liquid and gas side for full open.

• Electrical wiring related :

Check ground wire, transmission cable, remote controller cable, and power supply cable for secure connection. Make sure that all switch settings of address or adjustments for special specification systems are correctly settled.

(2) Safety check :

With the insulation tester of 500V, inspect the insulation resistance. Do not touch the transmission cable and remote controller cable with the tester. The resistance should be over 1.0 MΩ. Do not proceed inspection if the resistance is under 1.0 MΩ. Inspect between the outdoor unit power supply terminal block and ground first, metallic parts like refrigerant pipes or the electrical box next, then inspect all electrical wiring of outdoor unit, indoor unit, and all linked equipment .

(3) Before operation :

a) Turn the power supply switch of the outdoor unit on for compressor protection. For a test run, wait at least 12 hours from this point. b) Register control systems into remote controller(s). Never touch the on/ off switch of the remote controller(s). Refer to 9-1-2. Special

Function Operation and Settings (for M-NET Remote Controller), this registration is unnecessary.

(4) More than 12 hours later from power supply to the outdoor unit, turn all power switch on for test run. Perform test run according to the

“Operation procedure” table of the bottom of this page. While test running, make test run reports .

(5) When you deliver the unit after test run, instruct the end user for proper usage of the system using owners’ manual and the test run report

you made to certificate normal operation. If abnormalities are detected during test run, refer to “ 9-1-3. Countermeasures for Error During Test Run”. As for DIP switch setting of outdoor unit, refer to” 9-5. INTERNAL SWITCH FUNCTION TABLE”.

Operation procedure

1 Turn on the main power supply of all units at least 12 hours before test run. ”HO” appears on display panel for 3 min. 2 12 hours later, press TEST RUN button twice to perform test run. “TEST RUN “ appears on display panel. 3 Press OPERATION SWITCH button to make sure that air blows out. 4 Select Cooling (or Heating) by OPERATION SWITCH button to make sure that cool (or warm) air blow out. 5 Press Fan speed button to make sure that fan speed is changed by the button. 6 Press AIR DIRECTION button or LOUVER button to make sure that air direction is adjustable(horizontal, downward, upward, and each angle). 7 Check outdoor fans for normal operation. 8 Check interlocked devices (like ventilator) for normal operation, if any. This is the end of test run operation. 9 Press ON/OFF button to stop and cancel test run.

NOTE 1 : If error code appears on remote controller or remote controller malfunction , refer to “ 9-1-3. Countermeasures for Error During Run”. NOTE 2 : During test run operation 2-hours off timer activates automatically and remaining time is on remote controller and test run stops 2-hours

later. NOTE 3 : During test run, the indoor liquid pipe temperature is displayed on remote controller instead of room temperature. NOTE 4 : Depend on a model, “This function is not available” appears when air direction button is pressed. However, this is not malfunction.

9-1-2. Special Function Operation and Settings (for M-NET Remote Controller)

The addresses of indoor unit and linked units are displayed simultaneously.

(alternating display)

These alternating IC or LC displays will appear when entry is completed normally.

A flashing “88” will appear if there is a problem with the entry (indicating that the unit does not exist).

• It is necessary to perform “group settings” and “paired settings” at making group settings of different refrigerant systems (multiple outdoor unit). (A) Group settings: Enter the indoor unit controlled by the remote controller, check the content of entries, and clear

entries, etc.

(B) Paired settings: Used to set the linked operation of a Lossnay unit.

(1) Entering address: Follow the steps below to enter the addresses of the indoor unit using the remote controller.

a) Group settings

• Turning off the remote controller: Press the ON/OFF button to stop operation (the indicator light will go off).

• Changing to indoor unit address display mode: If the FILTER and k buttons on the remote controller are

pressed simultaneously and held for 2 seconds, the display shown in Figure 1 will appear.

• Changing address: Press the temperature adjustment buttons to change the displayed address to the address to be entered.

• Entering the displayed address: Press the TEST RUN button to enter the indoor unit with the displayed address. The type of the unit will be displayed as shown in Figure 2 if entry is completed normally. If a selected indoor unit does not exist, an error signal will be displayed as shown in Figure 3. When this happens, check whether the indoor unit actually exists and performs entry again.

• Returning to the normal mode after completing entry: Press the FILTER and k buttons simultaneously and hold for 2 seconds to return to the normal mode.

Figure 1 (A) Group setting display

b) Paired Settings

• Turn off the remote controller: Press the remote controller’s ON/OFF button to turn it off (the indicator light will go off).

• Put in indoor unit address display mode: Press the FILTER and k buttons on the remote controller simultaneously and hold for 2 seconds.

✻The above steps are the same as a) Group settings.

• Changing to the linked operation unit address display state: The display shown in Figure 4 will appear when the button on the remote controller is pressed.

• Displaying the address of the Lossnay unit and linked indoor unit: In this situation, the indoor unit number will be the lowest address of the group. The Lossnay unit will not operate if this setting is

incorrect.

✻If the temperature adjustment buttons are pressed, the address may be changed to the indoor units that are

to be linked.

✻If the time setting buttons are pressed, the address of the linked units may be changed to the address where

it is desired to enter the Lossnay .

• Linking the Lossnay and the indoor unit: The display shown in Figure 5 will appear when the TEST RUN button is pressed. The indoor unit whose address is displayed and the Lossnay unit with a linked address will operate in a linked manner.

✻If it is desired to display the address of the Lossnay in the indoor unit address, display the indoor

unit address in the linked unit address, and the above content will also be recorded.

✻ Apart from the indoor unit with the lowest address in the group, display and enter the addresses of the other indoor unit

that are to be linked with the Lossnay unit.

• Returning to the normal mode after completing entry: Press the FILTER and k buttons on the remote controller simultaneously and hold for 2 seconds to return to the normal mode.

Figure 2 Normal completion of entry

Figure 3 Entry error signal

Flashing “88” indicates entry errorType of unit is displayed

Figure 4 (B) Making paired settings

Figure 5 Completing normal entry

(2) Address check: Refer to section (1) regarding address entry.

"88" will appear in the room temperature display location.

"--" will appear in the room temperature display location.

a) In making group settings:

• Turn off the remote controller: Press the remote controller's ON/OFF button to stop operation (the indicator light will go off).

• Locate the indoor unit address display mode: Press the FILTER and k buttons on the remote controller simultaneously and hold for 2 seconds.

• Display indoor unit address: The entered indoor units address and type will be displayed each time the button is pressed.

✻ When one entry is made, only 1 address will be displayed no matter how many times the w button is pressed.

• Returning to the normal mode after completing check: Simultaneously press the FILTER and k buttons on the remote controller and hold for 2 seconds to return to the normal mode.

b) In making paired settings:

• Turn off the remote controller: Press the remote controller's ON/OFF button to stop operation (the indicator light will go off).

• Put into indoor unit address display mode: Press the FILTER and k buttons on the remote controller simultaneously and hold for two seconds.

• Changing to the linked operation unit address display state: Press the a button on the remote control.

• Displaying the address of the indoor unit to be checked: Change the address to that of the indoor unit to be checked by pressing the temperature adjustment buttons .

• Displaying the address of the linked Lossnay unit: Press the w button to display the addresses of the linked Lossnay and indoor unit in alternation.

• Displaying the addresses of other entered units: The addresses of the other entered units will be displayed in alternating blinking after resting the w button again.

• Returning to the normal mode after completing the check: Simultaneously press the FILTER and k buttons on the remote controller and hold for 2 seconds to return to the normal mode.

(3) Clearing an address: Refer to section (1) regarding the address entry and section (2) regarding checking addresses.

a) In making group settings:

• Turn off the remote controller: The procedure is same as a) in (2) Address check.

• Put into the indoor unit address display mode: The procedure is same as a) in (2) Address check.

• Displaying the indoor unit address to be cleared: The procedure is same as a) in (2) Address check.

• Clearing indoor unit address : ......Pressing the q button on the remote controller twice will clear the address entry of the

displayed indoor unit, resulting in the display shown in Figure 6. The display shown in Figure 7 will appear if an abnormality occurs and the entry is not cleared. Please repeat the clearing procedure.

• Returning to the normal mode after clearing an address: The procedure is same as a) in (2) Address check.

Figure 6 Display after address has been

cleared normally

Figure 7 Display when an abnormality

has occurred during clearing

b) In making paired settings:

• Turn off the remote controller: The procedure is same as b) in (2) Address check.

• Put into the indoor unit address display mode: The procedure is same as b) in (2) Address check.

• Put into the linked unit address display mode: The procedure is same as b) in (2) Address check.

• Display the address of the Lossnay unit or the indoor unit to be cleared.

• Deleting the address of a linked indoor unit: Pressing the q button on the remote controller twice will clear the address entry of the displayed indoor unit, resulting in the display shown in Figure 8.

• Returning to the normal mode after clearing an address: The procedure is same as b) in (2) Address check.

Figure 8 Display after address has been cleared normally

"--" will appear in the unit type display location when an address has

(alternating display)

been cleared normally. "88" will appear in the unit type display location when an abnormality

has occurred during clearing.

9-1-3. Countermeasures for Error During Test Run

Check code

1102

1302 1500 1501 1505

2502

2500

2503

4115 4220 4230 4250

5101

5102 5103

5105 5106 5110 5201

6600 6602 6603 6606

6607 6608

6831

6832 6833 6834 7100

7101 7102 7105 7111

Piping temperature sensor trouble (TH3) Outdoor temperature sensor trouble (TH7) Heatsink temperature sensor trouble (TH8) Pressure sensor trouble (63HS) Current sensor trouble Duplicated unit address setting Transmission error

(Transmission processor hardware error)

Transmission error (Transmission route BUSY) Transmission and reception error (Communication trouble with transmission processor)

Transmission and reception error (No ACK error) Transmission and reception error

(No responsive frame error) MA communication receive signal error (no receive signal)

MA communication send signal error (starting bit derection error)

MA communication send error (H/W error) MA communication receive error (Synchronous recovery error) Total capacity error

Capacity code error Connecting unit number error

Address set error Remote controller sensor trouble

Check delay code 1202

Check delay code 1402 Check delay code 1600 Check delay code 1601

Check delay code 4165 Check delay code 4320 Check delay code 4330 Check delay code 4350

Check delay code 1202

Check delay code 1211

Check delay code 1205 Check delay code 1221 Check delay code 1214 Check delay code 1402

Only M-NET Remote controller is detected. Only M-NET Remote controller is detected.

Only M-NET Remote controller is detected. Only M-NET Remote controller is detected. Only M-NET Remote controller is detected. w Only M-NET Remote controller is detected. w

Only MA Remote controller is detected.

Only MA Remote controller is detected. Only MA Remote controller is detected. Only MA Remote controller is detected.

0403

Serial transmission trouble Discharge temperature trouble

Low Pressure trouble High pressure trouble Excessive refrigerant replenishment Insufficient refrigerant trouble Vacuum operation protection Water leakage Drain pump trouble Drain sensor trouble (THd) Overcurrent trouble (Overload, compressor lock) Power synchronization signal trouble Inverter trouble Overheat protection of radiator panel Power module trouble or Overcurrent trouble Fan controller trouble (Outdoor) Air inlet sensor trouble (TH21) or Discharge temperature sensor trouble (TH4) Liquid pipe temp.sensor trouble (TH22) or Low pressure saturated temp.sensor trouble (TH6) Gas pipe temperature sensor trouble (TH23)

Outdoor unit Multi controller board ~ Power board communication trouble

1300

Check delay code 1400

4100

Check delay code 4350

4400

Check delay code 4500

5300

Check delay code 4310

Trouble

Remarks

Detected unit

Indoor

Outdoor

Remote controller

12345678

[Example] When the compressor and SV1 are turned during cooling operation.

Bit

Indication

Compressor operated

52C

21S4

SV15(SV2)

—

—8Always lit

Self-diagnosis function The indoor and outdoor units can be diagnosed automatically using the self-diagnosis switch (SW1) and LED1, LED2 (LED indication) found on the multi-controller of the outdoor unit. LED indication : Set all contacts of SW1 to OFF.

During normal operation

The LED indicates the drive state of the controller in the outdoor unit.

• If a problem occurs during test run, a code number will appear in the temperature display area on the remote controller (or LED on the outdoor unit), and the air conditioning system will automatically cease operating.

Determine the nature of the abnormality and apply corrective measures.

NOTE )

When the outdoor unit detects No ACK error/ No responsive frame error, an object indoor unit is treated as a stop, and not assumed to be abnormal.

Display

Abnormal point and detecting method

Causes

Check points

1102

1300

1302

1500

High discharging temperature

Abnormal if discharge temperature thermistor (TH4) exceeds 125: or 110: continuously for 5 minutes. Abnormal if pressure detected by high pressure sensor and converted to saturation temperature exceeds 40: during defrosting and discharge temperature thermistor (TH4) exceeds 110:.

Low pressure (63L worked)

Abnormal if 63L is worked (under- 0.03MPa)

during compressor operation.

63L: Low-pressure switch

(1) High pressure (High-pressure switch

63H worked)

Abnormal if high-pressure switch 63H is

worked

( w ) during compressor operation. w 4.15 MPa

63H: High-pressure switch

(2) High pressure

(High - pressure sensor 63HS detect) Abnormal if high-pressure sensor detects

4.31MPa or more (or over 4.15MPa for 3 minutes) during the compressor operation.

Too low superheat due to low discharge

temperature

Abnormal if discharge super heat is

continuously detected less than or equal to

-15:

even though linear expansion valve has minimum open pulse after compressor starts operating for 10 minutes.

1 Over-heated compressor operation is caused by shortage of refrigerant

2 Defective operation of stop valve 3 Defective thermistor 4 Defective outdoor controller board 5 Defective action of linear expansion

valve

1 Stop valve of outdoor unit is closed during operation. 2 Disconnection or loose connection of connector (63L) on outdoor controller board 3

Disconnection or loose connection of 63L

4 Defective outdoor controller board 5 Leakage or shortage of refrigerant 6 Malfunction of linear expansion valve 1 Short cycle of indoor unit 2 Clogged filter of indoor unit 3 Decreased airflow caused by dirt of

indoor fan

4 Dirt of indoor heat exchanger 5 Locked indoor fan motor 6 Malfunction of indoor fan motor 7 Defective operation of stop valve

(Not full open)

8 Clogged or broken pipe 9 Locked outdoor fan motor

0 Malfunction of outdoor fan motor 1 Short cycle of outdoor unit 2 Dirt of outdoor heat exchanger 3 Decreased airflow caused by defective

inspection of outside temperature thermistor (It detects lower temperature than actual temperature.) 4 Disconnection or contact failure of connector (63H) on outdoor controller board 5 Disconnection or contact failure of 63H connection

6 Defective outdoor controller board 7 Defective action of linear expansion

valve

8 Malfunction of fan driving circuit 9 Solenoid valve (SV1) performance

failure (High-pressure cannot be controlled by SV1) )

High-pressure sensor defective ! High-pressure sensor input circuit defective in multi controller board.

1 Disconnection or loose connection of discharge temperature thermistor. (TH4) 2

Defective holder of discharge temperature thermistor.

1 Check intake super heat.

Check leakage of refrigerant. Charge additional refrigerant.

2 Check if stop valve is full open. 34 Turn off and check if 5101 is

displayed when the power is put again. When 5101 is displayed, refer to “Check points” for 5101.

5 Check linear expansion valve. 1 Check stop valve.

2~4

Check the connector (63L) on outdoor

controller board.

5 Correct to proper amount of refrigerant. 6 Check linear expansion valve. 1~6 Check indoor unit and repair

defectives.

7 Check if stop valve is full open. 8 Check piping and repair defectives.

9~2 Check outdoor unit and repair

defectives.

3 Check the inspected temperature of outside temperature thermistor on LED display.

4~6

Check the connector (63H) on outdoor

controller board.

7 Check linear expansion valve. 8 Replace outdoor controller board.

9 Check the solenoid valve performance.

)

Check the high-pressure sensor.

12 Check the installation conditions of discharge temperature thermistor (TH4).

Display

Abnormal point and detecting method

Causes

Check points

Refrigerant shortage

When the conditions of below detecting mode 1 or 2 are satisfied during the compressor operation. <Detecting mode 1> When the below conditions are satisfied completely.

1. Compressor is operating in HEAT mode.

2. Discharge super heat is 80; or more.

3. Difference of outer temperature thermistor (TH7) and outdoor piping temp. thermistor (TH3) applies to the formula of (TH7-TH3)<5;.

4. High-pressure sensor is below about

2.04MPa. <Detecting mode 2> When the below conditions are satisfied completely.

1. Compressor is operating.

2. When cooling, discharge super heat is 80; or more. When heating, discharge super heat is 90; or more. High pressure sensor is below about 2.32MPa.

1 Gas leakage, Gas shortage 2 When heating operation, scant

refrigerant operation (When heating, air flow or thermo OFF are mixedoperation, it cause a refrigerant

shortage operation.) 3 Ball valve performance failure (not full opened.) 4 Error detection of discharge super heat

1) High-pressure sensor defective

2) Discharge temperature thermistor

defective

3) Thermistor input circuit defective and high-pressure sensor defective in

multi controller board

5 Error detection of TH7/TH3

1) Thermistor defective

2) Thermistor input circuit defective in multi controller board

1 Check the refrigerant amount. 2 Check the operation condition and

refrigerant amount.

3 Check the ball valve is full opened. 4

1) Check the ball valve is full opened.

2) Check the resistance of discharge temperature thermistor.

3) According to “Outdoor unit functions”, set the SW2 and check the high- pressure sensor level.

According to “Outdoor unit functions”,

check the discharge temp. thermistor level. When the high-pressure sensor and discharge temp. thermistor are normal if the above mentioned detecting pressure level and temp. are big different from the actual pressure and

temp. replace the multi controller board.

1) Check the resistance of thermistor.

2) According to “Outdoor unit functions”, check the outdoor pipe temp. thermistor level.

3) According to “Outdoor unit functions”, check the outer temp. thermistor level.

1501

Water leakage

1. Suspensive abnormality when float switch detects to be in the water and drain pump turns on and off except during cooling or dry mode.

2. Abnormal when detecting that the drain pump turns on and off again within 1 hour after the detection of water leakage suspensive abnormality, and repeats the detection twice. <2500> is displayed.

3. The unit continues to detect abnormality while turned off.

4. To release water leakage suspensive abnormality

· When not detecting that the drain pump

turns off and on within 1 hour after detecting suspensive abnormality.

· When turning to cooling operation or dry

operation.

· Detected that [liquid pipe temperature –

room temperature][ -10deg[-18°F]

2500

(Float

switch

model)

1 Check the drain function.

2 Check moving part of float switch.

3 Check the value of resistance with the

float switch ON/OFF.

1 Defective drain

Clogged drain pump Clogged drain pipe Adverse flow of drain in other units

2 Defective moving part of float switch

Foreign matter on the moving part of float switch(ex. sludge etc.)

3 Defective float switch

Operation mode: When drain pump turns on as float switch detects to be in the water except during cooling/dry mode

6 min.6 min.

15 sec.

In the water Water leakage suspensive abnormality

In the water Water leakage abnormality

In the air In the water In the air

15 sec.

Within 1 hour Within 1 hour

15 sec. 15 sec.

15 sec.

ON OFF

Drain pump

Float switch

ON OFF

Display

2502

(Drain sensor model)

Abnormal point and detecting method

Drain pump (DP)

1 Let drain sensor self-heated, and if

temperature rises slightly, as suspensive abnormality operation stops and changes to protect mode of restarting in 3 minutes.

2 Drain pump is abnormal if the condition

above is detected during suspensive abnormality. <2502> is displayed.

3 Malfunction of drain pipe is constantly

detected during drain pump operation.

1 Malfunction of drain pump 2 Defective drain

Clogged drain pump Clogged drain pipe

Water drops on drain sensor

• Drops of drain trickles from lead wire.

• Clogged filter is causing wave of drain. 4 Defective indoor controller board

Causes

Check points

1 Check if drain-up machine works. 2 Check drain function.

3 Check the setting of lead wire of drain

sensor and check clogs of the filter. 4 Replace indoor controller board when

there is no problem in the above mentioned 1~3.

4 The unit enters to forced outdoor unit stop

when following conditions, a) and b), are satisfied (while the above mentioned detection is performed). a) The drain sensor detects to be

soaked in the water 10 times in a row.

b) Detected that

[liquid pipe temperature – room temperature][ -10deg[-18°F] for 30 minutes constantly.

When the drain sensor detects to be

NOT soaked in the water, the

()

record of a) and b) will becleared.)

w Drain pump abnormality (above 1~3) is

detected before it becomes an outdoor unit forced stop condition.

5 When indoor unit detects above 4 condition,

outdoor unit in same refrigerant sytem stops. Also, indoor unit except for Fan or OFF mode unit stop. <2502> is displayed on stopped unit.

6 Detection timing of forced outdoor unit stop

Constantly detected during unit operation and stop

7 Releasing of forced outdoor unit stop

Reset power supply of both abnormal indoor unit and its outdoor unit in same refrigerant system. Forced outdoor unit stop cannot be released by remote controller OFF.

NOTE ) Above-mentioned 1~3 and 4~7 are detected independently.

detection

5 Both of above mentioned 1~4 and the

indoor linear expansion valve full-closed failure (leakage) happens synchronistically.

(Note) Address/Attribute displayed on the remote controller shows the indoor unit which is cause of trouble.

Check whether the indoor linear expansion valve leaks or not.

Display

2502

(Float

switch

model)

Abnormal point and detecting method

Drain pump (DP)

1 Judge whether the sensor is in the water or

in the air by turning the float switch ON/OFF. In the water: Detected that the float switch is ON for 15 seconds. In the air:Detected that the float switch is OFF for 15 seconds.

2 When the float switch remains to be turned

ON for 3 minutes after detected to be in the water, the drain pump is judged to be abnormal and <2502> will be displayed.

*It takes 3 minutes and 15 seconds to detect

abnormality including the time to judge to be in the water.

3 The unit continue to detect abnormality

while turned off.

4 When the conditions below 1, 2 and forced

outdoor unit stop condition are met

1. Detected that [liquid pipe temperature – room temperature][ -10deg[-18°F] for 30 minutes constantly.

2. Float switch detects to be in the water for 15 minutes constantly.

*Before forced outdoor unit stop condition is met, the unit always detects 1-3 above.

5 The indoor unit detecting 4 above stops

due to detecting abnormality the outdoor unit in same refrigerant system (compressor is inhibited to operate). The unit which stops due to detecting abnormality displays <2502>.

6 Detection timing of forced outdoor unit stop

Constantly detected during unit operation and stop

7 Releasing of forced outdoor unit stop

Reset power supply of both abnormal indoor unit and its outdoor unit in same refrigerant system. Forced outdoor unit stop cannot be released by remote controller OFF.

NOTE ) Above-mentioned 1~3 and 4~7 are detected independently.

Causes

1 Malfunction of drain pump 2 Defective drain

Clogged drain pump Clogged drain pipe

3 Defective moving part of float switch

Foreign matter on the moving part of float switch(ex. sludge etc.)

4 Defective float switch 5 Defective indoor controller board

Defective driving circuit of drain pump Defective input circuit of float switch

6 Both of above mentioned 1~5 and the

indoor linear expansion valve full-closed failure (leakage) happens synchronistically.

(Note) Address/Attribute displayed on the remote controller shows the indoor unit which is cause of trouble.

Check points

1 Check if drain-up machine works. 2 Check drain function.

3 Check moving part of float switch.

4 Check the value of resistance with the

float switch ON/OFF.

5 Change the indoor controller board.

6 Check whether the indoor linear

expansion valve leaks or not.

Drain sensor (THd, DS)

2503

When the drain sensor detects short/open

while the operation.

4100

Compressor overcurrent interruption

(When compressor locked)

Abnormal if overcurrent of DC bus or compressor is detected within 30 seconds

after compressor starts operating.

Over current : 27.5A

1 Connector (CN31) contact failure (insertion failure)

2 Thermistor wiring disconnection or half disconnection

3 Thermistor defective 4 Indoor controller board (detecting circuit)

failure

1 Stop valve is closed. 2 Decrease of power supply voltage 3

Looseness, disconnection or converse of

compressor wiring connection

4 Defective compressor 5 Defective outdoor power board

Check whether the indoor controller board connector (CN31) is disconnected or not.

Check whether the thermistor wiring is

disconnected or not.

Check the resistance of thermistor.

If abnormality is not found in the method of the above-mentioned from 1 to 3, it is defective of the indoor controller board.

1 Open stop valve. 2 Check facility of power supply. 3 Correct the wiring (U·V·W phase) to

compressor.

4 Check compressor. 5 Replace outdoor power circuit board.

Display

4220

Abnormal point and detecting method

Overvoltage or voltage shortage

Abnormal if any of followings are detected

during compressor operation;

• Decrease of DC bus voltage to 310V

• Instantaneous decrease of DC bus voltage to 200V.

• Increase of DC bus voltage to 400V.

• Decrease of input current of outdoor unit to

0.1A only if operation frequency is more than or equal to 40Hz or compressor current is more than or equal to 6A.

1 Decrease of power supply voltage 2 Disconnection of compressor wiring 3 Defective 52C

4 Defective ACT module 5 Disconnection or loose connection of

CN5 on the outdoor power circuit board 6 Defective 52C drive circuit of outdoor power circuit board 7 Disconnection or loose connection of CN2 on the outdoor power circuit board 8 Defective ACT module drive circuit of outdoor controller circuit board 9

Disconnection or loose connection of CNAF

Causes

Check points

1 Check the facility of power supply. 2 Correct the wiring (U·V·W phase) to

compressor. (Outdoor power circuit board).

3 VHM:Replace 52C.

VHMA:Replace noise filter circuit board

4 Replace ACT module. 5 Check CN5 wiring on the outdoor power

6 Replace outdoor power circuit board. 7 Check CN2 wiring on the outdoor power 8 Replace outdoor power circuit board.

9 Check CNAF wiring.

(Including 52C).

circuit board.

The 4220 error history can be confirmed

with SW1 No.189.

21345678

Temperature of heatsink

4230

Abnormal if heatsink thermistor (TH8) detects

85:

4250

(1) Power module

Check abnormality by driving power module in

case over current is detected.

(2) Compressor overcurrent interruption

Abnormal if overcurrent DC bus or compressor is detected after compressor starts operating for 30 seconds.

Over current : 27.5A

1 The outdoor fan motor is locked. 2 Failure of outdoor fan motor 3 Air flow path is clogged. 4 Rise of ambient temperature

5 Defective thermistor 6 Defective input circuit of outdoor power

circuit board

7 Failure of outdoor fan drive circuit 1 Outdoor stop valve is closed.

2 Decrease of power supply voltage 3 Looseness, disconnection or converse

of compressor wiring connection

4 Defective compressor 5 Defective outdoor power circuit board

1 Stop valve of outdoor unit is closed. 2 Decrease of power supply voltage 3 Looseness, disconnection or converse

of compressor wiring connection

4 Defective fan of indoor/outdoor units 5 Short cycle of indoor/outdoor units 6 Defective input circuit of outdoor

controller board

12 Check outdoor fan. 3 Check air flow path for cooling.

4 Check if there is something which

causes temperature rise around outdoor unit.

(Upper limit of ambient temperature is 46:.) Turn off power, and on again to check if 4230 is displayed within 30 minutes. 5 Check thermistor <TH8> temperature by micro computer.

6 Replace outdoor power circuit board. 7 Replace outdoor controller circuit board. 1 Open stop valve.

2 Check facility of power supply. 3 Correct the wiring (U·V·W phase) to

compressor. (Outdoor power circuit board).

4 Check compressor. 5 Replace outdoor power circuit board.

1 Open stop valve. 2 Check facility of power supply. 3 Correct the wiring (U·V·W phase) to

compressor. (Outdoor power circuit board).

4 Check indoor/outdoor fan. 5 Solve short cycle. 6 Replace outdoor controller circuit board.

Outdoor fan motor

4400

The outdoor fan motor is considered to be abnormal if the rotational frequency of fan motor is abnormal when detected during operation. Fan motor rotational frequency is abnormal if;

• 100 rpm or below detected continuously for 15 seconds at 20: or more outside air temperature

• 50 rpm or below or 1500 rpm or more detected continuously for 1 minute.

7 Defective compressor

Failure in the operation of the DC fan motor

Failure in the outdoor circuit controller board

7 Check compressor.

W Before the replacement of the outdoor controller circuit board, disconnect the wiring to compressor from the outdoor

power circuit board and check the output

voltage among phases, U, V, W, during

test run (SW7-1 ON). No defect on board if voltage among phases (U-V, V-W and W-U) is same. Make sure to perform the voltage check with same performing frequency.

1 Check or replace the DC fan motor.

2 Check the voltage of the outdoor circuit

controller board during operation.

3 Replace the outdoor circuit controller board. (when the failure is still indicated

even after performing the check points 1

above.)

Display

5101

Abnormal point and detecting method

Room temperature thermistor (TH21)

When controller detects short (high temp.)/open (low temp.) in thermistor during the operation, the operation stops and the operation changes to protect mode of restarting in 3 minutes. If the thermistor does not recover in 3 minutes, the operation stops due to detecting abnormality. In this time, <5101> is displayed. Then, if the thermistor recover in 3 minutes, it operates normally.

Short: Detected 90; or more Open: Detected –40; or less

Discharge temperature thermistor (TH4)

Causes

1 Connector (CN20) contact failure Check whether the connector

2 Thermistor wiring disconnection or

half disconnection

3 Thermistor failure Check the resistance of thermistor.

4 Detecting circuit failure in the

indoor controller board

(CN20) in the indoor controller board is connected or not.

Check whether the thermistor wiring is disconnected or not.

0;···15k' 10;···9.6k' 20;···6.3k' 30;···4.3k' 40;···3.0k'

When there is no problem in above

mentioned 123, replace the indoor controller board.

Check points

When controller detects short/open in thermistor during the operation, the outdoor unit stops once and restarts operation in 3 minutes. When the detected temperature is normal at just before of restarting, the outdoor unit restarts.

When controller detects short/open in thermistor at just before of restarting, the unit stops due to detecting abnormality. In this time, <5101> is displayed.

For 10 minutes after starting compressor,

for defrosting or for 3 minutes after recover of defrosting, above-mentioned short/open are not detected.

Short: 216;or more (1k') Open: 0; or less (700k')

Note) When outdoor temperature thermistor (TH7) is 5; or less on cooling, open detecting is not determined as abnormality.

1 Connector (TH4) contact failure Check whether the connector (TH4)

2 Thermistor wiring disconnection or

half disconnection

3 Thermistor failure Check the resistance of thermistor.

4 Multi controller board input circuit

failure

in the multi controller board is connected or not.

Check whether the thermistor wiring is disconnected or not.

When the resistance is not below value, replace the thermistor. 0;··· about 700k' 10;··· about 410k' 20;··· about 250k' 30;··· about 160k' 40;··· about 104k'

Set the SW1 to

When the temperature in multi controller board is not an actual temperature, replace the multi controller board.

1.3: Open

219.4: Short

21345678

Display

5102

Abnormal point and detecting method

Liquid pipe temperature thermistor (TH22)

When the thermistor detects short/open during the operation, the operation stops and the operation changes to protect mode of restarting in 3 minutes. If the thermistor does not recover in 3 minutes, the operation stops due to detecting abnormality. In this time, <5102> is displayed. Then, if the thermistor recover

in 3 minutes, it operates normally. Short: Detected 90; or more Open: Detected -40; or less

Causes

1) Connector (CN21) contact failure Check whether the connector

2) Thermistor wiring disconnection or half disconnection

3) Thermistor failure

(CN21) in the indoor controller board is connected or not.

Check whether the thermistor wiring is disconnected or not.

Check the resistance of thermistor.

0;····15k' 10;···9.6k' 20;···6.3k' 30;···4.3k' 40;···3.0k'

Check points

Low pressure saturation temperature thermistor (TH6)

When controller detects short/open in thermistor at just before of restarting, the unit stops due to detecting abnormality. In this time, <5102> is displayed.

For 10 minutes after starting compressor in

heating mode, above-mentioned short/open are not detected.

Short: 90; or more Open: -40; or less

4) Detecting circuit failure in the indoor controller board

1) Connector (TH6) contact failure Check whether the connector (TH6)

2) Thermistor wiring disconnection or half disconnection

3) Thermistor failure Check the resistance of thermistor.

4) Multi controller board input circuit failure

When there is no problem in above

mentioned 123, replace the indoor controller board.

in the multi controller board is connected or not.

Check whether the thermistor wiring is disconnected or not.

0;····15k' 10;···9.6k' 20;···6.3k' 30;···4.3k' 40;···3.0k'

21345678

Set the SW1 to When the temperature in multi

controller board is not an actual temperature, replace the multi controller board.

-42.5: Open

91.9: Short

Display

5103 Gas pipe temperature thermistor (TH23)

Abnormal point and detecting method

Causes

Check points

5105

When the thermistor detects short/open after 3 minutes-continuous thermo ON during cooling or dry operation, the operation stops and the operation changes to protect mode of restarting in 3 minutes. If the thermistor does not recover in 3 minutes, the operation stops due to detecting abnormality. In this time, <5103> is displayed. Then, if the thermistor recover in 3 minutes, it operates normally.

Short: Detected 90; or more

Open: Detected -40; or less

Pipe temperature / judging defrost thermistor (TH3)

When controller detects short/open in thermistor at just before of restarting, the unit stops due to detecting abnormality. In this time, <5105> is displayed.

For 10 minutes after starting compressor, for defrosting or for 3 minutes after recover of defrosting, above-mentioned short/open are not detected.

Short: 88; or more (0.4k')

Open: -39; or less (115k')

1) Connector (CN29) contact failure Check whether the connector (CN29)

2) Thermistor wiring disconnection or half disconnection

3) Thermistor failure Check the resistance of thermistor.

4) Detecting circuit failure in the indoor controller board

1) Connector (TH3) contact failure Check whether the connector (TH3)

2) Thermistor wiring disconnection or half disconnection

3) Thermistor failure Check the resistance of thermistor.

in the indoor controller board is connected or not.

Check whether the thermistor wiring is disconnected or not.

0;····15k' 10;···9.6k' 20;···6.3k' 30;···4.3k' 40;···3.0k'

When there is no problem in above mentioned 123, replace the indoor controller board.

in the multi controller board is connected or not.

Check whether the thermistor wiring is disconnected or not.

When the resistance is not below value, replace the thermistor.

0;····15k'

10;···9.6k' 20;···6.3k' 30;···4.3k' 40;···3.0k'

4) Multi controller board input circuit failure

21345678

Set the SW1 to

When the temperature in multi controller board is not an actual temperature, replace the multi controller board.

-42.5: Open

91.9: Short

Display

5106

Abnormal point and detecting method

Outdoor temperature thermistor (TH7)

When controller detects short/open in thermistor at just before of restarting, the unit stops due to detecting abnormality. In this time, <5106> is displayed.

For 10 minutes after starting compressor, for defrosting or for 3 minutes after recover of defrosting, above-mentioned short/open are not detected.

Short: 90; or more Open: -40; or less

5110 Heatsink temperature thermistor (TH8)

(internal thermistor of power module)

Causes

1) Connector (TH7) contact failure Check whether the connector (TH7)

Check points

in the multi controller board is connected or not.

2) Thermistor wiring disconnection or half disconnection

3) Thermistor failure Check the resistance of thermistor.

Check whether the thermistor wiring is disconnected or not.

When the resistance is not below value, replace the thermistor.

0;····15k' 10;···9.6k' 20;···6.3k' 30;···4.3k' 40;···3.0k'

21345678

4) Multi controller board input circuit failure

Set the SW1 to When the temperature in multi

controller board is not an actual temperature, replace the multi controller board.

-42.5: Open

91.9: Short

1) Connector (TH8) contact failure

Check whether the connector (TH8) in the power circuit board.

When controller detects short/open in

thermistor during the operation, the outdoor unit stops once and restarts operation in 3 minutes. When the detected temperature is normal at just before of restarting, the outdoor unit restarts.

When controller detects short/open in thermistor at just before of restarting, the unit stops due to detecting abnormality. In this time, <5110> is displayed.

For 10 minutes after starting compressor, for defrosting or for 3 minutes after recover of defrosting, above-mentioned short/open are not detected.

Short:102; or more Open: -27; or less

2) Thermistor wiring disconnection or half disconnection

3) Thermistor failure

4) Power board input circuit failure

Check whether the thermistor wiring is disconnected or not.

Check the resistance of thermistor.

When the resistance is not below value, replace the thermistor.

0; ·····180k' 10; ·····105k' 20; ·······63k'

30; ·······39k' 40; ·······25k'

21345678

Set the SW1 to

When the temperature in multi controller board is not an actual temperature, replace the power board.

-81.0: Open

999.9: Short

Display

5201

Abnormal point and detecting method

Pressure sensor (63HS)

When detected pressure in high-pressure sensor is 1 MPa or less during the operation, the compressor stops and restarts operation in 3 minutes.

When the detected pressure is 1 MPa or less at just before of restarting, the compressor stops due to detecting abnormality. In this time, <5201> is displayed.

For 3 minutes after starting compressor, for defrosting, or for 3 minutes after recover of defrosting, abnormality is not detected as abnormality.

Causes

1) High-pressure sensor failure Check the high-pressure sensor.

2) Internal pressure decreases by gas leakage

3) Connector contact failure or disconnection

Check the internal pressure.

Check the high-pressure sensor.

Check points

Current sensor error

5300

Abnormal if current sensor detects –1.5A to

1.5A during compressor operation. (This error is ignored in case of SW7-1 ON.)

6600 Duplex address error

Detected error when transmission of unit with the same address is confirmed.

Note) Address/Attribute displayed on the remote controller shows the controller detecting abnormality.

6602 Transmission processor H/W error

'' 1 '' is shown on the transmission line though the transmission processor transmitted '' 0''.

Note) Address/Attribute displayed on the remote controller shows the controller detecting abnormality.

4) Multi controller board input circuit failure

1) Disconnection of compressor wiring

2) Defective circuit of current sensor on outdoor power circuit board

1) There are 2 units or more with the same address among the outdoor unit or indoor unit or lossnay controller, remote controller.

2) When noise has occurred in the transmission signal, and the signal has changed.

1) When the wiring for either of the indoor unit, the outdoor unit or lossnay transmission line is constructed or polarity is changed with the power supply turned on, the transmission waves change in case that the transmission data collides mutually. It causes to detect error.

2) Transmission processor circuit failure

3) When the transmission data has changed by the noise.

Check the high-pressure sensor.

1 Correct the wiring (U·V·W phase) to

compressor. (Outdoor power circuit board). 2 Replace outdoor power circuit board.

Look for the unit, which is source of

abnormality with the same address. When the same address is found, correct the address and turn off power supply of outdoor unit, indoor unit, and lossnay for 2 minutes or more as the same time. Then, turn on power supply.

Check the transmitted wave and the

noise on the transmission line.

When the transmission line is constructed with the current flowed, turn off power supply of outdoor unit, indoor unit and lossnay for 2 minutes or more as the same time. Then, turn on power supply.

Check the transmitted wave and the noise on the transmission line.

Display

6603 Transmission bus busy error

Abnormal point and detecting method

Over error by collision 1) The transmission processor cannot

Abnormality when the state, which cannot be transmitted by collision of transmission, is consecutive for 8 to 10 minutes.

Causes

be transmitted since a short cycle voltage of the noise etc. mixes on the transmission line consecutively.

Check points

Check whether the transmission line of the indoor unit, fresh master, lossnay and remote controller is connected to the outdoor unit terminal board (TB7) for centralized controller or not.

6606

The state that data cannot to be output to the transmission line by noise for 8 to 10 minutes consecutively.

Note) Address/Attribute displayed on the remote controller shows the controller detecting abnormality.

Signal communication error with transmission processor

Signal communication error between unit processor and transmission processor

Note) Address/Attribute displayed on the remote controller shows the controller detecting abnormality.

2) The transmission volume increases and cannot be transmitted since the wiring method is mistaken and the routing technique to the terminal board (TB3) for the transmission line of the outdoor unit and the terminal board (TB7) for centralized control cannot be transmitted.

3) The share becomes high since the data exists together to other transmitted data by a defective repeater (function which connects and intercepts the transmission of controlling system and centralized control system), and it causes abnormal detection.

1) Tha data of the unit/transmission processor was not normally transmitted due to accidental disturbance such as noise and lightening surge.

2) The address transmission from the unit processor was not normally transmitted by the hardware of transmission processor defective.

Check whether the transmission line with the other refrigerant system of the indoor unit and lossnay is connected to the outdoor unit terminal board (TB3) for transmission or not.

Check whether the outdoor unit

terminal board for transmission line

(TB3) and for centralized controller

(TB7) are connected or not.

Check the transmitted wave and the

noise on the transmission line.

Turn off power supply of outdoor unit, indoor unit, and lossnay for 2minutes or more at the same time. Then, turn on power supply. It normally recovers from the malfunction that happens by chance. When same abnormality occurs again, it is defective of the controller.

From the preceding page.

Display

6607

Abnormal point and detecting method

No ACK (Acknowledgement)

Abnormality which controller of the

sending side detects when there is no answer (ACK) from other side though data was transmitted once. It is detected 6 times every 30 seconds continuously.

Note) Address/Attribute displayed on the remote controller shows the controller, which did not send back replay (ACK).

Causes

Factor that not related to origin

1) Since the address switch was changed with the passed current, the

unit in the last address does not exist.

Decline of transmission voltage and signal by transmission cable tolerance over

· The furthest point···200m

· Remote controller cable···(12m) (Refer to 8-3.)

Decline of transmission cable voltage

and signal by unmatched kind of cable.

· Shield cable-CVVS,CPEVS Cable diameter···1.25 e or more

4) Decline of transmission cable

voltage and signal by a number of

over-connected units.

5) Mis-operation of origin controller, which happens accidentally

6) Origin controller defective

Check points

Turn off power supply of outdoor unit, indoor unit fresh master and lossnay for 2 minutes or more at the same time. Then, turn on power supply. It recovers normally at the malfunction that happens accidentally.

Check the address switch in the address, which occurs abnormality.

Check whether the transmission cable is connected / loosen or not at origin. (Terminal board or connector)

Check whether the transmission cable tolerance is over or not.

Check whether the kind of

transmission cable is mistaken or not. When there is any trouble from above

1-5, turn off power supply of outdoor unit, indoor unit and lossnay for 2 minutes or more at the same time. Then, turn on power supply.

1) When the cause of displayed address and attribute is on the outdoor unit side.

(The indoor unit detects when there is no reply (ACK) on transmitting from the indoor unit to the outdoor unit.)

2) When the cause of displayed address and attribute is on the indoor unit side.

1) Contact failure of outdoor unit or indoor unit transmission cable.

2) Indoor unit transmission connector (CN2M) disconnection.

3) Sending/receiving signal circuit failure in the indoor/outdoor unit.

1) When operating with multi refrigerant system indoor units, the remote controller transmits the signal to the indoor unit after the other refrigerant system outdoor unit is turned off or turned on again in 2 minutes, and detects abnormality.

2) Contact failure of remote controller or indoor unit transmission cable

When there is not any trouble in single refrigerant system (1outdoor unit) from above1-5, controller is defective in displayed address and attribute. When there is not any trouble in different refrigerant system (2outdoor unit or more) from above1-5, determine it after 6.

When the address, which should not exist, is an origin, since there is the indoor unit which memorizes the address data, cancel the unnecessary address data by the manual setting function of remote controller. However, they are limited to the system, which sets the group between different refrigerant systems, or which fresh master /lossnay are connected.

When there is not any trouble from above 1-6, replace the displayed address/attribute controller board.

In this time, when the error does not recover to normal, the outdoor unit multi controller board (repeater circuit) defective is expected.

Check the recovery by replacing the multi controller board one by one.

(The remote controller detects when there is no reply (ACK) on transmitting from the remote controller to the indoor unit.)

3) Indoor unit transmission connector (CN2M) disconnection

4) Sending/receiving signal circuit failure in the indoor unit or remote controller

Continued to the next page.

Display

Abnormal point and detecting method

Causes

Check points

6607

3) When the cause of displayed address and attribute is on the remote controller side

(The indoor unit detects when there is no reply (ACK) on transmitting from the indoor unit to the remote controller unit.)

4) When the cause of displayed address and attribute is on the fresh master side

(The indoor unit detects when there is no reply (ACK) on transmitting from the indoor unit to the fresh master.)

1) When operating with multi refrigerant system indoor units, the indoor units transmits the signal to the remote controller after the other refrigerant system outdoor unit is turned off or turned on again in 2 minutes, and detects abnormality.

2) Contact failure of remote controller or indoor unit transmission cable.

3) Indoor unit transmission connector (CN2M) disconnection.

4) Sending/receiving signal circuit failure in the indoor unit or remote controller.

1) When synchronized operation with other refrigerant system fresh master,

the indoor units transmit the signal to

the fresh master after the fresh master and same refrigerant system outdoor unit is turned off or turned on again in 2 minutes, and detects abnormality.

5) When the cause of displayed address and attribute is on the lossnay side

(The indoor unit detects when there is no

reply (ACK) on transmitting from the indoor

unit to the lossnay.)

2) Contact failure of fresh master or indoor unit transmission cable

3) Indoor unit or fresh master transmission connector (CN2M) disconnection.

4) Sending/receiving signal circuit failure in the indoor unit or fresh master.

1) When the lossnay power supply is

Off, the indoor unit detects abnormality at signal transmitting to the lossnay.

Continued to the next page.

From the previous page.

Display

6607

Abnormal point and detecting method

Causes

2) When synchronized operation with lossnay in o the the same are turned minutes, and

3) Contact failure of lossnay or indoor

unit transmission cable.

4) Indoor unit transmission connector

(CN2M) disconnection.

5) Sending/receiving signal circuit

failure in the indoor unit or lossnay.

ther refrigerant system,

indoor units transmit the signal to

lossnay after the lossnay and

refrigerant system outdoor unit

off or turned on again in 2

detects abnormality.

Check points

6608

6) When the controller of displayed address and attribute is not recognized

No response Though there was a reply (ACK) of having received signal from the other side, it is the abnormality when the response command does not return. The sending side detects the abnormality continuously 6 times every 30 seconds. Note) Address/Attribute displayed on the remote controller shows the controller, which did not response.

1) Since the address switch was

changed with the current passed, the unit in the last address does not exist.

2) Since the fresh master/ lossnay address are changed after

synchronized setting of fresh master/ lossnay by the remote controller, abnormality is detected at transmitting from the indoor unit.

1) Transmission repeats the failure by the noise etc.

2) Decline of transmission voltage and signal by transmission cable tolerance

over.

· The furthest point···200m

· Remote controller cable···(12m) (Refer to 8-3.)

3) Decline of transmission line voltage

and signal by unmatched kind of cable.

· Shield wire-CVVS,CPEVS

wire diameter···1.25eor more

Check the transmission wave and

noise on the transmission cable.

Turn off power supply of outdoor unit,

indoor unit and lossnay for 2 minutes or more at the same time. Then, turn on power supply again. It recovers normally at the malfunction that happens by chance. When same abnormality occurs again, it is defective of displayed address and attribute.

4) Mis-operation of origin controller, which happens by chance.

Display

6831 6834

6832 6833

7100

Abnormal point and detecting method

Signal reception(Remote controller)

Following symptoms are regarded as abnormality.

1) When the remote controller cannot receive the signal from indoor controller normally even once for 3 minutes

2) When the remote controller cannot receive the signal even once for 2 minutes

Signal transmission(Remote controller)

Following symptoms are regarded as abnormality.

1) When sub-remote controller cannot

transmit the signal to the transmission path for 6 minutes

2) When the remote controller cannot

finish transmitting the signal for 30 times on end

When connected total models of the indoor units exceed the specified level (130% of the outdoor unit models), error code <7100> is displayed.

Causes

Defect of the transmission and reception

circuit of the remote controller. Defect of the transmission and

reception circuit of the indoor controller board

Noise occurs on the transmission cable

of the remote controller All remote controllers are set as

sub-remote controller.

Defect of the transmission and

reception circuit of the remote controller Noise occurs on the transmission cable

of the remote controller There are 2 main remote controllers.

1) Connecting total models of the indoor unit exceed the specified level.

· PUMY-P100 ( ~ code 26)

· PUMY-P125 ( ~ code 33)

· PUMY-P140 ( ~ code 38)

Check points

1~3

Perform a check of the remote controller. According to the results, perform the following process.

• When "RC OK" is displayed The remote controller is normal. Turn off the power supply and turn it

on again. If "HO" is displayed for 4 minutes or more, replace the indoor controller board.

• When "RC NG" is displayed Replace the remote controller.

• When "RC 6832 or 6833" or "ERC 00-66" is displayed These displays may be due to noise, etc.

4 Set one remote controller to main

remote controller and the other to sub-remote controller.

Check the total models of connected indoor unit.

Check the model code registration

switch (indoor controller board SW2) of connected indoor unit.

2) There is a mistake in the registration of model name code of the outdoor unit.

Check the model code registration switch (outdoor multi controller board SW4) of the outdoor unit.

Display

Abnormal point and detecting method

7101 Capacity code error

When the connected indoor unit models cannot be connected, <7101> is displayed.

Causes

The indoor unit models is not possible to connect. [PUMY-P100/125/140VHM] The indoor unit of 20-140(code 4-28) is possible to connect. [PUMY-P100/125/140VHMA] The indoor unit of 15-40(Code 3-28) is possible to connect.

Check points

Check the model code registration

switch (indoor controller board SW2) in the connected indoor unit.

The outdoor unit SW1 operation can

check model code of the connected indoor units.

Code of indoor unit No.1

Code of indoor unit No.2

Code of indoor unit No.3

Code of indoor unit No.4

Code of indoor unit No.5

Code of indoor unit No.6

Code of indoor unit No.7

21345678

7102 Number of connecting unit over

When the number of connecting unit exceeds limitations, error code <7102> is displayed.

Even if the indoor unit is not connected, becomes <7102> is display.

Number of connecting unit exceeds limitations. It is assumed abnormality excluding the following cases;

1) The indoor unit can be totally connected up to 6(P100)/8(P125,

140) units.

2) Ventilation unit connecting is only 1 unit.

7105

Address setting error

Address setting of the outdoor unit is wrong.

Addresses wrong setting of the outdoor unit.

The outdoor unit is not set in 000 or in the range of 51-100.

7111 When an old type remote controller for

Remote controller sensor

In the case of M-NET remote controller, it is an abnormality when incapable

M-NET is used, the remote controller sensor is specified (SW1-1 is ON).

response returns from the M-NET remote controller during the operation.

21345678

Code of indoor unit No.8

Check whether the connecting unit exceeds a number of limitations or not.

Check the address setting of the outdoor unit. The address should be set in 000 or 51-100.

When the setting is out of the range, reset it, turn off power supply of the outdoor unit, indoor unit and lossnay for 2 minutes or more at the same time, and turn on power supply again.

Replace the remote controller to M-NET remote controller.

0403 Serial communication error

Abnormal if serial communication between outdoor multi board and outdoor power board is defective.

1 Breaking of wire or contact failure of connector CN2 2 Breaking of wire or contact failure of connector CN4 3 Defective communication circuit of outdoor power board 4 Defective communication circuit of outdoor multi board for power board

12 Check connection of each connector CN2, CN4.

3 Replace outdoor power board. 4 Replace outdoor multi board.

9-2. REMOTE CONTROLLER DIAGNOSIS

· MA remote controller is equipped with the diagnosis function

If the air conditioner cannot be operated from the remote controller, diagnose the remote controller as explained below.

1 First, check that the power-on indicator is lit.

If the correct voltage (DC12 V) is not supplied to the remote controller, the indicator will not light. If this occurs, check the remote controller's wiring and the indoor unit.

Power on indicator

2 Switch to the remote controller self-diagnosis mode.

Press the change as shown below.

CHECK

button for 5 seconds or more. The display content will

3 Remote controller self-diagnosis result

[When the remote controller is functioning correctly]

Press the

[When the remote controller malfunctions] (Error display 1) "NG" flashes. ➝ The remote controller's transmitting-receiv-

FILTER

button to start self-diagnosis.

ing circuit is defective.

Check for other possible causes, as there is no problem with the remote controller.

[Where the remote controller is not defective, but cannot be operated.] (Error display 2) [E3], [6833] or [6832] flashes.

There might be noise or interference on the transmission path, or the indoor unit or other remote controllers are defective. Check the transmission path and other controllers.

➝ Transmission is not possible.

4 To cancel remote controller diagnosis

Press the approximately 30 seconds, the state in effect before the diagnosis will be restored.

CHECK

button for 5 seconds or more. Remote controller diagnosis will be cancelled, "PLEASE WAIT" and operation lamp will blink. After

The remote controller must be replaced with a new one.

(Error display 3)

The number of data errors is the difference between the number of bits sent from the remote controller and the number actually transmitted through the transmission path. If such a problem is occurring, the transmitted data is affected by noise, etc. Check the transmission path.

"ERC" and the number of data errors are displayed. ➝ Data error has occurred.

When the number of data errors is "02": Transmission data from remote controller Transmission data on transmission path

Symptom or inspection code Cause Inspection method and solution

Though the content of operation is displayed on the remote controller, some indoor units do not operate.

• The power supply of the indoor unit is not on.

•

The address of the indoor units in same group or the remote controller

is not set correctly.

•

The group setting between outdoor units is not registered to the remote

controller.

• The fuse on the indoor unit controller board is blown.

• Check the part where the abnormality occurs.

1 The entire system 2 In the entire refrigerant system 3 In same group only 4 1 indoor unit only

•

Check the self-diagnosis LED

of the outdoor unit.

• Check the items shown in the left that are related to the outdoor unit.

• Check the items shown in the left that are related to the indoor unit.

Though the indoor unit operates, the display of the remote controller goes out soon.

• The power supply of the indoor unit is not on.

• The fuse on the indoor unit controller board is blown.

( ) is not displayed on the remote controller.

(M-NET remote controller

is not fed.)

• The power supply of the outdoor unit is not on.

• The connector of transmission outdoor power board is not connected.

•

The number of connected indoor unit in the refrigeration system is over

the limit or the number of connected remote controller is over the limit.

•

M-NET remote controller is connected to MA remote controller cable.

• The transmission line of the indoor/outdoor unit is shorted or down.

• M-NET remote controller cable is shorted or down.

• Transmission of outdoor power board failure.

"HO" keeps being displayed or it is displayed periodically. ("HO" is usually displayed about 3 minutes after the power supply of the outdoor unit is on.)

• The power supply for the feeding expansion unit for the transmission line is not on.

• The address of the outdoor unit remains "00".

•

The address of the indoor unit or the remote controller is not set correctly.

• MA remote controller is connected to the transmission line of the indoor/outdoor unit.

The remote controller does not operate though ( ) is displayed.

• The transmission line of the indoor/outdoor unit is connected to TB15.

• The transmission line of the indoor/outdoor unit is shorted, down or badly contacted.

9-3. REMOTE CONTROLLER TROUBLE

Symptom or inspection code Cause Inspection method and solution

Though the content of operation is displayed on the remote controller, some indoor units do not operate.

( ) is not displayed on the remote controller. (MA remote controller is not fed.)

"PLEASE WAIT" keeps being displayed or it is displayed periodically. ("PLEASE WAIT" is usually displayed about 3 minutes after the power supply of the outdoor unit is on.)

The

remote controller does not

operate though ( ) is displayed.

• The power supply of the indoor unit is not on.

• Wiring between indoor units in same group is not finished.

• The indoor unit and Slim model are connected to same group.

• The fuse on the indoor unit controller board is blown.

• Check the part where the abnormality occurs.

1 The entire system 2 In the entire refrigerant system 3 In same group only 4 1 indoor unit only

•

Check the self-diagnosis LED

of the outdoor unit.

• Check the items shown in the left that are related to the outdoor unit.

<In case of same group only or

1 indoor unit only>

• Check the items shown in the left that are related to the indoor unit.

Though the indoor unit operates, the display of the remote controller goes out soon.

• The power supply of the indoor unit (Master) is not on.

• In case of connecting the system controller, the setting of the system controller does not correspond to that of MA remote controller.

• The fuse on the indoor unit (Master) controller board is blown. The remote controller is not fed until the power supply of both indoor unit

and outdoor unit is on and the start-up of both units is finished normally.

• The power supply of the indoor unit is not on.

• The power supply of the outdoor unit is not on.

• The number of connected remote controller is over the limit (Maximum: 2 units) or the number of connected indoor unit that is over the limit (Maximum: 16 units).

•

The address of the indoor unit is "00" and the address for the outdoor

unit is the one other than "00".

•

The transmission line of the indoor/outdoor unit is connected to TB15.

• MA remote controller is connected to the transmission line of the indoor/outdoor unit .

• The remote controller cable is shorted or down.

• The power supply cable or the transmission line is shorted or down.

• The fuse on the indoor unit controller board is blown.

• The power supply of the outdoor unit is not on.

• The power supply of the feeding expansion unit for the transmission line is not on.

• The setting of MA remote controller is not main remote controller, but sub-remote controller.

• MA remote controller is connected to the transmission line of the indoor/outdoor unit

• The power supply of the indoor unit (Master) is not on.

• The transmission line of the indoor/outdoor unit is connected to TB15.

• The transmission line of the indoor/outdoor unit is shorted, down or badly contacted.

•The fuse on the indoor unit controller board is blown.

STAND BY DEFROST

(1) For M-NET remote controller systems

CENTRALLY CONTROLLED

CLOCK

CHECK

˚C

ERROR CODE

TEMP.

TIMER SET

ON OFF

1Hr.

NOT AVAILABLE

˚C

FILTER CHECK MODE TEST RUN FUNCTION

ON/OFF

CHECK TEST

“ ” indicator: Appears when current is carried.

FILTER

(M-NET Remote controller)

(2) For MA remote controller systems

9-4. THE FOLLOWING SYMPTOM DO NOT REPRESENT TROUBLE (EMERGENCY)

Symptom

Even the cooling (heating) operation selection button is pressed, the indoor unit cannot be operated. The auto vane runs freely.

Fan setting changes during heating.

Fan stops during heating operation. Fan does not stop while operation has been stopped. No setting of fan while start SW has been turned on.

Indoor unit remote controller shows “HO” or “PLEASE WAIT ” indicator for about 2 minutes when turning ON power supply. Drain pump does not stop while unit has been stopped. Drain pump does not stop while unit has been stopped.

Display of remote controller

"Cooling (Heating)" blinks

Normal display

"Defrost "

Light out

STAND BY

“HO” blinks “PLEASE WAIT” blinks

Light out

—

CAUSE

The indoor unit can not cool (heat) if other indoor units are heating (cooling).

Because of the control operation of auto vane, it may change over to horizontal blow automatically from the downward blow in cooling in case the downward blow operation has been continued for 1 hour. At defrosting in heating, hot adjusting and thermostat OFF, it automatically changes over to horizontal blow. Ultra-low speed operation is commenced at thermostat OFF. Light air automatically change over to set value by time or piping temperature at thermostat ON. The fan is to stop during defrosting.

Fan is to run for 1 minute after stopping to exhaust residual heat (only in heating).

Ultra-low speed operation for 5 minutes after SW ON or until piping temperature becomes 35°C. There low speed operate for 2 minutes, and then set notch is commenced. (Hot adjust control) System is being driven. Operate remote controller again after “HO” or “PLEASE WAIT” disappears.

After a stop of cooling operation, unit continues to operate drain pump for 3 minutes and then stops it.

Unit continues to operate drain pump if drainage is generated, even during a stop.

9-5. INTERNAL SWITCH FUNCTION TABLE PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

Switch

SWU1 1st digit

SWU2 2nd digit

Step

Rotary switch

Function

SWU2

(2nd digit)

SWU1

(1st digit)

Operation in Each Switch Setting

ON OFF When to Set

Before turning the power on

Remarks

SWU2

(2nd digit)

SWU1

(1st digit)

SW1 Digital Display Switching

SW2 Function Switching

SW3 Trial operation

Outdoor unit

SW4 Model Switching

SW5 Function switching

1~8

OFF

Selects operating system startup

Connection Information Clear Switch

Abnormal data clear switch input

Pump down

4 5

Auto change over from Remote controller

ON/ OFF from outdoor unit

Mode setting

MODELS

PUMY-P100

1~6

3 4

PUMY-P125

PUMY-P140

Pressure limitation value change

Change the indoor unit's LEV opening at start

Fixing the indoor units linear expansion valve opening Fix the operation frequency

Change the indoor unit's LEV opening at defrost

Switching the target sub cool.

—

OFF

SW4

123456

234567 8

With centralized controller

Clear Clear abnormal data

Run adjustment mode. Enable

Heating

Enable

Fix Normal Fix Normal Enable

Enable

—

Can be set either during operation or not.

Without centralized controller

Do not clear

Normal Normal

Disable

Before turning the power on

OFF to ON any time after the power is turned on.

During compressor running

Before turning the power on

——

OFF

Cooling

Normal

Any time after the power is turned on.

Before the power is turned on.

Can be set when off or during operation

OFF to ON during compressor running.

Can be set when off or during operation

OFF

234567 8

OFF

23456

OFF

<Initial Setting> Set for each capacity.

OFF

234567 8

During the FAN or COOL mode, and thermo-OFF or stop in heating operation, set the opening of

linear expansion valve on indoor unit

Active

Inactive

During the FAN or COOL mode, and thermo-OFF

in heating operation, set the opening of linear expansion valve on indoor unit

Active Inactive

w1 SW5-7 Refrigerant shortage amount is measured during heating operation. (Refrigerant piping is long etc.) w2 SW5-8 Countermeasure against room temperature rise for indoor unit in FAN, COOL, and thermo-OFF (heating) mode.

Switch

Step

Function

Operation in Each Switch Setting

ON OFF When to Set

Remarks

SW6 function switching

Outdoor unit

SW7 function switching

SW8 function switching

Switch of current limitation reading

in a different way

Restriction of maximum

frequency Ignore refrigerant filling

abnormality Switching the target discharge

pressure (Pdm) Switching (1) the target evaporation

temperature (ETm) Switching (2) the target evaporation

temperature (ETm) Ignore current sensor

abnormality

2 3

4 5

Forced defrost

Silent mode/ Demand Control

Selection (see next page)

Change of defrosting control

—

— — — —

—— —

Enable

—— —

Enable Enable

Enable

Enable Enable

— — — —

Forced defrost Normal

Demand Control

Enable (For high humidity)

Normal

Normal Normal

Normal

Normal Normal

Silent mode

Normal

Before turning the power on.

Can be set when off or during operation

Before turning the power on.

— — — —

During compressor running in heating mode.

Can be set when off or during operation

OFF

234567 8

—

OFF

23456

OFF

9-6. OUTDOOR UNIT INPUT/OUTPUT CONNECTOR

CN51

5 4 3

A C

1 : Error display lamp

2 : Compressor operation lamp

X, Y : Relay (Coil standard of 0.9W or less for DC 12V)

A C

CN3N

SW1

SW2

1 2

X, Y : Relay (DC1mA)

SW1 SW2

Heating

Validity of SW1

OFF

Cooling

Invalidity of SW1

SW1 SW2

Heating

Validity of SW1

OFF

Cooling

Invalidity of SW1

A C

CN3D

SW1

SW2

1 2

The silent mode and the demand control are selected by switching the Dip switch 8-1 on outdoor controller board. It is possible to set it to the following power sonsumption (compared with ratings) by setting SW1,2.

Silent mode

Silent mode operation

Outdoor controller board DIP SW8-1

SW1 SW2 Function

Demand control

OFF ON

ON OFF ON

— OFF OFF

ON OFFONON

100%

75% 50%

(Normal)

(Stop)

A Distant control board B Relay circuit C External output adapter (PAC-SA88HA-E) D Outdoor unit control board

A Remote control panel B Relay circuit C External input adapter (PAC-SC36NA) D Outdoor unit control board

E Relay power supply F Procure locally G Max. 10m

A Remote control panel B Relay circuit C External input adapter (PAC-SC36NA) D Outdoor unit control board

E Relay power supply F Procure locally G Max. 10m

E Lamp power supply F Procure locally G Max. 10m

L1 L2

● State (CN51)

● Auto change over (CN3N)

● Silent Mode / Demand Control (CN3D)

9-7. HOW TO CHECK THE PARTS PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

Parts name

Thermistor (TH3) <Outdoor pipe>

Thermistor (TH4) <Discharge>

Thermistor (TH6) <

Low pressure saturated

temperature> Thermistor (TH7)

<Outdoor> Thermistor (TH8)

Fan motor(MF1,MF2)

Solenoid valve coil <Four-way valve> (21S4)

Motor for compressor (MC)

Check points

Disconnect the connector then measure the resistance with a tester. (At the ambient temperature 10:~30:)

Normal TH4 TH3 TH6 TH7 TH8

Refer to next page.

Measure the resistance between the terminals with a tester. (At the ambient temperature 20

Measure the resistance between the terminals with a tester. (Winding temperature 20:)

160k"~410k"

4.3k"~9.6k"

39k"~105k"

)

Normal

Normal Abnormal

Abnormal

Open or short

Abnormal

Open or short1435±150"

Solenoid valve coil <Bypass valve> (SV1)

0.188"

Measure the resistance between the terminals with a tester. (At the ambient temperature 20:)

Normal

1197±10"

Open or short

Abnormal

Open or short

Check method of DC fan motor (fan motor / outdoor controller circuit board)

Notes

· High voltage is applied to the connecter (CNF1, 2) for the fan motor. Give attention to the service.

· Do not pull out the connector (CNF1, 2) for the motor with the power supply on. (It causes trouble of the outdoor controller circuit Self check

Symptom : The outdoor fan cannot turn around.

Fuse check

Check the fuse (F500) on outdoor controller board.

board and fan motor.)

Did the fuse blow?

Wiring contact check

Contact of fan motor connector (CNF1, 2)

Is there no contact failure?

Yes

Power supply check(Remove the connector (CNF1, 2))

Measure the voltage in the outdoor controller circuit

TEST POINT

1 :VDC (between 1 (+) and 4 (-) of the fan connector):

Yes

Replace outdoor controller board (MULTI.B.) (C.B) and fan motor (MF1, 2).

Recover wiring.

board.

VDC DC280-340V (When ACTM stops), DC350V (When ACTM is operating)

TEST POINT 2 :VCC (between 5 (+) and 4 (-) of the fan connector): VCC DC15V

Is the voltage normal?

Yes

Replace the fan motor.

Yes

Check the operation of fan. END

Replace outdoor

controller board.

Check the operation. END

Replace outdoor controller board.

Replace the fan motor.

9-8. HOW TO CHECK THE COMPONENTS

-20 -10 0 10 20 30 40 50 Temperature (:)

Resistance (k")

500

400

300

200

100

50 75 100 120

Temperature (:)

Resistance (k")

0.5

2.5 5

2.5

4.5

Vout (V)

PRESSURE

WHT

BLU

BLK

SENSOR

5V DC

GND

63HS

Vout

MICRO COMPUTER

MULTI CONTROLLER BOARD

3-1 : 5V (DC) 2-1 : Output Vout (DC)

200

150

100

25 50 75 100 110 125 :

Temperature

Resistance (k")

Low temperature thermistors

• Thermistor <Outdoor pipe> (TH3)

• Thermistor <Low pressure saturated temperature> (TH6)

• Thermistor <Outdoor> (TH7) Thermistor R0 = 15k' ±3%

B constant = 3480 ± 2%

t =15exp{3480(

0: 15k' 10: 9.6k' 20: 6.3k' 25: 5.2k'

Medium temperature thermistor

Heatsink temperature thermistor (TH8) Thermistor R50 = 17k' ±2%

B constant = 4170 ± 3%

t =17exp{4170(

0: 180k' 25: 50k' 50: 17k' 70: 8k' 90: 4k'

273+t – 273

30: 4.3k' 40: 3.0k'

273+t – 323

)}

High temperature thermistor

• Thermistor <Discharge> (TH4) Thermistor R120 = 7.465k' ±2%

B constant = 4057 ± 2%

t =7.465exp{4057(

R 20: 250k'

30: 160k' 40: 104k' 50: 70k' 60: 48k'

273+t – 393

70: 34k' 80: 24k' 90: 17.5k' 100: 13.0k' 110: 9.8k'

)}

9-9. TEST POINT DIAGRAM Outdoor multi controller board

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

SW8

Demand/ Silent selection

SW1

Display selection (Self diagnosis)

SWU2, SWU1

Address setting

CNLVB(Only VHMA) Connect to the outdoor noise filter circuit board (CN52C)1–6 : DC12V

63L

Low pressure switch

CN3N

Auto change over (external signal input)

63H

High presser switch

CN3D

Input of demand control

TH4 Thermistor

SW2

Pump down

SW3

Test run

SW7

Forced defrost

SW4

Model select

CN51

External signal output

CN102

Connect to the M-P.B (Transmission power board)

CN40,CN41

Centralized control power supply/ For storing

jumper connector selection

CN52

Transmission wire of centralized control

CNS1

Indoor/ outdoor unit connecting wire

CN2

Connect to the outdoor power circuit board 1-5: Power circuit board ➔ Transmitting signal to the multi controller board (0-5V DC) 2-5: Zero cross signal

(0-5V DC)

3-4: Not used 6-5: 16V DC 7-5: 16V DC

CNAC

Power supply for multi controller board

TH3 Thermistor

TH7/ 6 Thermistor

63HS

High presser sensor

VFG

(Voltage between left pins of PC511 and PC512, pin1 and pin2) : (Same as CNF1,2 7(+)–4(-))

VSP

(Voltage between pins of C515 and C516) : DC0V (when stopped) DC1–6.5V (when operated) (Same as CNF1,2 6(+)–4(-))

CNF1, 2

Connect to fan motors

1–4 : DC280V-350V 5–4 : DC15V 6–4 : DC0–6.5V 7–4 : DC15V (when stopped)

DC0–15V pulse (when operated)

VDC (TEST POINT1)

(Voltage between pins of C510) : DC280V-350V (Same as CNF1,2 1(+)–4(-))

F1, F2

FUSE 6.3A

SV1

Bypass valve

21S4

4-way valve

VCC (TEST POINT2)

(Voltage between pins of C82A) : DC15V (Same as CNF1,2 5(+)–4(-))

52C

52C relay signal

CNDC

DC280V-350V (1(+)–3(-))

Outdoor power circuit board PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

Brief Check of POWER MODULE

W Usually, they are in a state of being short-circuited if they are broken. Measure the resistance in the following points (connectors, etc.). If they are short-circuited, it means that they are broken.

1. Check of POWER MODULE

1.Check of DIODE circuit S - P1 , T - P1 , S - N1 , T - N1

2.Check of IGBT circuit

P2 - U , P2 - V , P2 - W , N2 - U , N2 - V , N2 - W

Note:The marks, L , N , N1 , N2 , P1 , P2 , U , V and W shown in the diagram are not actually printed on the board.

CN2 Connect to the outdoor controller circuit board (CN2) 1-5:Transmitting signal to the outdoor

controller circuit board (0~5V DC)

2-5:Zero cross signal (0~5V DC) 3-4:18V DC 6-5:16V DC 7-5:16V DC

CN3 Thermistor (TH8) <Heatsink>

CN5 Detection of primary current Connect to the outdoor noise filter circuit board (CN5)

CNDC 280V-350V DC (1+, 3–)

Connect to the outdoor controller circuit board

TABS/T Connect to the outdoor noise filter circuit board Voltage among phases:220-240V AC

TABN1/SC-N1 Connect to the ACTM(-)

TABP1/SC-P1 Connect to 52C

CN4 Connect to the outdoor controller circuit board (CN4)

TABP2/SC-P2 Connect to the ACTM(P)

TABU/V/W Connect to the compressor (MC) Voltage among phases:10V~180V AC

TABN2/SC-N2 Connect to the ACTM(N2)

Outdoor noise filter circuit board PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

LO, NO Voltage of 220-240V AC is output (Connect to the outdoor power circuit board)

TABS

TABT

CNAC2 220-240V AC (Connect to the outdoor controller circuit board (CNAC))

CNAC1 220-240V AC (Connect to the M-NET power circuit board (MP.B.))

EI Connect to the earth

CN5 Primary current (Connect to the outdoor power circuit board (CN5))

LI, NI Voltage of 220-240V AC is input (Connect to the terminal block(TB1))

Outdoor noise filter circuit board PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

CNAC2 220-240V AC (Connect to the outdoor controller circuit board (CNAC))

CN5 52C driving signal (Connect to the outdoor controller circuit board(CNLVB))

RS1

LO, NO Voltage of 220-240V AC is output (Connect to the outdoor power circuit board)

CNAC1 220-240V AC (Connect to the M-NET power circuit board (M-P.B.))

EI Connect to the earth

E2 Connect to the earth

CN5 Primary current (Connect to the outdoor power circuit board (CN5))

LI, NI Voltage of 220-240V AC is input (Connect to the terminal block(TB1))

Transmission power board PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

CN2

Connect to the outdoor multi controller board

1-2: 24–30V DC 3-4: 24–30V DC

CN1

Connect to the outdoor noise filter circuit board 1–3 : 220–240V AC

Active filter module

DCL

L1 L2

ACTM

N1 N2

(+)

(-)

Load

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

–

Connect to the outdoor power circuit board(TABN1)

Connect to the 52C

L1, L2 Connect to the DCL(Reactor)

Connect to the outdoor power circuit board(CNAF)

1 : GND 2-1 : 15V DC 3-1 : Control signal 4, 5 : Not used 6-1 : Control signal

I Not used

N2 Connect to the outdoor power circuit board(TABN2)

Connection and internal circuit diagram

P Connect to the outdoor power circuit board(TABP2)

N1 Non-connect

Active filter module

DCL

L1 L2

ACTM

N1 N2

(+)

(- )

Load

PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

L1, L2 Connect to the DCL(Reactor)

Upper side

P Connect to the outdoor power circuit board(TABP2)

N1 Non-connect

Lower side

Connect to the outdoor power circuit board(TABP1)

Connect to the outdoor

–

power circuit board(TABN1)

Connection and internal circuit diagram

Connect to the outdoor power circuit board(CNAF)

1 : GND 2-1 : 15V DC 3-1 : Control signal 4, 5 : Not used 6-1 : Control signal

N2 Non-connect

lo Connect to the outdoor power circuit board(TABN2)

9-10. OUTDOOR UNIT FUNCTIONS

1011121314

192021

222324

2627282930

SW1 setting

12345678

00000000

10000000

01000000

11000000

00100000

10100000

01100000

11100000

00010000

10010000

01010000

11010000

00110000

10110000

01110000

11110000

00001000

10001000

01001000

11001000

00101000

10101000

01101000

11101000

00011000

10011000

01011000

11011000

00111000

10111000

01111000

Relay output display

Check display

Indoor unit check status

Protection input

Abnormality delay display 1

Abnormality delay display 2

Abnormality delay display 3

Abnormality delay history 1

Abnormality delay history 2

Abnormality delay history 3

Abnormality code history 2

Abnormality code history 3

Abnormality code history 4

Abnormality code history 5

Abnormality code history 6

Abnormality code history 7

Abnormality code history 8

Abnormality code history 9

Cumulative time

Outdoor unit operation display

Indoor unit operation mode

Indoor unit operation display

Capacity code (No. 1 indoor unit)

Capacity code (No. 2 indoor unit)

Capacity code (No. 3 indoor unit)

Capacity code (No. 4 indoor unit)

Capacity code (No. 5 indoor unit)

Compressor operation

No.1 unit check

52C

No.2 unit check

21S4

No.3 unit check

SV1

No.4 unit check

Over capacity

No.7 unit check

(SV2)

No.5 unit check

No.6 unit check

TH6 abnormality delay

Lighting always

No.8 unit check

TH8 abnormality

ON: light on OFF: light off

•When abnormality occurs, check display.

Check: light on Normal: light off

Display input microprocessor

protection (abnormality)

Display all abnormalities

remaining in abnormality

delay

Display all abnormalities

remaining in abnormality

delay history

•Display abnormalities up to

present (including abnormality

terminals)

•History record in 1 is the

latest; records become older

in sequence; history record

in 10 is the oldest.

Display of cumulative

compressor operating time

Thermo ON : light on Thermo OFF : light off

•Display of indoor unit

capacity code

•The No. 1 unit will start from

the address with the lowest

number

Notes

Alternating display of addresses

0000-9999 and abnormality code

(including abnormality delay code)

0~9999(unit::1-hour)

0~9999(unit::10-hour)

0~255

Excitation Current

No.1 unit mode

No.1 unit operation

Restart after 3 minutes

No.2 unit mode

No.2 unit operation

Compressor operation

No.3 unit mode

No.3 unit operation

Abnormality(detection)

No.4 unit mode

No.4 unit operation

No.5 unit mode

No.5 unit operation

No.6 unit mode

No.6 unit operation

No.7 unit mode

No.7 unit operation

No.8 unit mode

No.8 unit operation

0000~9999 (Alternating display of addresses and error code)

Display mode

Display on the LED1, 2 (display data)

No.

Delay code

1202

1205

1211

1214

1221

Delay code

1402

1600

1601

4320

4330

4350

Abnormality delay

Discharge temperature abnormality

Discharge temperature sensor (TH4) abnormality

Outdoor pipe temperature sensor (TH3) abnormality

Heatsink thermistor (TH8) abnormality

Outside air temperature sensor (TH7) abnormality

Abnormality delay

High-pressure abnormality

Pressure sensor (63HS) abnormality

Over charge refrigerant abnormality

Insufficient refrigerant abnormality

Heatsink temperature abnormality

Power module abnormality

Abnormality in the

number of indoor units

High-pressure

abnormality delay

High-pressure

abnormality delay

High-pressure

abnormality

Address double

setting abnormality

TH4

abnormality

delay

TH4

abnormality delay

Current sensor

abnormality

TH3 abnormality

delay

Saturation temperature of suction pressure

sensor (TH6) abnormality

Frequency converter insufficient

wiring voltage abnormality

Cooling : light on Heating: light flashing

Stop fan: light off

Abnormality code history 10

(the oldest)

Abnormality code history 1

(the latest)

Indoor unit

address error

Outdoor unit

address error

Current sensor

abnormality delay

Current sensor

abnormality delay

Heatsink

overheating

Over current interception

TH4 abnormality

TH3 abnormality

Outdoor fan rotational

frequency abnormality

TH7 abnormality

Heatsink

overheating delay

Heatsink

overheating delay

SHd(low discharge temperature)

abnormality

SHd(low discharge temperature)

abnormality delay

Over current interception

delay

Over current

interception delay

Discharge temperature

abnormality

Indoor unit

capacity error

Discharge temperature

abnormality delay

Voltage abnormality

delay

Discharge temperature

abnormality delay

Voltage abnormality

delay

Insufficient refrigerant

amount abnormality

Insufficient refrigerant

amount abnormality delay

Frozen protection delay

Insufficient refrigerant

amount abnormality delay

Frozen protection delay

TH3 abnormality

delay

Power module

abnormality delay

Power module

abnormally delay

Low-pressure

abnormality

Outdoor fan rotational fre-

quency abnormality delay

Low-pressure

abnormality delay

TH6 abnormality

delay

Outdoor fan rotational

frequency abnormality delay

Low-pressure

abnormality delay

63HS abnormality

Current sensor

open/short

TH7 abnormality

delay

63HS abnormality

delay

Current sensor

open/short delay

TH7 abnormality

delay

63HS abnormality

delay

Current sensor

open/short delay

start over current

interception abnormality

serial communication

abnormality

start over current inter-

ception abnormality delay

communication(POWER

BOARD)abnormality delay

start over current inter-

ception abnormality delay

communication(POWER

BOARD)abnormality delay

start over current inter-

ception abnormality delay

SHd(low discharge temperature)

abnormality delay

Voltage abnormality

start over current inter-

ception abnormality delay

SW:setting

0....OFF

1....ON

Notes

•Display of indoor unit

operating mode

Input: light off No input: light on

Light on/light off

Display of communication demand capacity

3-min.delay/no

Heating

thermo

OFF

Excitation current/no

Heating

thermo

P93:Silent

CN3D1-2 input

Refrigerant pull back/no

Cooling

thermo

OFF

P94:Demand

CN3D1-3 input

DEFROST/NO

Display on the LED1, 2 (display data)

Cooling

thermo

Abnormal/Normal

P95:Undefined

CN3S1-2 input

Fan

P96:Autochange

over fixed mode

CN3N1-2 input

Heating/Cooling

Freeze

prevention

control

Max. Hz

Correction of

high compression

LEV opening

correction

LEV opening

correction

Min.Sj

correction

SHd decrease

control

ratio prevention

Discharge

pressure(heating)

Backup

depends on Td

Discharge

temp.(heating)

Backup

depends on Pd

Max. Hz

control

depends on Td

Discharge

temperature

prevention

control

Power module

abnormality

TH6 abnormality

Frequency restrain

of receipt voltage

change

Frozen protection

Input current

control

Secondary

current control

Hz control by discharge temperature limitation

Content

Max.Hz limitation when power supply on

Hz control by bypass valve

Max.Hz correction control due to voltage decrease

Secondary current control

Display mode

IC1 operation mode

SW1 setting

11111000

12345678

3132333435

No.

OFF

IC2 operation mode

IC3 operation mode

00000100

10000100

ON/OFF

IC4 operation mode

IC5 operation mode

OC operation mode

11000100

01000100

00100100

0~255

0000~9999 (unit : o10)

0~999.9 (A)

P97:Autochange

over permission

CN3N1-3 input

External connection status

Communication demand capacity

Number of compressor ON/OFF

11100100

01100100

10100100

38394041424344

0000~9999 (unit : o10)

Compressor operating current

Input current of outdoor unit

Thermo ON operating time

00010100

11010100

10010100

01010100

0~255

0~255 (Max. 8 unit)

0~999.9 (V)

Td over heat

prevention

Discharge

pressure

control

Total capacity of thermo on

Number of indoor units

DC bus voltage

State of LEV control

State of compressor

frequency control 1

11110100

10110100 45

01110100

00110100

Heatsink

over heat pre-

State of compressor

frequency control 2

00001100

0~999.9[Arms]

vention control

Protection input

The second current value when

micro computer of POWER

BOARD abnormality is detected

The radiator panel temperature

10001100

01001100

-99.9~999.9(Short/Open:-99.9 or 999.9)

when microcomputer of POWER

BOARD abnormality is detected

Discharge pressure control Hz control by pressure limitation

State of compressor frequency(Hz) control (Words)

SV control

Discharge temperature control

Max.Hz control

Abnormal rise of Pd control Control that restrains abnormal rise of discharge pressure

Heatsink over heat prevention control Heatsink over heat prevention control

Secondary current control

Input current control Input current control

Hz correction of receipt voltage decrease prevention

Hz restrain of receipt voltage change Max.Hz correction control due to receipt voltage change

11001100

Notes

Display of actual operating frequency

Display of target frequency

Display of number of outdoor

fan control steps (target)

Display of opening pulse of

indoor LEV

Display of outdoor subcool

(SC) data and detection data

from high-pressure sensor and

each thermistor

Display on the LED1, 2 (display data)

0~FF(16 progressive)

0~255

Display mode

Operational frequency

Target frequency

SW1 setting

12345678

00000010

10000010

No.

0~15

Outdoor fan control step number

01000010 66

0~2000

IC1 LEV Opening pulse

IC2 LEV Opening pulse

IC3 LEV Opening pulse

IC4 LEV Opening pulse

11100010

01100010

10100010 69

00010010

7172737475

-99.9 ~ 999.9

IC5 LEV Opening pulse

High-pressure sensor (Pd) kgf/cm

TH4(Td) ˚C

TH6(ET) ˚C

TH7(Outdoor-temp.) ˚C

TH3(Outdoor pipe) ˚C

00110010

10110010

777880

01110010

10010010

11010010

01010010

-99.9 ~ 999.9

TH8(Power module) ˚C

IC1 TH23(Gas) ˚C

00001010

10001010 818283

(When the indoor unit is not connected, it is displayed as"0".)

IC2 TH23(Gas) ˚C

IC3 TH23(Gas) ˚C

IC4 TH23(Gas) ˚C

IC5 TH23(Gas) ˚C

IC1 TH22(Liquid) ˚C

IC2 TH22(Liquid) ˚C

IC3 TH22(Liquid) ˚C

IC4 TH22 (Liquid) ˚C

IC5 TH22 (Liquid) ˚C

IC1 TH21(Intake) ˚C

IC2 TH21 (Intake) ˚C

IC3 TH21 (Intake) ˚C

IC4 TH21 (Intake) ˚C

11001010

01001010

00101010 84

11101010

01101010

10101010 858687

00011010

10011010

01011010

888990

11011010 919293

00111010

10111010

01111010 94

-99.9 ~ 999.9

IC5 TH21 (Intake) ˚C

Outdoor SC (cooling) ˚C

11111010

00000110

Display of target

subcool

step data

Display of indoor SC/SH data

Display of discharge superheat data

Display of all control target data

Display of detection data from

high-pressure sensor and each

thermistor

Display of actual frequency at time of abnormality delay

Display of fan step number at time of abnormality delay

Display of opening pulse of indoor LEV

at time of abnormality delay

Display on the LED1, 2 (display data)

-99.9 ~ 999.9

during heating: subcool (SC)/during cooling: superheat (SH)

-2~4

-99.9~999.9

Pdm(0.0~30.0)

ETm(-2.0~23.0)

SCm(0.0~20.0)

SCm/SHm(0.0~20.0)

-99.9~999.9 [˚F]

0.0~711.0 [PSIG]

-99.9~999.9 [˚F]

0~FF(16 progressive)

0~15

0~2000

979899

100

101

102

103

105

106

107

108

109

110

111

112

121

122

123

124

125

126

128

129

131

132

133

134

135

Target subcool step

IC1 SC/SH ˚C

IC2 SC/SH ˚C

IC3 SC/SH ˚C

IC4 SC/SH ˚C

IC5 SC/SH ˚C

Discharge superheat (SHd) ˚C

Target Pd display (heating) kgf/F

Target ET display (cooling) ˚C

Target outdoor SC (cooling) ˚C

Target indoor SC/SH (IC1) ˚C

Target indoor SC/SH (IC2) ˚C

Target indoor SC/SH (IC3) ˚C

Target indoor SC/SH (IC4) ˚C

Target indoor SC/SH (IC5) ˚C

TH4 (Td) ˚F

TH3 (Outdoor pipe) ˚F

TH6 (ET) ˚F

TH7 (Outdoor temp.) ˚F

High pressure sensor (Pd) PSIG

TH8 (Power module) ˚F

Actual frequency of abnormality delay

Fan step number at time of abnormality delay

IC1 LEV opening pulse abnormality delay

IC2 LEV opening pulse abnormality delay

IC3 LEV opening pulse abnormality delay

IC4 LEV opening pulse abnormality delay

IC5 LEV opening pulse abnormality delay

678

Display mode

No.

Notes

SW1 setting

12345678

10000110

01000110

11000110

00100110

10100110

01100110

11100110

10010110

01010110

11010110

00110110

10110110

01110110

11110110

00001110

10011110

01011110

11011110

00111110

10111110

01111110

00000001

10000001

11000001

00100001

10100001

01100001

11100001

Display of data from high-pressure sensor,

all thermistors, and SC/SH at time of

abnormality delay

Display on the LED1, 2 (display data)

2345 6

/ kgf

-99.9 ~ 999.9

Display of detection data from each

indoor thermistor

-99.9 ~ 999.9 [˚F]

(When the indoor unit is not connected, it is displayed as"32".)

Display mode Notes

High-pressure sensor data at time of abnormality delay

TH4 sensor data at time of abnormality delay ˚C

TH6 sensor data at time of abnormality delay ˚C

12345678

00010001

10010001

136

01010001

137

138

SW1 setting

No.

TH3 sensor data at time of abnormality delay ˚C

TH8 sensor data at time of abnormality delay ˚C

11010001

00110001

139

140

OC SC (cooling) at time of abnormality delay ˚C

IC1 SC/SH at time of abnormality delay ˚C

01110001

10110001 141

142

IC2 SC/SH at time of abnormality delay ˚C

IC3 SC/SH at time of abnormality delay ˚C

11110001

00001001

143

144

IC4 SC/SH at time of abnormality delay ˚C

IC5 SC/SH at time of abnormality delay ˚C

IC1 TH21 Intake ˚F

11001001

10001001

01001001

145

146

147

IC2 TH21 Intake ˚F

IC3 TH21 Intake ˚F

IC4 TH21 Intake ˚F

IC5 TH21 Intake ˚F

11101001

00101001 148

01101001

10101001 149

150

151

IC6 TH21 Intake ˚F

IC7 TH21 Intake ˚F

IC8 TH21 Intake ˚F

IC1 TH23 Gas ˚F

00011001 152

10011001 153

01011001 154

11011001 155

IC2 TH23 Gas ˚F

IC3 TH23 Gas ˚F

IC4 TH23 Gas ˚F

10111001 157

01111001 158

00111001 156

IC5 TH23 Gas ˚F

IC6 TH23 Gas ˚F

IC7 TH23 Gas ˚F

11111001

00000101

10000101

159

160

161

IC8 TH23 Gas ˚F

01000101 162

Display of version data of ROM

Display of ROM type

Display of check sum code of ROM

Display of detection data from each

indoor liquid pipe thermistor

Display on the LED1, 2 (display data)

23456

-99.9 ~ 999.9 [˚F]

(When the indoor unit is not connected,it is displayed as"32".)

Over

Voltage

Under

voltage

CT sensor

disconn-

ection

Display of actual frequency at time of abnormality

Display of fan step number at time of abnormality

Display of opening pulse of indoor LEV

at time of abnormality

0~FF(16progressive)

0~20

0~2000

Display of data from high-pressure sensor

and all thermistors at time of abnormality

Display of data from SC/SH and all

thermistors at time of abnormality

-99.9 ~ 999.9

Display mode Notes

ROM version monitor

ROM type

Check Sum code

11010101

12345678

SW1 setting

No.

170

00110101

01010101

171

172

IC1 TH22 Liquid ˚F

IC2 TH22 Liquid ˚F

IC3 TH22 Liquid ˚F

IC4 TH22 Liquid ˚F

11110101

01110101

10110101 173

174

175

00001101

176

IC5 TH22 Liquid ˚F

IC6 TH22 Liquid ˚F

IC7 TH22 Liquid ˚F

IC8 TH22 Liquid ˚F

01001101

178

11001101

179

00101101 180

10001101

177

4220 Error history

Actual frequency at time of abnormality

Fan step number at time of abnormality

IC1 LEV opening pulse at time of abnormality

IC2 LEV opening pulse at time of abnormality

IC3 LEV opening pulse at time of abnormality

IC4 LEV opening pulse at time of abnormality

IC5 LEV opening pulse at time of abnormality

10111101 189

00000011 192

10000011

193

11000011

195

00100011

196

197

11100011

01100011

10100011

198

199

High-pressure sensor data at abnormality kgf/F

00010011 200

TH4 sensor data at time of abnormality ˚C

10010011 201

TH6 sensor data at time of abnormality ˚C

01010011 202

TH3 sensor data at time of abnormality ˚C

11010011

203

TH8 sensor data at time of abnormality ˚C

00110011

204

IC1 SC/SH at time of abnormality ˚C

01110011

206

IC2 SC/SH at time of abnormality ˚C

11110011

207

IC3 SC/SH at time of abnormality ˚C

00001011 208

IC4 SC/SH at time of abnormality ˚C

10001011

209

IC5 SC/SH at time of abnormality ˚C

01001011 210

Display of indoor unit capacity mode

Display of indoor unit operating mode

Heating

Cooling

Display of opening pulse of indoor LEV

OFF

thermo

OFF

thermo

Display of data from high-pressure sensor,

all thermistors, and outdoor SC

Display of indoor SC/SH data

Display of all control target data

Display of opening pulse of indoor LEV

at time of abnormality

Display of SC/ SH data at time of

abnormality

Display of opening pulse of indoor LEV

at time of abnormality

Display of SC/ SH data at time of

abnormality

Display on the LED1, 2 (display data)

2345 6

0~255

Display mode Notes

IC6 Capacity code

IC7 Capacity code

IC8 Capacity code

thermo

Cooling

OFF Fan

IC6 operation mode

IC7 operation mode

0~2000

IC8 operation mode

IC6 LEV opening pulse

IC7 LEV opening pulse

IC8 LEV opening pulse

IC6 TH23(Gas) ˚C

IC7 TH23(Gas) ˚C

IC8 TH23(Gas) ˚C

IC6 TH22(Liquid) ˚C

-99.9 ~ 999.9

(When the indoor unit is not connected, it is displayed as"0".)

IC7 TH22(Liquid) ˚C

IC8 TH22(Liquid) ˚C

IC6 TH21(Intake) ˚C

IC7 TH21(Intake) ˚C

-99.9 ~ 999.9

IC8 TH21(Intake) ˚C

IC6 SC/SH ˚C

IC7 SC/SH ˚C

during heating:subcool (SC)/during cooling:superheat (SH)

SCm/SHm (0.0~14.0)

IC8 SC/SH ˚C

IC6 target SC/SH ˚C

IC7 target SC/SH ˚C

0~2000

IC8 target SC/SH ˚C

IC6 LEV opening pulse at abnormality delay

IC7 LEV opening pulse at abnormality delay

-99.9 ~ 999.9

IC8 LEV opening pulse at abnormality delay

IC6 SC/SH at abnormality delay ˚C

IC7 SC/SH at abnormality delay ˚C

IC8 SC/SH at abnormality delay ˚C

IC6 LEV opening pulse at time of abnormality

0~2000

IC7 LEV opening pulse at time of abnormality

-99.9 ~ 999.9

IC8 LEV opening pulse at time of abnormality

IC6 SC/SH at abnormality ˚C

IC7 SC/SH at abnormality ˚C

IC8 SC/SH at abnormality ˚C

11001011

12345678

SW1 setting

No.

211

212

11101011

01101011

214

215

00011011 216

00101011

10101011 213

10011011

217

01011011

218

11011011

219

00111011

220

10111011 221

01111011

222

223

00000111 224

10000111

225

01000111

226

11000111

227

00100111

228

10100111

229

01100111

230

11100111 231

00010111 232

10010111

233

01010111

234

11010111

235

00110111

236

11111011

10110111

237

01110111 238

11110111

239

00001111 240

10001111

241

01001111

242

11001111 243

00101111

244

10101111

245

01101111 246

10 ELECTRICAL WIRING

Outdoor unit

Indoor unit

Grounded

Pull box

Breaker for Wiring and Current Leakage

Power supply single phase 50Hz 220-230-240V 60Hz 220V

Breaker for Wiring and Current Leakage

Power supply single phase 50Hz 220-230-240V 60Hz 220V

(1) Use a separate power supply for the outdoor unit and indoor unit. (2) Bear in mind ambient conditions (ambient temperature, direct sunlight, rain water,etc.) when proceeding with the wiring and connections. (3) The wire size is the minimum value for metal conduit wiring. The power cord size should be 1 rank thicker consideration of voltage drops.

Make sure the power-supply voltage does not drop more than 10 %.

(4) Specific wiring requirements should adhere to the wiring regulations of the region. (5) Power supply cords of parts of appliances for outdoor use shall not be lighter than polychloroprene sheathed flexible cord (design 245 IEC57).

For example, use wiring such as YZW.

(6) Install an earth longer than other cables.

Warning:

· Be sure to use specified wires to connect so that no external force is imparted to terminal connections. If connections are not fixed firmly,

it may cause heating or fire.

· Be sure to use the appropriate type of overcurrent protection switch. Note that generated overcurrent may include some amount of direct

current. Caution:

· Some installation site may require attachment of an earth leakage breaker. If no earth leakage breaker is installed, it may cause an electric

shock.

· Do not use anything other than breaker and fuse with correct capacity. Using fuse and wire or copper wire with too large capacity may cause a

malfunction of unit or fire.

32 A 30 mA 0.1 sec. or less

15 A 30 mA 0.1 sec. or less

32 A 15 A

5.5(6)

1.5

5.5(6)

1.5

Indoor Unit

Main Cable

Minimum Wire Thickness (mm2)

Branch

Breaker for Current Leakage

Model

Outdoor Unit

P100-140

–

1.5

Breaker for

Wiring*1

Ground ~/N AC 220/230/240V 50Hz ~/N AC 220V 60Hz

~/N AC 220/230/240V 50Hz ~/N AC 220V 60Hz

Power Supply

This chapter provides an introduction to electrical wiring for the CITY MULTI-S series, including notes concerning power wiring, wiring for control (transmission wires and remote controller wires), and the frequency converter.

10-1. OVERVIEW OF POWER WIRING

10-2. WIRE DIAMETER AND MAIN POWER SWITCH CAPACITY

10-2-1. Wiring diagram for main power supply

10-2-2. Power supply wire diameter and capacity

*1. Abreaker with at least 3.0mm contact separation in each pole shall be provided. Use earth leakage breaker (NV). *2. Max. Permissive system Impedance : 0.22(")

10-3. DESIGN FOR CONTROL WIRING

Outdoor unit

Power supply Single phase 50Hz 220-230-240V 60Hz 220V

Power supply Single phase. 50Hz 220-230-240V 60Hz 220V

Grounded

Group operation

Remote controller wire

Pull box

Indoor unit

Breaker for Wiring and Current Leakage

15A Breaker for Wiring and Current Leakage

[1.6mm ✕ 2

0.5~1.25mm

✕ 2

1.25mm

✕ 2

Kind of remote control cable Cable diameter

2-core cable (unshielded)

0.3 to 1.25 mm

Please note that the types and numbers of control wires needed by the CITY MULTI-S series will depend on the remote controllers and whether they are linked with the system.

10-3-1. Selection number of control wires

M-NET remote controller

Use

Remote controller ➔ indoor unit

Wires connecting ➔ indoor units Wires connecting ➔ indoor units with outdoor unit Wires connecting ➔ outdoor units

wires

Transmission

10-3-2. Control signal wires

● Transmission wires

• Types of transmission cables : Shielding wire CVVS or CPEVS.

• Cable diameter : More than 1.25 mm

• Maximum wiring length : Within 200 m

10-3-3. M-NET Remote controller wiring

Remote controller used in system control operations.

• Group operation involving different refrigerant systems.

• Linked operation with upper control system.

2 wires (non-polar)

Kind of remote control cable

Cable diameter

Remarks

Shielding wire MVVS

0.5 to 1.25 mm

When cable exceeds 10m, use cable with the same specifications as 10-3-2.

10-3-4. MA Remote control cables

10-4. SYSTEM SWITCH SETTING

In order to identify the destinations of signals to the outdoor units, indoor units, and remote controller of the MULTI-S series, each microprocessor must be assigned an identification number (address). The addresses of outdoor units, indoor units, and remote controller must be set using their settings switches. Please consult the installation manual that comes with each unit for detailed information on setting procedures.

10-5. EXAMPLE EXTERNAL WIRING DIAGRAM FOR A BASIC SYSTEM

10-5-1. Example using a M-NET remote controller

10-6. METHOD FOR OBTAINING ELECTRICAL CHARACTERISTICS WHEN A CAPACITY

AGREEMENT IS TO BE SIGNED WITH AN ELECTRIC POWER COMPANY

The electrical characteristics of connected indoor unit system for air conditioning systems, including the MULTI-S series, will depend on the arrangement of the indoor and outdoor units. First read the data on the selected indoor and outdoor units and then use the following formulas to calculate the electrical characteristics before applying for a capacity agreement with the local electric power company.

10-6-1. Obtaining the electrical characteristics of a CITY MULTI-S series system

(1) Procedure for obtaining total power consumption

Page numbers in this technical manual

Total power consumption of each indoor unit

✻1 Power consumption of outdoor unit

Total power consumption of system

✻1 Please note that the power consumption of the outdoor unit will vary depending on the total capacity of the selected

indoor units.

(2) Method of obtaining total current

Total current through each indoor unit

✻2 Current through outdoor unit

current through system

Total

✻2 Please note that the

(3) Method of obtaining system power factor

Use the following formula and the total power and current obtained in parts 1 and 2 on the previous page to calculate the system power factor.

current through the outdoor unit will vary depending on the total capacity of the selected indoor units.

System power factor =

See the technical manual of each indoor unit

Standard capacity table— Refer to 5-2.

See the technical manual of each indoor unit

Page numbers in this technical manual

See the technical manual of each indoor unit

Standard capacity table— Refer to 5-2.

See the technical manual of each indoor unit

(Total system power consumption)

(Total system current x voltage)

Power consumption

1+2 <kW>

Subtotal

1+2 <A>

o 100%

10-6-2. Applying to an electric power company for power and total current

Calculations should be performed separately for heating and cooling employing the same methods; use the largest resulting value in your application to the electric power company.

11 REFRIGERANT PIPING TASKS

Line-Branch Method

Connection Examples (Connecting to Four Indoor Units)

Liquid Line

Gas Line

Piping Diameter (mm)Model

PUMY-P100-140

Liquid Line (mm) Gas Line (mm)

{15.88{9.52

Liquid Line

Gas Line

Liquid Line

Gas Line

Piping Diameter (mm)

Model number

50 or lower

63 to 140

{6.35 {12.7 {9.52 {15.88

Outdoor Unit First Branch Indoor unit

A B C

A+B+C+D+a+b+c+d+e [ 120m A+B+C+D+e [ 80m B+C+D+e [ 30m 30 meters or less (If the outdoor unit is lower, 20 meters or less) 12 meters or less Use an optional branch piping kit (CMY-Y62-G-E).

Total Piping Length Farthest Piping Length Farthest Piping Length After First Branch Height Difference in Indoor/Outdoor Section Height

Difference in Indoor/Indoor Section

Permissible

Length

Permissible High/

Low Difference

(L)

(R)

(H)

(h)

■ Selecting the Refrigerant Branch Kit

■ Select Each Section of Refrigerant Piping

■ Additional refrigerant charge

Select the size from the right table.

(1) Refrigerant Piping Diameter in Section

From Outdoor Unit to First Branch

(Outdoor Unit Piping Diameter)

(1) Section From Outdoor Unit

to First Branch (A)

(2) Sections From Branch to

Indoor Unit (a,b,c,d)

(3) Section From Branch to

Branch (B,C,D)

(3) Refrigerant Piping Diameter in Section

From Branch to Branch

(2) Refrigerant Piping Diameter in Section

From Branch to Indoor Unit

(Indoor Unit Piping Diameter)

• Refrigerant of 3kg equivalent to 50m total extended piping length is already charged

when the outdoor unit is shipped.

Thus, if the total extended piping length is

50m or less, there is no need to charge with additional refrigerant.

• If the total extended piping length exceeds 50m, calculate the required additional

refrigerant charge using the procedure shown on the right.

• If the calculated additional refrigerant charge is a negative amount, do not charge with any refrigerant.

<Example> Outdoor model : 125 Indoor 1 : 63 A : {9.52 10m a : {9.52 15m

2 : 40 b : {6.35 10m 3 : 25 c : {6.35 10m 4 : 20 d : {6.35 20m

The total length of each liquid line is as follows;

{9.52 : A + B + C + a = 10 + 10 + 10 + 15 = 45m {6.35 : b + c + d = 10 +10 + 20 = 40m

<Calculation example> Additional refrigerant charge = 45

✕ 0.06 + 40 ✕ 0.024 – 3.0 = 0.7kg (rounded up)

Additional refrigerant charge

(kg)

Liquid pipe size Total length of {9.52 ✕ 0.06

(m) ✕ 0.06 (kg/m)

Liquid pipe size Total length of {6.35 ✕ 0.024

(m) ✕ 0.024 (kg/m)

Refrigerant amount for outdoor unit

3.0kg

–

At the conditions below:

{9.52 {15.88

B C

b c d

CCC

11-1. REFRIGERANT PIPING SYSTEM

Header-Branch Method

Connection Examples (Connecting to Four Indoor Units)

Permissible

Length

Permissible High/

Low Difference

■ Selecting the Refrigerant Branch Kit

■ Select Each Section of Refrigerant Piping

(1) Section from Outdoor Unit

to First Branch (A)

(2) Sections from Branch to

Indoor Unit (a,b,c,d,e,f)

Select the size from the right table.

Total Piping Length Farthest Piping Length Farthest Piping Length After First Branch Height Difference in Indoor/Outdoor Section Height

Difference in Indoor/Indoor Section

A+a+b+c+d+e+f [ 120m

(L)

A+f [ 80m

(R)

f is 30 meters or less

(H)

30 meters or less (If the outdoor unit is lower, 20 meters or less)

(h)

12 meters or less Please select branching kit, which is sold separately, from the table below.

(The kit comprises sets for use with liquid pipes and for use with gas pipes.)

Branch header (4 branches)

CMY-Y64-G-E

(1) Refrigerant Piping Diameter in Section

From Outdoor Unit to First Branch (Outdoor Unit Piping Diameter)

PUMY-P100-140

Piping Diameter (mm)Model

Liquid Line

Gas Line

c d

e f

CCc

Branch header (8 branches)

CMY-Y68-G-E

(2) Refrigerant Piping Diameter in Section

From Branch to Indoor Unit (Indoor Unit Piping Diameter)

{9.52 {15.88

50 or lower

63 to 140

Outdoor Unit

First Branch

Indoor unit

CAP

Piping Diameter (mm)Model number

Liquid Line

Gas Line

Liquid Line

Gas Line

{6.35 {12.7 {9.52 {15.88

■ Additional refrigerant charge

• Refrigerant of 3kg equivalent to 50m total extended piping length is already charged

when the outdoor unit is shipped.

Thus, if the total extended piping length is 50m or less, there is no need to charge with additional refrigerant.

• If the total extended piping length exceeds 50m, calculate the required additional

refrigerant charge using the procedure shown on the right.

• If the calculated additional refrigerant charge is a negative amount, do not charge with any refrigerant.

Additional refrigerant charge

<Example> Outdoor : 125 Indoor 1 : 63 A : {9.52 30m a : {9.52 15m

2 : 40 b : {6.35 10m 3 : 25 c : {6.35 10m 4 : 20 d : {6.35 20m

The total length of each liquid line is as follows;

{9.52 : A + a = 30 + 15 = 45m {6.35 : b + c + d = 10 + 10 + 20 = 40m

<Calculation example> Additional refrigerant charge = 45

(kg)

Liquid pipe size Total length of {9.52 ✕ 0.06

(m) ✕ 0.06 (kg/m)

✕ 0.06 + 40 ✕ 0.024 – 3.0 = 0.7kg (rounded up)

Liquid pipe size Total length of {6.35 ✕ 0.024

(m) ✕ 0.024 (kg/m)

Refrigerant amount for outdoor unit

–

At the conditions below:

3.0kg

Method of Combined Branching of Lines and Headers

Connection Examples (Connecting to Five Indoor Units)

Note:Pipe re-branching after the header branching

is not possible.

D D D

Note:The total of downstream unit models in the

table is the total of models as seen from point A in the figure below.

d e

Outdoor unit

First branching (branching joint)

Branching joint

Indoor unit

Branching header

To downstream unit

Blind caps

Permissible

Length

Permissible High/

Low Difference

Farthest Piping Length Farthest Piping Length After First Branch Height Difference in Indoor/Outdoor Section Height

Difference in Indoor/Indoor Section

■ Selecting the Refrigerant Branch Kit

■ Select Each Section of Refrigerant Piping

(1) Section from Outdoor Unit

to First Branch (A)

(2) Sections from Branch to

Indoor Unit (a,b,c,d,e)

(3) Section From Branch to

Branch (B,C)

Select the size from the right table.

■ Additional refrigerant charge

• Refrigerant of 3kg equivalent to 50-m total extended piping length is already charged when the outdoor unit is shipped. Thus, if the total extended piping length is 50m or less, there is no need to charge with additional refrigerant.

• If the total extended piping length exceeds 50m, calculate the required additional refrigerant charge using theprocedure shown on the right.

• If the calculated additional refrigerant charge is a negative amount, do not charge with any refrigerant.

Total Piping Length

A+B+C+a+b+c+d+e is 120 meters or less

(L)

A+B+b is 80 meters or less

(R)

B+b is 30 meters or less

(H)

30 meters or less (If the outdoor unit is lower, 20 meters or less)

(h)

12 meters or less Please select branching kit, which is sold separately, from the table below.

(The kit comprises sets for use with liquid pipes and for use with gas pipes.)

Branch joint

CMY-Y62-G-E

(1) Refrigerant Piping Diameter in Section

From Outdoor Unit to First Branch (Outdoor Unit Piping Diameter)

Piping Diameter (mm)Model

PUMY-P100-140

Liquid Line

Gas Line

Branch header (4 branches)

CMY-Y64-G-E

(2) Refrigerant Piping Diameter in Section

From Branch to Indoor Unit (Indoor Unit Piping Diameter)

Model number

{9.52 {15.88

50 or lower

Branch header (8 branches)

63 to 140

(3) Refrigerant Piping Diameter in Section

From Branch to Branch

Liquid Line (mm) Gas Line (mm)

{15.88{9.52

Additional refrigerant charge

(kg)

Liquid pipe size Total length of {9.52 ✕ 0.06

(m) ✕ 0.06 (kg/m)

Liquid pipe size Total length of {6.35 ✕ 0.024

(m) ✕ 0.024 (kg/m)

<Example> Indoor 1 : 50 A : {9.52 10m a : {9.52 5m

2 : 40 B : {9.52 20m b : {6.35 10m 3 : 32 C : {9.52 10m c : {6.35 5m 4 : 20 d : {6.35 5m

At the conditions below:

5 : 20 e : {6.35 5m

The total length of each liquid line is as follows;

{9.52 : A + B + C + a = 10 + 20 +10 + 5 = 45m {6.35 : b + c + d + e = 10 + 5 + 5 + 5 = 25m

<Calculation example> Additional refrigerant charge = 45

✕ 0.06 + 25 ✕ 0.024 – 3.0 = 0.3kg (rounded up)

CMY-Y68-G-E

Piping Diameter (mm)

Liquid Line

Gas Line

Liquid Line

Gas Line

Refrigerant amount for outdoor unit

–

{6.35 {12.7 {9.52 {15.88

125: 3.0kg

11-2. PRECAUTIONS AGAINST REFRIGERANT LEAKAGE

Indoor unit

All refrigerant of this system will leak out to this room if there is leakage at this indoor unit.

Direction of refrigerant flow

Outdoor unit

11-2-1. Introduction

R410A refrigerant of this air conditioner is non-toxic and non-flammable but leaking of large amount from an indoor unit into the room where the unit is installed may be deleterious. To prevent possible injury, the rooms should be large enough to keep the R410A concentration specified by KHK : (a high pressure gas safety association) installation guidelines S0010 as follows.

(2) Calculate room volumes (K) and find the room

with the smallest volume

The part with represents the room with the smallest volume.

(a) Situation in which there are no partitions

Outdoor unit

✻ Maximum concentration Maximum refrigerant concentration of R410A of a room is 0.30 kg/K accordance with the installation guidelines.

To facilitate calculation, the maximum concentration is expressed in units of O/K ( kg of R410A per K)

Maximum concentration of R410A: 0.3O/K

(KHK installation guidelines S0010)

11-2-2. Confirming procedure of R410Aconcentration

Follow (1) to (3) to confirm the R410A concentration and take appropriate treatment, if necessary.

Indoor unit

(b) There are partitions, but there are openings that allow

the effective mixing of air.

Outdoor unit

Indoor unit

Opening

Wall

tus that is linked to a household gas detection and alarm device, the calculations should be performed for the second smallest room.

(Situation in which there are no door openings or in which there are openings above and blow doors that occupy at least 0.15% of the floor area)

(1) Calculate total refrigerant amount by each refrig-

erant system. Total refrigerant amount is precharged refrigerant amount at ex-factory plus additional charged amount at field installation.

Note: When single refrigeration system is consists of several independent refrigeration circuit, figure out the total refrigerant amount by each independent refrigerant circuit.

Outdoor unit

Ventilation apparatus

Indoor unit

The smallest room

The second smallest room

(3) Use the results of calculations (1)and (2) to calcu-

late the refrigerant concentration:

Total refrigerant in the refrigerating unit (O) The smallest room in which an indoor

unit has been installed (K)

If the calculation results do not exceed the maximum concentration, perform the same calculations for the larger second and third room, etc., until it has been determined that nowhere will the maximum concentration be exceeded.

[ maximum concentration(O/K)

Maximum concentration of R410A:0.3O/K

12 DISASSEMBLY PROCEDURE

OUTDOOR UNIT : PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

OPERATING PROCEDURE

1. Removing the service panel and top panel

(1) Remove 3 service panel fixing screws (5 ✕ 10) and slide

the hook on the right downward to remove the service panel.

(2) Remove screws (3 for front, 3 for rear/5 ✕ 10) of the top

panel and remove it.

2. Removing the fan motor (MF1, MF2)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove 5 fan grille fixing screws (5 ✕ 10) to detach the

fan grille. (See figure 1.)

(4) Remove a nut (for right handed screw of M6) to detach

the propeller. (See photo 1.)

(5) Disconnect the connectors, CNF1 and CNF2 on Multi

controller board in electrical parts box.

(6) Remove 4 fan motor fixing screws (5 ✕ 25) to detach the

fan motor. (See photo 2.)

Figure 1

Grille fixing screws

Photo 1

Nut

PHOTOS & ILLUSTRATION

Top panel fixing screws

Slide

Front panel

Propeller

Photo 2

Fan motor fixing screws

Top panel

Service panel

Fan grille

Service panel fixing screws

Fan motor

3. Removing the electrical parts box

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Disconnect the connecting wire from terminal block. (4) Remove all the following connectors from Multi controller board;

fan motor, thermistor <Outdoor pipe>, thermistor <Discharge>, thermistor <Low pressure saturated temp>, thermistor <Outdoor>, high pressure switch, high pressure sensor, low pressure switch, 4-way valve coil and bypass valve coil. Pull out the disconnected wire from the electrical parts box. <Diagram symbol in the connector housing>

• Fan motor (CNF1, CNF2)

• Thermistor <Outdoor pipe> (TH3)

• Thermistor <Discharge> (TH4)

• Thermistor <Low pressure saturated temp, Outdoor> (TH6/7)

• High pressure switch (63H)

• High pressure sensor (63HS)

• Low pressure switch (63L)

• 4-way valve coil (21S4)

• Bypass valve coil (SV1)

(5) Remove the terminal cover and disconnect the compressor

lead wire.

Fan motor fixing screws

Photo 3

Electrical parts box

Multi controller board (MULTI.B)

Terminal block (TB3) (TB7)

Terminal block (TB1)

Valve bed Compressor (MC) Terminal cover

Cover panel (Front)

Cover panel fixing screws

Continued to the next page.

From the previous page.

OPERATING PROCEDURE

(6) Remove electrical parts box fixing screw (4 ✕ 10) and

detach the electrical parts box by pulling it upward. The electrical parts box is fixed with 2 hooks on the left and 1 hook on the right.

4. Removing the thermistor <Low pressure saturated temp.> (TH6)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Disconnect the connectors, TH6 and TH7 (red), on the

Multi controller board in the electrical parts box. (4) Loosen the wire clamps on top of the electrical parts box. (5) Pull out the thermistor <Low pressure saturated temp.>

(TH6) from the sensor holder.

Note: In case of replacing thermistor <Low pressure

saturated temp.> (TH6), replace it together with thermistor <Outdoor> (TH7) since they are combined together. Refer to No.5 below to remove thermistor <Outdoor(TH7)>.

Photo 4

Photo 5

PHOTOS & ILLUSTRATION

Electrical parts box

Electrical parts box fixing screw

Thermistor <TH6>Electrical parts box

5. Removing the thermistor <Outdoor> (TH7)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Disconnect the connector TH7 (red) on the Multi controller

board in the electrical parts box. (4) Loosen the wire clamps on top of the electrical parts box.

(See photo 4.) (5) Pull out the thermistor <Outdoor> (TH7) from the sensor

holder.

Note: In case of replacing thermistor <Outdoor> (TH7),

replace it together with thermistor <Low pressure

saturated temp> (TH6), since they are combined

together.

Refer to No.4 above to remove thermistor <Low

pressure saturated temp>.

Photo 6

Thermistor <Outdoor> (TH7)

Lead wire of thermistor <Outdoor> (TH7)

PUMY-P100/125/140VHM

Sensor holder

PUMY-P100/125/140VHMA

Sensor holder

OPERATING PROCEDURE

6. Removing the thermistor <Outdoor pipe> (TH3) and thermistor <Discharge> (TH4)

(1) Remove the service panel. (See figure 1.) (2) Disconnect the connectors, TH3 (white) and TH4 (white),

on the Multi controller board in the electrical parts box.

(3) Loosen the clamp for the lead wire in the rear of the

electrical parts box.

(4) Pull out the thermistor <Outdoor pipe> (TH3) and

thermistor <Discharge> (TH4) from the sensor holder.

PHOTOS

Photo 7

Thermistor <Outdoor pipe>

(TH3)

7. Removing the 4-way valve coil (21S4)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.)

[Removing the 4-way valve co il]

(3) Remove 4-way valve coil fixing screw (M4 ✕ 6). (4) Remove the 4-way valve coil by sliding the coil toward you. (5) Disconnect the connector 21S4 (green) on the Multi

controller board in the electrical parts box.

8. Removing the 4-way valve

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove 3 valve bed fixing screws (4 ✕ 10) and 4 ball

valve and stop valve fixing screws (5 ✕ 16) and then remove the valve bed.

(4) Remove 4 right side panel fixing screw (5 ✕ 10) in the

rear of the unit and then remove the right side panel. (5) Remove the 4-way valve coil. (See photo 8.) (6) Recover refrigerant. (7) Remove the welded part of four-way valve.

Note 1: Recover refrigerant without spreading it in the air. Note 2: The welded part can be removed easily by remov-

ing the right side panel.

Note 3: When installing the four-way valve, cover it with a

wet cloth to prevent it from heating (120°C or more), then braze the pipes so that the inside of pipes are not oxidized.

Photo 8

4-way valve coil fixing screw

Compressor (MC)

4-way valve coil (21S4)

Thermistor <Discharge>

(TH4)

4-way valve

Thermistor <Low pressure saturated temp.> (TH6)

OPERATING PROCEDURE

9. Removing bypass valve coil (SV1) and bypass valve

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove 3 right side panel fixing screws (5 ✕ 10) in the

rear of the unit and remove the right side panel. (4) Remove the bypass valve coil fixing screw (M4 ✕ 6). (5) Remove the bypass valve coil by sliding the coil upward. (6) Disconnect the connector SV1 (white) on the Multi

controller circuit board in the electrical parts box. (7) Recover refrigerant. (8) Remove the welded part of bypass valve.

PHOTOS

Photo 9

Note 1: Recover refrigerant without spreading it in the air. Note 2: The welded part can be removed easily by

removing the right side panel.

10. Removing the high pressure switch (63H) and low pressure switch (63L)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove the electrical parts box. (See photo 4.) (4) Remove 3 right side panel fixing screws (5 o 10) in the

rear of the unit and remove the right side panel.

(5) Pull out the lead wire of high pressure switch and low

pressure switch. (6) Recover refrigerant. (7) Remove the welded part of high pressure switch and low

pressure switch.

Note 1: Recover refrigerant without spreading it in the air. Note 2: The welded part can be removed easily by remov-

ing the right side panel.

Note 3: When installing the high pressure switch and low

pressure switch, cover them with a wet cloth to prevent them from heating (100°C or more), then braze the pipes so that the inside of pipes are not oxidized.

High pressure switch (63H)

Bypass valve coil fixing screw

Bypass valve coil (SV1)

Bypass valve

High pressure sensor (63HS)

Photo 10

11. Removing the high pressure sensor (63HS)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove the electrical parts box. (See photo 4.) (4) Remove 3 right side panel fixing screws (5 o 10) in the

rear of the unit and remove the right side panel. (5) Pull out the lead wire of high pressure sensor. (6) Recover refrigerant. (7) Remove the welded part of high pressure sensor.

Note 1: Recover refrigerant without spreading it in the air. Note 2: The welded part can be removed easily by remov-

ing the right side panel.

Note 3: When installing the high pressure sensor, cover it

with a wet cloth to prevent it from heating (100°C or more), then braze the pipes so that the inside of pipes are not oxidized.

High pressure sensor (63HS)

Low pressure switch (63L)

OPERATING PROCEDURE

PHOTOS

12. Removing the compressor (MC)

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove 2 front cover panel fixing screws (5 ✕ 10) and

remove the front cover panel. (See photo 3.)

(4) Remove 2 back cover panel fixing screws (5 ✕ 10) and

remove the back cover panel. (5) Remove the electrical parts box. (See photo 4.) (6) Remove 3 valve bed fixing screws (4 ✕ 10) and 4 ball valve

and stop valve fixing screws (5 ✕ 16) and then remove the valve bed.

(7) Remove 3 right side panel fixing screw (5 ✕ 10) in the rear

of the unit and then remove the right side panel.

(8) Remove 3 separator fixing screws (4 ✕ 10) and remove

the separator. (9) Recover refrigerant. (10) Remove the 3 compressor fixing nuts for motor using

spanner or adjustable wrench.

(11) Remove the welded pipe of motor for compressor inlet

and outlet and then remove the compressor.

Note: Recover refrigerant without spreading it in the air.

13. Removing the accumulator

(1) Remove the service panel. (See figure 1.) (2) Remove the top panel. (See figure 1.) (3) Remove 2 front cover panel fixing screws (5 ✕ 10) and

remove the front cover panel. (See photo 3.)

(4) Remove 2 back cover panel fixing screws (5 ✕ 10) and

remove the back cover panel. (5) Remove the electrical parts box. (See photo 4.) (6) Remove 3 valve bed fixing screws (4 ✕ 10) and 4 ball valve

and stop valve fixing screws (5 ✕ 16) and then remove the valve bed.

(7) Remove 3 right side panel fixing screw (5 ✕ 10) in the

rear of the unit and then remove the right side panel. (8) Recover refrigerant. (9) Remove 4 welded pipes of power receiver inlet and outlet. (10) Remove 2 receiver leg fixing screws (4 ✕ 10).

(See photo 13.)

Photo 11

Valve bed fixing

screw

Compressor (MC)

Photo 12

Valve bed

Separator

Separator fixing screw

Valve bed fixing screws

Accumulator

Compressor

fixing nut

Inlet

Outlet

Accumulator

Note: Recover refrigerant without spreading it in the air.

Photo 13

Accumulator

Accumulator leg

Accumulator leg fixing screws

4567

Part No.

Part Name

Specification

No.

Wiring

Diagram

Symbol

Recom-

mended

Q'ty

PUMY-P125VHM

Remarks

(Drawing No.)

1 2 3 4 5 6 7 8

9 10 11 12 13 14 15 16 17

1 2 1 1 1 1 1 2 1 1 1 1 1 1 1 1

(DG12F536H10)

(BK00C143G80)

(BK00C142G15)

(DG79R130H01)

– T7W E02 662 T7W E02 691 T7W E02 667

– R01 E14 686 R01 E25 130

– R01 30L 655 R01 E13 658 R01 E11 658 R01 E24 661 T7W E03 668

– R01 E01 698 R01 E04 641 R01 E00 655

F.ST SCREW SIDE PANEL (L) FAN GRILLE FRONT PANEL SEPARATOR BASE ASSY MOTOR SUPPORT VALVE BED ASSY HANDLE COVER PANEL (FRONT) COVER PANEL (REAR) SIDE PANEL (R) SERVICE PANEL LABEL (MITSUBISHI) REAR GUARD TOP PANEL HANDLE

Q'ty/set

(5✕10)

13 PARTS LIST (non-RoHS compliant)

13-1. STRUCTURAL PARTS PUMY-P125VHM

13-2. FUNCTIONAL PARTS PUMY-P125VHM

Part numbers that are circled are not shown in the figure.

Part No. Part Name SpecificationNo.

Wiring

Diagram

Symbol

Recom-

mended

Q,ty

Remarks

(Drawing No.)

Q,ty/set

1 2 3 4

6 7 8

9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35

2 2 2 2

1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 2 1 1 1 1 1 1 1 1 1 2

R01 E44 221 R01 E01 115 R01 E02 097 R01 E06 413

T97 410 742

R01 E09 410 R01 E09 411 R01 E03 450 R01 E35 440 R01 E09 490 R01 E22 425 T7W E04 208 R01 25T 209 R01 E09 428 T7W E08 242 T7W E25 242 R01 E26 403 R01 E75 202 R01 E04 208 T7W E26 408 T7W E02 259 T7W A13 716 T7W E14 346 R01 H76 310 T7W E17 716 R01 E01 311 T7W E01 234 T7W E09 259 T7W E26 313 T7W E01 233 T7W E09 254 R01 E66 202 R01 E00 201 R01 E65 202 R01 E02 239

FAN MOTOR PROPELLER FAN NUT CHARGE PLUG

COMPRESSOR

STOP VALVE BALL VALVE STRAINER ACCUMULATOR OIL SEPARATOR CAPILLARY TUBE H.P SENSOR LOW PRESSURE SWITCH BYPASS VALVE SOLENOID VALVE COIL <BYPASS VALVE> SOLENOID COIL <FOUR-WAY VALVE> 4-WAY VALVE THERMISTOR HIGH PRESSURE SWITCH HEAT EXCHANGER CONTACTOR TERMINAL BLOCK NOISE FILTER CIRCUIT BOARD MULTI CONTROLLER CIRCUIT BOARD TERMINAL BLOCK TRANSMISSION POWER BOARD RESISTOR REACTOR POWER CIRCUIT BOARD ACT MODULE MAIN SMOOTHING CAPACITOR THERMISTOR (OUTDOOR PIPE) THERMISTOR (DISCHARGE) THERMISTOR (HEATSINK) FUSE

PUMY-P125VHM

MF1,2

63HS

63L

SV1

21S4

TH6,7

63H

52C TB1

N.F. MULTI.B. TB3, TB7

M-P.B.

DCL

P.B.

ACTM

CB TH3 TH4 TH8

F1, 2

ANB33FDCMT Including RUBBER MOUNT

3/8 5/8

[2.5O[0.8O1000mm

3P (L,N, ;)

3P (M1, M2, S)

250V 6.3A

14 RoHS PARTS LIST

14-1. FUNCTIONAL PARTS PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM

Part numbers that are circled are not shown in the figure.

Part No. Part Name SpecificationNo.

Wiring

Diagram

Symbol

Recom-

mended

Q'ty

Remarks

(Drawing No.)

Q'ty/set

1 2 3 4

6 7 8

9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35

RoHS

G G G G

G G G G G G G G G G G G G G G G G G G G G G G G G G G G G G

2 2 2 2

1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 2 1 1 1 1 1 1 1 1 1 2

R01 E44 221 R01 E08 115 R01 E09 097 R01 E14 413

T97 415 742

R01 E13 410 R01 E11 411 R01 E06 450 R01 E44 440 R01 E12 490 R01 E26 425 R01 E07 208 R01 E00 209 R01 E14 428 T7W E32 242 T7W E25 242 R01 E26 403 R01 H01 202 R01 E06 208 T7W E39 408 T7W E10 259 T7W A15 716 T7W E16 346 R01 N21 310 T7W E31 716 R01 E02 311 R01 E00 234 R01 E20 259 T7W E31 313 T7W E01 233 R01 E20 254 R01 H00 202 R01 E12 201 R01 E99 202 R01 E06 239

FAN MOTOR PROPELLER FAN NUT CHARGE PLUG

COMPRESSOR

STOP VALVE BALL VALVE STRAINER ACCUMULATOR OIL SEPARATOR CAPILLARY TUBE H.P SENSOR LOW PRESSURE SWITCH BYPASS VALVE SOLENOID VALVE COIL <BYPASS VALVE> SOLENOID COIL <FOUR-WAY VALVE> FOUR-WAY VALVE THERMISTOR HIGH PRESSURE SWITCH HEAT EXCHANGER CONTACTOR TERMINAL BLOCK NOISE FILTER CIRCUIT BOARD MULTI CONTROLLER CIRCUIT BOARD TERMINAL BLOCK TRANSMISSION POWER BOARD RESISTOR REACTOR POWER CIRCUIT BOARD ACT MODULE MAIN SMOOTHING CAPACITOR THERMISTOR (OUTDOOR PIPE) THERMISTOR (DISCHARGE) THERMISTOR (HEATSINK) FUSE

PUMY-

P100, 125, 140VHM

MF1,2

63HS

63L

SV1

21S4

TH6,7

63H

52C

TB1

N.F. MULTI.B. TB3, TB7

M-P.B.

DCL

P.B.

ACTM

CB TH3 TH4 TH8

F1, 2

ANB33FDCMT Including RUBBER MOUNT

3/8 5/8

[2.5O[0.8O1000mm

3P (L,N, ;)

3P (M1, M2, S)

250V 6.3A

FUNCTIONAL PARTS PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

19 18

15 14

13 12

11 10

Part No. Part Name SpecificationNo.

RoHS

Wining

Diagram

Symbol

Recommended

Q'ty

Remarks

(Drawing No.)

Q'ty/set

1 2 3 4

6 7 8

9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33

G G G G

G G G G G G G G G G G G G G G G G G G G G G G G G G G G

2 2 2 2

1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 2 1 1 1 1 1 1 1 1 1 1 2

T7W E27 763 R01 E08 115 R01 E09 097 R01 E14 413

T97 415 755

R01 E13 410 R01 E11 411 R01 E06 450 R01 E44 440 R01 E12 490 R01 E26 425 R01 E07 208 R01 E00 209 R01 E14 428 R01 E57 242 T7W E25 242 R01 E32 403 R01 H01 202 R01 E06 208 T7W E39 408 R01 N56 310 R01 E27 246 R01 E02 311 R01 E20 259 R01 E65 313 R01 E07 233 T7W A15 716 T7W E22 346 R01 E99 202 R01 E22 255 R01 H00 202 R01 E12 201 R01 E06 239

FAN MOTOR PROPELLER FAN NUT CHARGE PLUG

COMPRESSOR

STOP VALVE BALL VALVE STRAINER ACCUMULATOR OIL SEPARATOR CAPILLARY TUBE H.P SENSOR LOW PRESSURE SWITCH BYPASS VALVE SOLENOID COIL <BYPASS VALVE> SOLENOID COIL <4-WAY VALVE> 4-WAY VALVE THERMISTOR HIGH PRESSURE SWITCH HEAT EXCHANGER CONTROLLER CIRCUIT BOARD TERMINAL BLOCK M-POWER BOARD REACTOR POWER CIRCUIT BOARD ACT MODULE TERMINAL BLOCK NOISE FILTER CIRCUIT BOARD THERMISTOR (HEATSINK) MAIN SMOOTHING CAPACITOR THERMISTOR (OUTDOOR PIPE) THERMISTOR (DISCHARGE) FUSE

PUMY-

P100, 125, 140VHMA

MF1,2

63HS

63L

SV1

21S4

TH6,7

63H

C.B.

TB3, TB7

M-NET.P.B.

DCL

P.B.

ACTM

TB1

N.F.

TH8

CE TH3 TH4

F1, 2

ANB33FDHMT Including RUBBER MOUNT

3/8 5/8

[2.5O[0.8O1000mm

3P (M1, M2, S)

3P (L, N, ;)

250V, 6.3A

Part numbers that are circled are not shown in the figure.

14-2. STRUCTURAL PARTS

4567

Part No. Part Name

Specification

No.

Wiring

Diagram

Symbol

Recom-

mended

Q'ty

PUMY-P100,125,140VHM

PUMY-P100,125,140VHMA

Remarks

(Drawing No.)

1 2 3 4 5 6 7 8

9 10 11 12 13 14 15 16 17

RoHS

G G G G G G G G G G G G G G G G G

1 2 1 1 1 1 1 2 1 1 1 1 1 1 1 1

(DG12F536H10)

(BK00C143G99)

(BK00C142G15)

(DG79R130H01)

– T7W E03 662 T7W E03 691 T7W E06 667

– R01 E31 686 R01 E27 130

– R01 E01 655 R01 E13 658 R01 E11 658 R01 E32 661 T7W E08 668

– R01 E07 698 R01 E14 641 R01 E02 655

Q'ty/set

(5✕10)

PUMY-P100VHM PUMY-P125VHM PUMY-P140VHM PUMY-P100VHMA PUMY-P125VHMA PUMY-P140VHMA

15 OPTIONAL PARTS

DRAIN SOCKET

Part No. PAC-SG61DS-E

AIR OUTLET GUIDE

Part No. PAC-SG59SG-E

w Need 2 pieces.

AIR GUIDE

Part No. PAC-SH63AG-E

w Need 2 pieces.

DRAIN PAN

Part No. PAC-SG64DP-E

FILTER DRYER (For liquid line : [[9.52)

Part No. PAC-SG82DR-E

w Only for R410A model (Don’t use for R22 model.)

BRANCH PIPE (Joint)

Part No. CMY-Y62-G-E CMY-Y64-G-E CMY-Y68-G-E

NUMBER OF BRANCHING POINTS

4 8

HEAD OFFICE : TOKYO BLDG., 2-7-3, MARUNOUCHI, CHIYODA-KU, TOKYO100-8310, JAPAN

cCopyright 2006 MITSUBISHI ELECTRIC ENGINEERING CO., LTD. Distributed in Jan. 2008 No. OC376 REVISED EDITION-B PDF 9 Distributed in Aug. 2006 No. OC376 REVISED EDITION-APDF 8 Distributed in Mar. 2006 No. OC376 PDF 9 Made in Japan

New publication, effective Jan. 2008 Specifications subject to change without notice

Mitsubishi Electronics OC376 User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual