· PUMY-P100VHM and
PUMY-P140VHM are
added in REVISED
EDITION-A.
· RoHS PARTS LIST has
been added.
· Some descriptions have
been modified.
· Please void OC376.
···20
1SAFETY PRECAUTION
Use new refrigerant pipes.
Make sure that the inside and outside of refrigerant piping is 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 enter 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 enter into refrigerant cycle, that can
cause deterioration of refrigerant oil or malfunction of compressor.
If large amount of mineral oil enter, 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.
1-1. CAUTIONS RELATED TO NEW REFRIGERANT
Cautions for units utilizing refrigerant R410A
2
[1] Cautions for service
(1) Perform service after collecting 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.Specifications
1Gauge manifold·Only for R410A
·Use the existing fitting
·Use high-tension side pressure of 5.3MPa·G or over.
2Charge hose·Only for R410A
·Use pressure performance of 5.09MPa·G or over.
3Electronic scale
4Gas leak detector·Use the detector for R134a, R407C or R410A.
5Adaptor for reverse flow check·Attach on vacuum pump.
6Refrigerant charge base
7Refrigerant cylinder·Only for R410ATop of cylinder (Pink)
Bender
Pipe cutter
Welder and nitrogen gas cylinder
Refrigerant charging scale
Vacuum gauge or thermistor vacuum gauge and
vacuum valve
Charging cylinder
Air purge and refrigerant
charge, operation check
Gas leak check
Collection of refrigerant
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
Charge refrigerant
Check the degree of vacuum. (Vacuum
valve prevents back flow of oil and refrigerant to thermistor vacuum gauge)
Charge refrigerant
Tool exclusive for R410A
Tool exclusive for R410A
Tool for HFC refrigerant
Tool exclusive for R410A
Tool exclusive for R410A
Ester oil and alkylbenzene
oil (minimum amount)
Tool exclusive for R410A
Tool exclusive for R410A
Tools can be used for other
refrigerants if equipped with
adopter for reverse flow check
Tools can be used for other
refrigerants by adjusting
flaring dimension
Tools can be used for other refrigerants
Tools can be used for other refrigerants
Tools can be used for other refrigerants
Tools can be used for other refrigerants
Tools can be used for other
refrigerants
Tool exclusive for R410A
Tools and materialsUseR410A toolsCan 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:
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 R410Ais 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 of its working pressure is higher than that of other
refrigerants. Therefore, to enhance airtightness and intensity, flare cutting dimension of copper pipe for R410A has been
specified separately from the dimensions for other refrigerants as shown below. The dimension B of flare nut for R410A
also has 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”, 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.)
• 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
2-1. UNIT CONSTRUCTION
*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
(One indoor unit of Fresh Air type is connected with one outdoor unit.)
Operating temperature range (outdoor temperature) for fresh air type indoor units differ from other indoor units.
Refer to 2-2(3).
capacity is 110%(100% in case of heating below -5
:(23˚F)).
5
2-2. UNIT SPECIFICATIONS
P L F Y - P 80 V AM - EPU M Y - P 125 VH M
PAC type
AM
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)
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
M-NET control
Frequency
conversion
controller
Outdoor unit
MULTI-S
Service Ref.
Capacity
Cooling (kW)
Heating (kW)
PUMY-P140VHM
15.5
18.0
3.3
PUMY-P125VHM
14.0
16.0
2.9
PUMY-P100VHM
11.2
12.5
2.2Motor for compressor (kW)
Cooling
W.B. 15~24°C
D.B. -5~46°C
w1
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:
w
2
W.B.15.5~35:
D.B.-10~20:
w
3
intake air temperature
P140
D.B.21~43:
w
2
W.B.15.5~35:
D.B.-5~20:
w
3
w
2.Thermo-off(FAN-mode) automatically starts if the outdoor temp. is lower than 21:D.B..
w
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.
6
3SPECIFICATIONS
PUMY-P100VHM
Cooling CapacitykW14.0
Heating CapacitykW16.0
Input (Cool
Input Current (Cool
Power factor (Cool
Input (Heat
Input Current (Heat
Power factor (Heat
EER (Cool
COP (Heat
)
)
)
)
)
)
)
)
Connectable indoor units (Max.
*3
*3
*3
*3
*3
*3
kW4.32
A
%
kW4.33
A
%
*3
*3
)
Max. Connectable CapacitykW18.2 (130%
Power Supply
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
Starting methodInverter
Crankcase heaterW—
Heat exchangerPlate fin coil (Anti corrosion fin treatment
Fan
Fan (drive) o
No.Propeller fan o 2
Fan motor outputkW0.060 + 0.060
Airflowk/min(CFM
Dimensions (HxWxD
)
Wmm
Dmm
Hmm
(
in.
(
in.
(
in.
Weightkg(lbs
)
)
)
)
)
100 (3,530
950(37-3/8
330+30(13+1-3/16
1,350(53-1/8
127(280
)
)
)
)
)
RefrigerantR410A
Chargekg(lbs
Oil (Model
)
L
)
8.5 (18.7
2.3 (MEL56
)
)
ProtectionHigh pressure protectionHP switch
devicesCompressor protectionDischarge thermo, Over current detection
Fan motor protectionOverheating/Voltage protection
Total Piping length (Max.
)
m
120
Farthestm80
Max Height differencem30
*1
Chargeless lengthm50
Piping diameter
Gas[mm15.88 (5/8"
Liquid[mm9.52 (3/8"
Guaranteed operation range
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:
(
cool
(
heat
)
)
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~ 46: DB
-15~ 15: WB
)
)
*2
)
)
7
4DATA
Model 20
Model Number for indoor unit
Model Capacity
22
Model 2528Model 3236Model 4045Model 5056Model 6371Model 7180Model 8090Model 100
112
Model 125
140
Model 140
160
4-1. COOLING AND HEATING CAPACITY AND CHARACTERISTICS
4-1-1. 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 4-2.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 4-2. 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
4-1-2. 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 4-1-1. (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 4-1-2. (1):
Model 25=14.6 o= 2.43kW
Model 50=14.6 o= 4.87kW
2.8
16.8
5.6
16.8
o
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 4-1-2. (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
8
4-2. STANDARD CAPACITY DIAGRAM
Total capacity of
Capacity(kW
)
Power Consumption(kW)Current(A)/220VCurrent(A)/230VCurrent(A)/240V
Power Consumption(kW)Current(A)/220VCurrent(A)/230VCurrent(A)/240V
14
4-3. 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 010203040 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
22
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
-10-15-5051015
20
25
15
20
25
15
4-3-1. Correcting 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 define 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 “4-2.”.
• The input is the single value on the side of the outdoor unit; the input on the sides 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
individual capacity at the rated time
total capacity at the rated time
Figure 1. PUMY-P100VHM
PUMY-P125VHM
PUMY-P140VHM
Cooling performance curve
Cooling
Capacity
(ratio)
Cooling
Power
consumption
(ratio)
Figure 2. PUMY-P100VHM
PUMY-P125VHM
PUMY-P140VHM
Heating performance curve
Heating
Capacity
(ratio)
INDOOR
INDOOR
<W.B. :>
Heating
Power
consumption
(ratio)
INDOOR
<W.B. :>
<D.B. :>
INDOOR
<D.B. :>
Outdoor <D.B. ::>
Outdoor <W.B. ::>
15
4-3-2. Correcting Capacity for Changes in the Length of Refrigerant Piping
Cooling
Heating
100
95
90
85
80
75
70
5 101520253035404550556065707580
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
4-3-3. 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
6
1.0
4
0.98
2
0.89
0
0.88
-2
0.89
-4
0.9
-6
0.95
-8
0.95
-10
0.95
16
4-4. NOISE CRITERION CURVES
1.5m
1m
MICROPHONE
UNIT
GROUND
90
80
70
60
50
40
30
20
10
63125250500 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
COOLING
MODE
HEATING
49
SPL(dB)
51
LINE
90
80
70
60
50
40
30
20
10
63125250500 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
COOLING
MODE
HEATING
50
SPL(dB)
52
LINE
90
80
70
60
50
40
30
20
10
63125250500 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
COOLING
MODE
HEATING
51
SPL(dB)
53
LINE
17
5
OUTLINES AND DIMENSIONS
PUMY-P100VHM
PUMY-P125VHM
PUMY-P140VHM
19
2-U Shaped notched holes
(Foundation Bolt M10)
600175175
Rear Air Intake
Installation Feet
417
330
56
37
28370
53
Terminal block
42
56
70
Air Discharge
2-12o36 Oval holes
(Foundation Bolt M10)
30
Left·········For the power supply
Center····For the transmission line
Right·······For concentration control
Ground for the transmission line
( )
950
Ground for the power supply
("GR"marking position)
322
Ground for concentration control
Service panel
Handle for moving
635371
1350
1088
Unit : mm
Front piping cover
w1 507
w1 423
2
1
Rear piping cover
71
23
Bottom piping hole
(Knock-Out)
71
81219
Drain hole
(5-[33)
14514522030145
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
10
Over
30
Less than
500
Over
Service space
<Foundation bolt height>
Please secure the unit
firmly with 4 foundation (M10)
bolts.(Bolts and washers must
be purchased locally.)
150
Over
2 SERVICE SPACE3 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
Handle for moving
Handle for moving
Air intake
Rear trunking hole
(Knock-Out)
Power supply wiring hole
(2-[27Knock-Out)
45 40
Right trunking hole
(Knock-Out)
Power supply wiring hole
(2-[27Knock-Out)
7540
Right piping hole
(Knock-Out)
4540
Power supply wiring hole
(2-[27Knock-Out)
92
[
n92
n92
Rear piping hole
(Knock-Out)
92
65
2755
23 73 63
92
1955
7363
23 27 92
23 73 63
2755
65
92
Over 10
FREE
1 FREE SPACE (Around the unit)
The diagram below shows a
basic example.
Explantion of particular details are
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(5/8F)
Connection Lead <N-Phase>
Connection Terminal <Ground>
EI
Connector
CNAC1/2
Connector
CN5
TH7TH6 TH3 TH463HS63H63L
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)
S
TO INDOOR UNIT
CONNECTING WIRES
DC 30V(Non-polar)
TB7
(ORN)
M1
M2
(ORN)
S
FOR CENTRALIZED
CONTROL
DC 30V(Non-polar)
POWER SUPPLY
~/N
AC220/230/240V 50Hz
NO FUSE
AC220V 60Hz
BREAKER
TB1
L
N
1
1
3
52C
(BLK)
F500
X505
1
4 5 6 7
4 5 6 7
21S4
(GRN)
3 1
21S4
CNF1
(WHT)
CNF2
(WHT)
CNDC
(PNK)
X504
CB
31
(BLU)
3 1
+
SV2
TH8
X503
1 2 3
63HS
(WHT)
TRANS
(WHT)
2 1
SV1
52C
P. B.
123
CNAF
4 5 6
(WHT)
1212 12 123 4 5 6 7
(WHT)
(WHT)
(RED)
(WHT)
TABN
TABP
X502
SV1
CN2
CN3
CN5
CN4
1 212 123 4
TH7/6
(RED)
63H
(YLW)
SS
(WHT)
3 1
RS
3 1
X501
TABP2
TH3
(WHT)
+
U
RED
MC
F1
F2
V
WHT
31
W
BLK
TH4
(WHT)
63L
(RED)
2
-
1
CNDC
(PIN)
+
CNAC
(RED)
DCL
ACTM
1
3
TABN1
LED3
+
-
TABN2
(WHT)
7 6 5 4 3 2 1
CNS1
(RED)
121
2
L1
1 2 3
(WHT)
CNS2
(YLW)
CN2
123 4 5 6
L2
TABT
+
TABS
+
TABP1
(RED)
1 2 3
~
~
~
~
N1
N2
(BLU)
P
I
1 2 3
CN4
(WHT)
2 1
CN51
(WHT)
SWU2SWU1
54321
w
1
CN41
(WHT)
3
13
CNAC2
(RED)
1
CNAC1
(WHT)
CN40
(WHT)
4 3 2 14 3 2 1
SW5
LED1
88
(RED)
E I
LO
NO
CN5
M-P.B.
N. F.
12
NILI
SW6
SW2SW8SW1
SW7SW3SW4
LED2
88
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>
SS
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
1
0
1
0
1
0
SW4
0
0
0
0
1
0
1
0
0
1
1
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
1
Compressor
operated
2
52C321S44SV1
5
(SV2)6—
7
—
8
Always lit
[Example]
When the compressor and
SV1 are turned 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.
• 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.
The explanation for the system in this section : Use one single outdoor unit and multiple outdoor units for M-NET remote
control system.
Use one single outdoor unit and multiple indoor units in the multiple outdoor
units for the M-NET remote control system.
A. Example of a M-NET remote controller system (address setting is necessary.)
Example of wiring control cablesWiring 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 two 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.
• One 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 two remote con-
trollers for each indoor unit.
3. Group operation
• Multiple indoor units operated
together by one 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 most recent
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 most recent
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
001 to 050
051 to 100
101 to 150
151 to 200
Use the most recent 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 most recent 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.
22
—
—
• Name, Symbol and the Maximum Remote controller Units for Connection
M1M2
TB5
S12
TB15
01
102
IC(Main)
AB
M1M2
TB3
SAB
TB7
51
OC
S
M1M2
TB5
S12
2
TB15
02
IC(Sub)
RC
M1M2
TB5
S12
TB15
01
101
RC
(Main)
151
IC
M1M2
TB3
SAB
TB7
51
OC
S
M1M2
TB5
S12
TB15
02
IC
RC
(Sub)
102
RC
(Main)
103
RC
(Sub)
104
RC
ABABABABAB
M1M2
TB5
S12
TB15
01
101
IC
AB
M1M2
TB3
SAB
TB7
51
OC
S
M1M2
TB5
S12
TB15
02
IC
RC
TB15
AB
MA
Name
Outdoor unit
Indoor unit
M-NET remote
controller
Symbol
OC
IC
RC
Maximum units for connection
One OC unit can be connected to 1-8 IC units (P100VHM : 1-6 IC units)
Maximum two RC for one indoor unit, Maximum 16 RC for one OC
Permissible LengthsProhibited items
Maximum transmission cable
length (1.25 mm
1 + L2, L2 + L3, L3 + L1 [ 200m
L
2
)
Remote controller cable length
1. If 0.5 to 1.25 mm
2
R1, R2 [10m
2. If the length exceeds 10 meters,
the exceeding section should
be 1.25 mm
2
and that section
should be a value within the
total extension length of the
transmission cable and
maximum transmission cable
length. (L
3)
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.
• Three or more remote
controller (RC) cannot
be connected to one
indoor unit.
Same as above
• The remote controller
address is the indoor
unit main address plus
100. In this case, it
should be 101.
23
B. Example of a group operation system with two or more outdoor units and a M-NET remote controller.
A
B
C
E
D
M1M2S
M1 M2 S
TB7
TB3
IC
(51)
M1 M2 S
TB5
RC
(01)
IC
M1 M2 S
TB5
(03)
IC
M1 M2 S
TB5
(02)
IC
M1 M2 S
TB5
(04)
IC
M1 M2 S
TB5
(05)
IC
M1 M2 S
TB5
(07)
IC
M1 M2 S
TB5
(06)
L2
L1
(101)
RC
(105)
RC
(104)
RC
(155)
OC
M1 M2 S
TB7
(53)
OC
3
M1M2S
Power Supply
Unit
M1M2S
G-50A
L3
L6L7
L4
L5
2
4
1
ABABAB
AB
M1M2 S
TB3
A : Group 1
B : Group 3
C : Group 5
D : Shielded Wire
E : Sub Remote Controller
( ): Address
r
r
r
r
(Address settings are necessary.)
Examples of Transmission Cable WiringWiring Method Address Settings
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
(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 00
01 to 50
51 to 100
—
Use the most recent 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 most recent 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.
24
• Name, Symbol, and the Maximum Units for Connection
A
B
C
E
D
M1M2S
M1 M2 S
TB7
TB3
IC
(51)
M1 M2 S
TB5
RC
(01)
IC
M1 M2 S
TB5
(03)
IC
M1 M2 S
TB5
(02)
IC
M1 M2 S
TB5
(04)
IC
M1 M2 S
TB5
(05)
IC
M1 M2 S
TB5
(07)
IC
M1 M2 S
TB5
(06)
(101)
RC
(105)
RC
(104)
RC
(155)
OC
M1 M2 S
TB7
(53)
OC
M1M2S
Power Supply
Unit
M1M2S
G-50A
ABABAB
AB
M1M2 S
TB3
A : Group 1
B : Group 3
C : Group 5
D : Shielded Wire
E : Sub Remote Controller
( ): Address
• Max length via outdoor units : L1+L2+L3+L4, L1+L2+L3+L5, L1+L2+L6+L7 [ 500 meters (1.25mm2)
8) should be included in the calculation of the maximum length and overall length.
tion (L
2
2
)
2
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.
• It cannot be connected M-NET remote controller and MA remote controller with indoor unit of the same group using
together.
25
C. Example of a MA remote controller system (address setting is not necessary.)
M1M2
TB5
S12
TB15
00
IC
AB
M1M2
TB3
S
M1M2
TB7
00
OC
L
1L2
S
M1M2
TB5
S12
TB15
00
IC
AB
MAMA
r1
r2
MA
M1M2
TB5
S12
TB15
00
IC
AB
M1M2
TB3
SM1M2
TB7
00
OC
S
M1M2
TB5
S12
TB15
00
IC
MA
ABAB
MAMA
r3
r4
r5
AB
r6
MA
M1M2
TB5
S12
TB15
00
IC
AB
M1M2
TB3
S
M1M2
TB7
00
OC
S
M1M2
TB5
S12
TB15
00
IC
r7
r8
NOTE : In the case of same group operation, need to set the address that is only main indoor unit.
Example of wiring control cablesWiring 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 two 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).
• One remote controller for each
indoor unit.
2. Operation using two remote controllers
• Using two 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 two remote controllers, connect
terminals 1 and 2 on transmission cable terminal
block (TB15) for each indoor unit with the terminal
block for two 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 the MA remote
controller. Use non-polarized two wire.
d. In the case of same group operation, need to set the
address that is only main indoor unit. Please set the
address of the indoor unit with the most functions in
the same group in the number that 01-50 is small.
• Multiple indoor units operated
together by one remote
controller
Combinations of 1through 3 above are possible.
26
Permissible LengthsProhibited items
MA
M1M2
TB5
S12
TB15
00
IC
AB
M1M2
TB3
S
M1M2
TB7
00
OC
S
MA
M1M2
TB5
S12
TB15
00
IC
AB
MA
M1M2
TB5
S12
TB15
00
IC
AB
M1M2
TB3
S
M1M2
TB7
00
OC
S
M1M2
TB5
S12
TB15
00
IC
MA
ABAB
MAMAMA
ABAB
M1M2
TB5
S12
TB15
00
IC
AB
M1M2
TB3
S
M1M2
TB7
00
OC
S
M1M2
TB5
S12
TB15
00
IC
AB
MAMA
AB
RC
Maximum transmission cable length
1 + L2 [ 200m (1.25 mm
L
2
)
MA remote controller cable length
R
1, R2 [ 200m (0.3 ~ 1.25 mm
2
)
Maximum transmission cable length
The same as above.
MA remote controller cable length
R
3 +R4, R5 +R6 [ 200m
(0.3 ~ 1.25 mm
2
)
The MA remote controller and the
M-NET remote controller cannot be
used together with the indoor unit
of the same group.
Three MA remote controllers or
more cannot be connected with
the indoor unit of the same group.
Maximum transmission cable length
The same as above.
MA remote controller cable length
R
7 +R8 [ 200m (0.3 ~ 1.25 mm
2
)
The second MA remote control is
connected with the terminal
block(TB15) for the MA remote control of the same indoor unit(IC) as
the first remote control.
27
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