Mitsubishi Electronics H2iSD-1 User Manual

CITY MULTI® H2I® Y-SERIES HYPER-HEATING INVERTER SYSTEM DESIGN

1. ELECTRICAL WORK ...........................................................................................................................................H2iSD-2

1-1. General Cautions ....................................................................................................................................... H2iSD-2

1-2. Power Supply for Indoor Unit and Outdoor Unit ......................................................................................... H2iSD-3

2. M-NET CONTROL................................................................................................................................................H2iSD-6

2-1. Transmission Cable Length Limitation .......................................................................................................H2iSD-6

2-2. TransmissionCableSpecications ............................................................................................................H2iSD-7

2-3. SystemCongurationRestrictions ............................................................................................................. H2iSD-8

2-4. Address Setting .........................................................................................................................................H2iSD-11

3. PIPING DESIGN ................................................................................................................................................ H2iSD-22

3-1. R410A Piping Material ..............................................................................................................................H2iSD-22

3-2. PUHY-HP-T/Y(S)JMU’s Piping Design ..................................................................................................... H2iSD-23

3-3. Refrigerant Charge Calculation ................................................................................................................ H2iSD-25

4. INSTALLATION ..................................................................................................................................................H2iSD-26

4-1. Installation Site Requirements ................................................................................................................. H2iSD-26

4-2. Installation Clearance Space ................................................................................................................... H2iSD-27

4-3. Piping Direction ........................................................................................................................................ H2iSD-29

4-4. Weather Countermeasures ...................................................................................................................... H2iSD-34

4-5. Low Ambient Kit Application Guidelines ...................................................................................................H2iSD-35

5. STANDARD AND SEACOAST PROTECTION (-BS) TREATMENT ..................................................................H2iSD-37

5-1. H2i Y-Series .............................................................................................................................................H2iSD-37

6. CAUTIONS ......................................................................................................................................................... H2iSD-38

6-1. Refrigerant Properties .............................................................................................................................. H2iSD-38

6-2. ConrmtheCriticalConcentrationandPerformCountermeasures ......................................................... H2iSD-38

SYSTEM DESIGN

Y-SERIES

2010 H2i

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-1

Y-SERIES

2010 H2i

SYSTEM DESIGN

1. ELECTRICAL WORK

1-1. General Cautions

Follow ordinance of your governmental organization for technical standard related to electrical equipment, wiring regulations, and guidance of each electric power company. Wiring for control (hereinafter referred to as transmission ) shall be (50mm[1-5/8in] or more) apart from power source wiring so that it is not influenced by electric noise from power source wiring. (Do not insert transmission and power

source wire in the same conduit.) Be sure to provide designated grounding work to outdoor unit. Give some allowance to wiring for electrical part box of indoor and outdoor units, because the box is sometimes removed at the time of service work. Never connect 100V, 208~230,460V power source to terminal block of transmission . If connected,electrical parts will

be burnt Use

multiplecore

out.

2-conductor

cable, the resultant poor transmitting and receiving will cause erroneous operations.

shield cable for transmission . If transmission of different systems are wired with the same

cable

cables

Outdoor

unit

2-conductor shield cable

OK NO

Outdoor

unit

2-conductor shield cable

BC controller

Indoor unit

Remote

controller

Indoor unit

Remote

controller

Outdoor

unit

Outdoor

unit

Multiple-

core cable

Remote

controller

BC controller

controller

Indoor unit

Remote

H2iSD-2

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

1. ELECTRICAL WORK

1-2. Power Supply for Indoor and Outdoor Units

1-2-1. Electrical Characteristics of the Indoor Units

Symbols: MCA : Min.Circuit Amps (=1.25xFLA) FLA : Full Load Amps

IFM :Indoor Fan Motor Output : Fan motor rated output

Model

PLFY-P08NCMU-E PLFY-P12NCMU-E 0.35 / 0.35 0.28 / 0.28 PLFY-P15NCMU-E 0.35 / 0.35 0.28 / 0.28 PLFY-P12NBMU-E 0.64 / 0.64 0.51 / 0.51 PLFY-P15NBMU-E 0.64 / 0.64 0.51 / 0.51 PLFY-P18NBMU-E 0.64 / 0.64 0.51 / 0.51 PLFY-P24NBMU-E 0.64 / 0.64 0.51 / 0.51 PLFY-P30NBMU-E 0.64 / 0.64 0.51 / 0.51 PLFY-P36NBMU-E 1.25 / 1.25 1.00 / 1.00

Hz Volts Voltage range MCA(A) FLA(A)

60Hz 208 / 230V 188 to 253V

Indoor Unit IFM

0.29 / 0.29 0.23 / 0.23

SYSTEM DESIGN

Y-SERIES

2010 H2i

PMFY-P06NBMU-E PMFY-P08NBMU-E 0.25 / 0.25 0.20 / 0.20 PMFY-P12NBMU-E 0.26 / 0.26 0.21 / 0.21 PMFY-P15NBMU-E 0.33 / 0.33 0.26 / 0.26

PEFY-P06NMAU-E PEFY-P08NMAU-E 1.05 / 1.05 0.84 / 0.84 PEFY-P12NMAU-E 1.21 / 1.21 0.97 / 0.97 PEFY-P15NMAU-E 1.45 / 1.45 1.16 / 1.16 PEFY-P18NMAU-E 1.56 / 1.56 1.25 / 1.25 PEFY-P24NMAU-E 2.25 / 2.25 1.80 / 1.80 PEFY-P27NMAU-E 2.49 / 2.49 1.99 / 1.99 PEFY-P30NMAU-E 2.50 / 2.50 2.00 / 2.00 PEFY-P36NMAU-E 3.33 / 3.33 2.66 / 2.66 PEFY-P48NMAU-E 3.41 / 3.41 2.73 / 2.73 PEFY-P54NMAU-E 3.31 / 3.31 2.65 / 2.65

PEFY-P06NMSU-E PEFY-P08NMSU-E 0.47 / 0.50 0.41 / 0.39 PEFY-P12NMSU-E 0.68 / 0.74 0.46 / 0.43 PEFY-P15NMSU-E 1.20 / 1.33 0.47 / 0.45 PEFY-P18NMSU-E 1.20 / 1.33 0.64 / 0.60 PEFY-P24NMSU-E 1.57 / 1.73 0.88 / 0.83 PEFY-P15NMHU-E 1.20 / 1.33 0.96 / 1.06 PEFY-P18NMHU-E 1.20 / 1.33 0.96 / 1.06 PEFY-P24NMHU-E 1.57 / 1.73 1.25 / 1.38 PEFY-P27NMHU-E 1.72 / 1.89 1.37 / 1.51 PEFY-P30NMHU-E 2.08 / 2.29 1.66 / 1.83 PEFY-P36NMHU-E 4.23 / 4.67 3.38 / 3.73 PEFY-P48NMHU-E 4.23 / 4.67 3.38 / 3.73 PEFY-P54NMHU-E PEFY-P72NMHU-E 5.60 / 6.18 4.48 / 4.94 PEFY-P96NMHU-E 7.12 / 7.85 5.69 / 6.28

60Hz 208 / 230V 188 to 253V

0.25 / 0.25 0.20 / 0.20

1.05 / 1.05 0.84 / 0.84

0.47 / 0.50 0.32 / 0.31

4.29 / 4.73 3.43 / 3.78

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-3

Y-SERIES

2010 H2i

SYSTEM DESIGN

1. ELECTRICAL WORK

Symbols: MCA : Min.Circuit Amps (=1.25xFLA) FLA : Full Load Amps

IFM :Indoor Fan Motor

Model

PCFY-P15NKMU-E PCFY-P24NKMU-E 0.52 / 0.52 0.41 / 0.41 PCFY-P30NKMU-E 1.22 / 1.22 0.97 / 0.97 PCFY-P36NKMU-E 1.22 / 1.22 0.97 / 0.97

Hz Volts Voltage range MCA(A) FLA(A)

60Hz 208 / 230V 188 to 253V

Indoor Unit IFM

0.44 / 0.44 0.35 / 0.35

PKFY-P06NBMU-E PKFY-P08NBMU-E 0.19 / 0.19 0.15 / 0.15 PKFY-P12NHMU-E 0.38 / 0.38 0.30 / 0.30 PKFY-P15NHMU-E 0.38 / 0.38 0.30 / 0.30 PKFY-P18NHMU-E 0.38 / 0.38 0.30 / 0.30 PKFY-P24NKMU-E 0.37 / 0.37 0.29 / 0.29 PKFY-P30NKMU-E 0.54 / 0.54 0.43 / 0.43

PFFY-P06NEMU-E PFFY-P08NEMU-E 0.32 / 0.34 0.25 / 0.27 PFFY-P12NEMU-E 0.34 / 0.38 0.27 / 0.30 PFFY-P15NEMU-E 0.40 / 0.44 0.32 / 0.35 PFFY-P18NEMU-E 0.48 / 0.53 0.38 / 0.42 PFFY-P24NEMU-E 0.59 / 0.64 0.47 / 0.51

PFFY-P06NRMU-E PFFY-P08NRMU-E 0.32 / 0.34 0.25 / 0.27 PFFY-P12NRMU-E 0.34 / 0.38 0.27 / 0.30 PFFY-P15NRMU-E 0.40 / 0.44 0.32 / 0.35 PFFY-P18NRMU-E 0.48 / 0.53 0.38 / 0.42 PFFY-P24NRMU-E 0.59 / 0.64 0.47 / 0.51

PVFY-P12E00A PVFY-P18E00A 1.53 / 1.38 1.22 / 1.10 PVFY-P24E00A 1.39 / 1.85 1.11 / 1.00 PVFY-P30E00A 2.50 / 2.25 2.00 / 1.80 PVFY-P36E00A 2.09 / 1.88 1.67 / 1.50 PVFY-P48E00A 2.23 / 2.00 1.78 / 1.60 PVFY-P54E00A 2.64 / 2.38 2.11 / 1.90

60Hz 208 / 230V 188 to 253V

0.19 / 0.19 0.15 / 0.15

0.32 / 0.34 0.25 / 0.27

0.56 / 0.50 0.45 / 0.40

PWFY-P36NMU-E-BU PWFY-P36NMU-E-AU 0.09 PWFY-P72NMU-E-AU 0.09 -

H2iSD-4

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

60Hz 208 / 230V 188 to 253V

25 -

1. ELECTRICAL WORK

1-2-2. Electrical characteristics of Outdoor unit of cooling mode

Symbols: MCA : Min. Circuit Amps

PUHY-HP-T(S)JMU

Model

PUHY-HP72TJMU-A PUHY-HP96TJMU-A

PUHY-HP 144TSJMU-A

PUHY-HP 192TSJMU-A

Tosizebreakers,see“RecommendedFuse/BreakerSize”intheSpecicationstable.

Unit Combination

PUHY-HP72TJMU-A PUHY-HP72TJMU-A PUHY-HP96TJMU-A PUHY-HP96TJMU-A

60Hz 60Hz 60Hz 60Hz 60Hz 60Hz

VoltsHz

208 / 230V 208 / 230V 208 / 230V 208 / 230V 208 / 230V 208 / 230V

Voltage range

188 to 253V

SC : Starting Current RLA

Outdoor Units

RLA(A)

19.4 / 17.6

28.2 / 25.5

19.4 / 17.6

28.2 / 25.5

RLA(MAX)(A)

38.4 / 38.4

52.4 / 52.4

38.4 / 38.4

52.4 / 52.4

MOCP : Max. Over Current Protection

: Rated Load Amps

MCA(A)

59 / 54 74 / 68 59 / 54 59 / 54 74 / 68 74 / 68

101 / 92

127 / 116

101 / 92

101 / 92 127 / 116 127 / 116

MOCP

Compressor

15 15 15 15 15 15

Fan

Output(kW)SC(A)

0.92

SYSTEM DESIGN

Y-SERIES

2010 H2i

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-5

2. M-NET CONTROL

2-1. Transmission Cable Length Limitations

Y-SERIES

2010 H2i

SYSTEM DESIGN

2-1-1. Using MA Remote controller

Long transmission cable causes voltage down, therefore, the length limitation should be obeyed to secure proper transmission. Max. length via Outdoor (M-NET cable) L1+L2+L3+L4, L1+L2+L6+L7, L3+L4+L6+L7 <=500m[1640ft.] 1.25mm Max. Total M-NET Wiring Max. length to Outdoor (M-NET cable)

(L1 → 8) <=2km [6,560ft.] 1.25mm2 [AWG16] or thicker

∑

L1+L8, L3+L4, L6, L2+L6+L8, L7 <=200m[656ft.] 1.25mm2 [AWG16] or thicker Max. length from MA to Indoor a1+a2, a1+a2+a3+a4 <=200m[656ft.] 0.3-1.25 mm 24VDC to AG-150A n <=50m[164ft.] 0.75-2.0 mm

Group1 Group3 Group5

(52)

TB3

TB7

M2SM2M1 M1 S

(51)

TB3

M2M1 M1

TB7

AG-150A

Shielded wire

(54 )

TB7 M1M2

TB3

M2M1

Power Supply Unit PAC-SC51KUA

V+V-FG

(01)

TB5 TB15

M1 M2 12S

(02)

TB15

TB5

M1 M2 S

OC, OS : Outdoor unit controller; IC: Indoor unit controller; MA: MA remote controller

M1 M2 S

(04)

TB15

TB5

(03)

TB 15

TB5

M1 M2 S

(05)

TB15

TB5

(07)

TB15

TB5

[AWG16] or thicker

[AWG22-16]

[AWG18-14]

(06)

TB5

M1 M2 S

TB15

2-1-2. Using ME Remote controller

Long transmission cable causes voltage down, therefore, the length limitation should be obeyed to secure proper transmission. Max. length via Outdoor (M-NET cable) Max. Total M-NET Wiring Max. length to Outdoor (M-NET cable) L1+L8, L3+L4, L6, L2+L6+L8, L7, L3+L5 <=200m[656ft.] 1.25mm Max. length from ME to Indoor e1, e2+e3, e4 <=10m[32ft.]*1 0.3-1.25 mm 24VDC to AG-150A n <=50m[164ft.] 0.75-2.0 mm

*1. If the length from ME to Indoor exceed 10m [33ft.], use 1.25 mm

(52)

TB3

TB7

OC, OS : Outdoor unit controller; IC: Indoor unit controller; ME: ME remote controller

H2iSD-6

(51)

TB3

M2M1 M1

TB7

M2M1 M1

Shielded wire

TB7 M1 M2

L6L7

Power Supply Unit PAC-SC51KUA

AG-150A

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

L1+L2+L3+L4, L1+L2+L6+L7,L1+L2+L3+L5, L3+L4+L6+L7

∑ (L1 → 8) <=2km [6,560ft.] 1.25mm

[AWG16] shielded cable, but the total length should be counted into Max. length via Outdoor.

Group1 Group3

(01)

TB5

M1 M2 S

(101)

(54 )

TB3

M2M1

V+V-FG

TB5

M1 M2 S

(02)

V+V-FG

(04)

TB5

M1 M2 S

(03)

TB5

M1 M2 S

(103)

<=500m[1640ft.] 1.25mm2 [AWG16] or thicker

[AWG16] or thicker

[AWG22-16] *1

[AWG18-14]

Group5

(05)

TB5

M1 M2 S

AB AB

(105)

M1 M2 S

(07)

TB5

M1 M2 S

(155)

(06)

TB5

2. M-NET CONTROL

2-2. Transmission Cable Specications

(Li)

—

Type of cable

Cable size

Remarks

Connected with simple remote controller.

Transmission cablesME Remote controller cables Shielding wire (2-core)

CVVS, CPEVS or MVVS

1.25 [AWG16]

MA Remote controller cables

Sheathed 2-core cable (unshielded) CVV

1.25 [AWG16]

When 10m [32ft] is exceeded, use cables with the same specification as transmission cables.

CVVS, MVVS : PVC insulated PVC jacketed shielded control cable

PE insulated PVC jacketed shielded communication cable

CPEVS : CVV : PV insulated PVC sheathed control cable

1.25 [AWG16]

Max length : 200m [656ft]

SYSTEM DESIGN

2010 H2i

Y-SERIES

2 2

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-7

Y-SERIES

2010 H2i

SYSTEM DESIGN

2. M-NET CONTROL

2-3. System Conguration Restrictions

2-3-1. Common restrictions for the CITY MULTI system

For each Outdoor unit, the maximum connectable quantity of Indoor unit is specified at its Specifications table.

A) 1 Group of Indoor units can have 1-16 Indoor units; B) Maximum 2 remote controllers for 1 Group; (MA/ME remote controllers cannot be present together in 1group.)

C) 1 LOSSNAY unit can interlock maximum 16 Indoor units; 1 Indoor unit can interlock only 1 LOSSNAY unit. D) Maximum 3 System controllers are connectable when connecting to TB3 of the Outdoor unit. E) Maximum 3 System controllers are connectable when connecting to TB7 of the Outdoor unit, if the transmission

power is supplied by the Outdoor unit.

F) 4 System controllers or more are connectable when connecting to TB7 of the Outdoor unit, if the transmission

power is supplied by the power supply unit PAC-SC51KUA. Details refer to 2-3-3-C. *System controller connected as described in D) and E) would have a risk that the failure of connected Outdoor unit would stop power supply to the System controller.

2-3-2. Ensuring proper communication power for M-NET

In order to ensure proper communication among Outdoor unit, Indoor unit, LOSSNAY and Controllers, the transmission power situation for the M-NET should be observed. In some cases, Transmission booster should be used. Taking the power consumption index of Indoor unit sized P06-P54 as 1, the equivalent power consumption index and supply capability index of others are listed at Table 2-3-1 and Table 2-3-2.

Table 2-3-1 The equivalent power consumption by index Indoor units, LOSSNAY, controllers

Indoor, OA unitIndoor unit

Sized P06-P54

Sized P72, P96

BC controller CMB

1 701/41/2 31 21/2

*RC : Remote Controller

Table 2-3-2 The equivalent power supply capability index of Trans.Booster, Power supply unit, Connector TB3, TB7 of Outdoor unit.

Transmission Booster

PAC-SF46EPA

*If PAC-SC51KUA is used to supply power at TB7 side, no power supply need from Outdoor unit at TB7, Connector TB3 itself will therefore have 32. Not applicable to the PUMY model.

Power supply unit

PAC-SC51KUA

With the equivalent power consumption values in Table 2-3-1 and Table 2-3-2, PAC-SF46EPA can be designed into the airconditioner system to ensure proper system communication according to 2-3-2-A, B, C. 2-3-2-A) Firstly, count from TB3 at TB3 side the total quantity of Indoor units and ME remote controller, Timers and System controllers.If the total quantity reaches 40, a PAC-SF46EPA should be set.In this case, Indoor unit sized P72, 96 is counted as 7 Indoor units, but MA remote controller(s), LOSSNAY is NOT counted. 2-3-2-B) Secondly, count from TB7 side to TB3 side the total transmission power consumption index. If the total power consumption

reaches 32, a PAC-SF46EPA should be set.Yet, if a PAC-SC51KUA is used to supply power at TB7 side, count from index TB3 side only.

2-3-2-C) Thirdly, count from TB7 at TB7 side the total transmission power consumption index, If the total power consumption reaches

6, a PAC-SF46EPA should be set.

System example

MA RC.LOSSNAY

PAR-21MAA PAC-YT51CRB PAR-FA32MA LGH-RX-E

PZ-41SLB

BM ADAPTER

BAC-HD150

ME Remote Contr. Timers, System Contr. ON/OFF Contr MN Converter.

PAR-F27MEA PZ-52SF

PAC-SF44SRA PAC-YT34STA AG-150A

TC-24A

PAC-YT40ANRA CMS

GB-24A

System Controller

GB-50ADA

Outdoor unit

Connector TB3 and TB7 total *

-MNF-B

Outdoor unit

Connector TB7 only

CMS

-MNG-E

Power supply unit PAC-SC51KUA

H2iSD-8

TB7 TB3

ME remote

TB7 TB3

Outdoor unit

M-NET

24VDC

CENTRALIZED CONTROLLER AG-150A

Centralized controller (AG-150A)

Transmission booster (No.2) should be used, if the total equivalent transmission power consumption reaches 5.

controller

Transmission booster (No.1) should be used, if the total quantity of Indoor units and ME remote controllers reaches 40, (Indoor unit sized P72, 96 is counted as 7); or if the total equivalent transmission power consumption reaches 32.

LOSSNAY unit

PZ-52SF

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

0201

TRANSMISSION BOOSTER MODEL PAC-SF46EPA

220-240V:0.7A ~/N

POWER RATING

3.4kg WEIGHT

MADE IN JAPAN

Transmission booster PAC-SF46EPA (No.2)

LOSSNAY unit

PZ-52SF

Within N4, the total equivalent transmission power consumption should not exceed 25.

TRANSMISSION BOOSTER MODEL PAC-SF46EPA

220-240V:0.7A ~/N

POWER RATING

3.4kg WEIGHT

MADE IN JAPAN

Transmission booster (No.1)

ME remote controller

Within N2, conditions 1,2 should be followed.

1.The total quantity of Indoor units and ME remote controller should not exceed 40. *Indoor unit sized P72, 96 is counted as 7 units.

2.The total equivalent transmission power consumption should not exceed 25.

2. M-NET CONTROL

The power to System controller (excluding LMAP03-U) is supplied via M-NET transmission line. M-NET transmission line at TB7 side is called Central control transmission line while one at TB3 side is called Indoor-Outdoor transmission line. There are 3 ways to supply power to the System controller . A) Connecting to TB3 of the Outdoor unit and receiving power from the Outdoor unit. B) Connecting to TB7 of the Outdoor unit and receiving power from the Outdoor unit. C) Connecting to TB7 of the Outdoor unit but receiving power from power supply unit PAC-SC51KUA.

Maximum 3 System controllers can be connected to TB3. If there is more than 1 Outdoor unit, it is necessary to replace power supply switch connector CN41 with CN40 on one Outdoor unit.

Maximum 3 System controllers can be connected to TB7 and receiving power from the Outdoor unit. It is necessary to replace power supply switch connector CN41 with CN40 on one Outdoor unit.

2-3-3-A. When connecting to TB3 of the Outdoor unit and receiving power from the Outdoor unit.

2-3-3-B. When connecting to TB7 of the Outdoor unit and receiving power from the Outdoor unit.

2-3-3-C. When connecting to TB7 of the Outdoor unit but receiving power from PAC-SC51KUA.

2-3-3. Ensuring proper power supply to System controller

Outdoor unit

MA remote controller

Group Group

Indoor unit

M-NET transmission lines (transmission lines for central controller)

Outdoor unit

ME remote controller

Group Group

Indoor unit

Replacement of CN41 with CN40

Use CN41 as it is.

TB7

TB3

System controller (excluding LMAP03-E)

M-NET transmission lines (Indoor-Outdoor transmission lines)

TB7

TB3

System controller

Maximum 3 System controllers can be connected to TB3.

Fig. 2-3-3-A

M-NET transmission lines (transmission lines for central controller)

MA remote controller

ME remote controller

Group Group

Indoor unit

TB3

Outdoor unit

Replacement of CN41 with CN40

Use CN41 as it is.

System controller

TB7

TB3

Maximum 3 System controllers can be connected to TB7.

M-NET transmission lines (Indoor-Outdoor transmission lines)

Fig. 2-3-3-B

PAC-SC51KUA

M-NET transmission lines (transmission lines for central controller)

MA remote controller

ME remote controller

Group Group

Indoor unit

TB3

Outdoor unit

Use CN41 as it is.

System controller

TB7

TB3

CAUTION

M-NET transmission lines (Indoor-Outdoor transmission lines)

Fig. 2-3-3-C

When using PAC-SC51KUA to supply transmission power, the power supply connector CN41 on the Outdoor units should be kept as it is. It is also a factory setting. 1 PAC-SC51KUA supports maximum 1 AG-150A unit due to the limited power 24VDC at its TB3. However, 1 PAC-SC51KUA supplies transmission power at its TB2 equal to 5 Indoor units, which is referable at Table 2-3-2. If PZ-52SF, Timers, System controller, ON/OFF controller connected to TB7 consume transmission power more than 5 (Indoor units), Transmission booster PAC-SF46EPA is needed. PAC-SF46EPA supplies transmission power equal to 25 Indoor units.

AG-150A*1 is recommended to connect to TB7 because it performs back-up to a number of data. In an air conditioner system has more than 1 Outdoor units, AG-150A receiving transmission power through TB3 or TB7 on one of the Outdoor units would have a risk that the connected Outdoor unit failure would stop power supply to AG-150A and disrupt the whole system. When applying apportioned electric power function, AG-150A is necessary to connected to TB7 and has its own power supply unit PAC-SC51KUA. Note: Power supply unit PAC-SC51KUA is for AG-150A. *1: AG-150A is an example model of system controllers.

SYSTEM DESIGN

Y-SERIES

2010 H2i

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-9

2. M-NET CONTROL

2-3-4. Power supply to LM adapter LMAP03U

1-phase 208-230V AC power supply is needed.

The power supply unit PAC-SC51KUA is not necessary when connecting only the LMAP03U. Yet, make sure to change the power supply changeover connector CN41 to CN40 on the LM adapter.

2-3-5.

Y-SERIES

2010 H2i

SYSTEM DESIGN

2-3-6.

Power supply to BM ADAPTER

1-phase 100-240VAC power supply is needed. The power supply unit PAC-SC51KUA is not necessary when only BM ADAPTER is connected. Yet, make sure to move the power jumper from CN41 to CN40 on the BM ADAPTER.

Power supply to GB-50ADA-A

1-phase 100-240VAC power supply is needed. The power supply unit PAC-SC51KUA is not necessary. GB-50ADA-A supplies power through TB3, which equals 6 indoor units. (refer to Table 2-3-2)

H2iSD-10

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

2. M-NET CONTROL

Branch No. setting

Unit address No. setting

Rotary switch

In order to constitute CITY MULTI in a complete system, switch operation for setting the unit address No. and connection No. is required.

À Address No. of outdoor unit, indoor unit and remote controller.

The address No. is set at the address setting board. In the case of R2 system, it is necessary to set the same No. at the branch No. switch of indoor unit as that of the BC controller connected. (When connecting two or more branches, use the lowest branch No.)

Á Caution for switch operations

Â MA remote controller

¥ Be sure to shut off power source before switch setting. If operated with power source on, switch can

not operate properly.

¥ When connecting only one remote controller to one group, it is always the main remote controller. When connecting two remote controllers to one group, set one remote controller as the main remote controller

and the other as the sub remote controller.

¥ No units with identical unit address shall exist in one whole air conditioner system. If set erroneously,

the system can not operate.

¥ The factory setting is Main .

2-4-1. Switch operation

PAR-21MAA The MA remote controller does not have the switches listed above. Refer to the installation manual for the function setting.

Setting the dip switches

There are switches on the front of the remote controller. Remote controller Main/Sub and other function settings are performed using these switches. Ordinarily, only change the Main/Sub setting of SW1. (The factory settings are all “ON”.)

SW No

SW contents Main

Remote controller Main/Sub setting

Temperature display units setting

Cooling/heating display in AUTO mode

Main

Celsius

Yes

OFF

Sub

Fahrenheit

Comment

Set one of the two remote controllers at one group to “Main”

When the temperature is displayed in [Fahrenheit], set to “No”. When you do not want to display “Cooling” and “Heating” in the

Auto mode, set to “No”.

PAC-YT51CRB

Intake temperature display

YesNo

When you do not want to display the intake temperature, set to “No”.

2-4. Address Setting

SYSTEM DESIGN

Y-SERIES

2010 H2i

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-11

2. M-NET CONTROL

2-4-2. Rule of setting address

Unit

Indoor unit

ME, LOSSNAY Remote controller (Main)

ME, LOSSNAY Remote controller (Sub)

Address setting

01 ~ 50

52 ~ 99, 100

101 ~ 150

151 ~ 199, 200

NoteExample

The address of outdoor unit + 1

Please reset one of them to an address between 51

and 99 when two addresses overlap.

The address automatically becomes "100" if it is set

as "01~ 50"

The smallest address of indoor unit in the group + 100

The place of "100" is fixed to "1"

System remote controller

ON/OFF remote controller

000, 201 ~ 250

Local remote controller

System controller

The address of main remote controller + 50

The address automatically becomes "200" if it is set

as "00"

10 1

10 1100

LMAP03U

201 ~ 250

Fixed

Group remote controller

201 ~ 250

The smallest group No. to be managed + 200

For TC-24A, the address is set on the screen.

10 1

Fixed

Outdoor unit

BC controller (Main)

52 ~ 99, 100

Lowest address within the indoor units connected to the BC controller (Sub) plus 50.

10 1

BC controller (Sub)

51 ~ 99, 100

The smallest address of indoor unit in same refrigerant system + 50 Assign sequential address numbers to the outdoor units in one refrigerant circuit system. OC and OS are automatically detected. (Note 2)

Please reset one of them to an address between 51

and 99 when two addresses overlap.

The address automatically becomes "100" if it is set

as "01~ 50"

Use the most recent address within the same group of indoor units. Make the indoor units address connected to the BC controller (Sub) larger than the indoor units address connected to the BC controller (Main). If applicable, set the sub BC controllers in an PURY system in the following order: (1)

Indoor unit to be connected to the BC controller (Main)

(2)

Indoor unit to be connected to the BC controller (No.1 Sub)

(3)

Indoor unit to be connected to the BC controller (No.2 Sub)

Set the address so that (1)<(2)<(3)

10 1

(Note1)

The smallest group No. to be managed is changeable.

The smallest group No. to be managed + 200

Note1: To set the address to "100", set it to "50" Note2: Outdoor units OC and OS in one refrigerant circuit system are automatically detected. OC and OS are ranked in descending order of capacity. If units are the same capacity, they are ranked in ascending order of their address.

AG-150A GB-50ADA GB-24A

000, 201 ~ 250

10 1100

00 0

PAC-YG50ECA

000, 201 ~ 250

10 1100

BAC-HD150

000, 201 ~ 250

10 1100

Settings are made on the initial screen of AG-150A.

Settings are made with setting tool of BM ADAPTER.

00 0

Y-SERIES

2010 H2i

SYSTEM DESIGN

H2iSD-12

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

2. M-NET CONTROL

2-4-3. System examples

Factory setting

Original switch setting of the outdoors, indoors, controllers and LMAP at shipment is as follows.

Outdoor unit : Address: 00, CN41: U (Jumper), DipSW2-1: OFF Indoor unit : Address: 00

ME remote controller : Address: 101

LMAP : Address: 247, CN41: U (Jumper), DipSW1-2: OFF

Setting at the site

DipSW2-1(Outdoor) : When the System Remote Controller is used, all the Dip SW2-1 at the outdoor units should be set to "ON". DipSW1-2(LMAP) : When the LMAP is used together with System Remote Controller, DipSW1-2 at the LMAP should be set to "ON". CN40/CN41 : Change jumper from CN41 to CN 40 at outdoor control board will activate central transmission power supply to TB7;

(Change jumper at only one outdoor unit when activating the transmission power supply without using a power supply unit.)

Change jumper from CN41 to CN 40 at LMAP will activate transmission power supply to LMAP itself; Power supply unit is recommended to use for a system having more than 1 outdoor unit, because the central transmission power supply from TB7 of one of outdoor units is risking that the outdoor unit failure may let down the whole system controller system.

2-4-3-1. MA remote controller, Single-refrigerant-system, No System Controller

PUHY-HP-TSJMU

OC OS

PUHY-HP-TJMU

0000

CN41CN40CN41CN40 CN41CN40

* Dip SW2-1 remains OFF when only LMAP03U is used.

SYSTEM DESIGN

Y-SERIES

2010 H2i

DipSW2-1

OFF

To *1 or *2

DipSW2-1

OFF

TB3TB3

DipSW2-1

OFF

TB3

Indoor unit

Group 2Group 1 Group 3 Group 4

00 00 00 00 00

SRU

TB15

TB15 TB15 TB15 TB15

MA R/C MA R/C MA R/C

(Main) (Sub)

TB5 TB5TB5 TB5 TB5

Wireless R/C

*3 For Wireless R/C and Signal receiver unit (SRU), channel 1, 2 and 3 are selectable and should be set to same channel.

NOTE:

1. Outdoor units OC and OS in one refrigerant circuit system are automatically detected. OC and OS are ranked in descending order of capacity. If units are the same capacity, they are ranked in ascending order of their address.

2. No address setting is needed.

3. For a system having more than 16 indoor unit, confirm the need of Booster at 2-3 "System configuration restrictions".

MA R/C

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-13

Y-SERIES

2010 H2i

SYSTEM DESIGN

2. M-NET CONTROL

2-4-3-2. MA remote controller, Single-refrigerant-system, System Controller

PUHY-HP-TSJMU

OC OS

5251

CN41CN40CN41CN40 CN41CN40

DipSW2-1

*1 *2

DipSW2-1

TB3TB3

PUHY-HP-TJMU

DipSW2-1

TB3

To *1 or *2

Indoor unit

Group 2Group 1 Group 3 Group 4

01 02 03 04 05

SRU

TB15

TB15 TB15 TB15 TB15

MA R/C MA R/C MA R/C

(Main) (Sub)

MA R/C

TB5 TB5TB5 TB5 TB5

201

Wireless R/C

*3 For Wireless R/C and Signal receiver unit (SRU), channel 1, 2 and 3 are selectable and should be set to same channel. *SC can be connected to TB3 side or TB7 side;

Should SC connected to TB7 side, change Jumper from CN41 to CN40 at the Outdoor unit module so as to supply power to the SC.

NOTE:

2. Address should be set to Indoor units and central controller.

3. For a system having more than 16 indoor unit, confirm the need of Booster at 2-3 "System configuration restrictions".

H2iSD-14

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

2. M-NET CONTROL

2-4-3-3. MA remote controller, Multi-refrigerant-system, System Controller at TB7 side, Booster for long M-NET wiring

PUHY-HP-TSJMU

OC OS

DipSW2-1

TB3

TB7TB7 TB7 TB7

TB3

PUHY-HP-TSJMU

OC OS

5251

CN41CN40CN41CN40 CN41CN40CN41CN40 CN41CN40

DipSW2-1

Indoor unit

DipSW2-1

9291

DipSW2-1

TB3TB3

Group 2Group 1 Group 21

PUHY-HP-TJMU

TB7

DipSW2-1

TB3

01 02 03 30

PSU

Power supply

unit (PSU)

(PAC-SC51KUA)*2

000 or 201

SC*3

TB5 TB5TB5 TB2

Wireless R/C

SRU

TB15

TB15 TB15 TB3

Transmission Booster

PAC-SF46EPA

MA R/C MA R/C

TB5

TB15

MA R/C

(Main) (Sub)

Group 31 Group 34 Group 35

Group 33Group 32

SYSTEM DESIGN

Y-SERIES

2010 H2i

Indoor unit

41 45 46

SRU

TB15

TB5 TB5 TB5

203

SC*3

TB5

142 143

ME R/CPZ-52SF

LOSSNAY

TB5

TB15

MA R/C

TB15

MA R/C

(Main) (Sub)

Wireless R/C

*1 For Wireless R/C and Signal receiver unit (SRU), channel 1, 2 and 3 are selectable and should be set to same channel. *2 System controller should connect to TB7 at Outdoor and use power supply unit together in Multi-Refrigerant-System.

For AG-150A, 24V DC should be used with the PAC-SC51KUA. *3 When multiple system controllers are connected in the system, set the controller with more functions than others as a "main" controller and others as "sub". TC-24A is for exclusive use as a "main" system controller and cannot be used as a "sub" system controller. Make the setting to only one of the system controllers for "prohibition of operation from local remote controller".

NOTE:

2. Address should be set to Indoor units, LOSSNAY and central controller.

3. M-NET power is supplied by the Outdoor unit at TB3, while Indoor unit and transmission use. The power balance is needed to consider for long M-NET wiring. Details refer to 2-3 "System configuration

restrictions".

ME remote controller consume the M-NET power for

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-15

Y-SERIES

2010 H2i

SYSTEM DESIGN

2. M-NET CONTROL

2-4-3-4. ME remote controller, Single-refrigerant-system, No system controller

PUHY-HP-TSJMU

OC OS

DipSW2-1

OFF

TB3TB3

5251

CN41CN40CN41CN40 CN41CN40

DipSW2-1

OFF

PUHY-HP-TJMU

DipSW2-1

OFF

TB3

To *1 or *2

Indoor unit

Group 2Group 1 Group 3 Group 4

01 02 03 04 05

TB5 TB5TB5

101

ME R/C

NOTE:

2. Address should be set to Indoor units,

3. M-NET power is supplied by the Outdoor unit at TB3, while Indoor unit and ME RC consume the M-NET power for transmission use. The power balance is needed to consider for long M-NET wiring. Details refer to 2-3 "System configuration restrictions".

controller and ME remote controllers.

system

102

ME R/C ME R/C ME R/C

2-4-3-5. ME remote controller, Single-refrigerant-system, System controller, LOSSNAY

PUHY-HP-TSJMU

OC OS

DipSW2-1

TB3TB3

5251

CN41CN40CN41CN40 CN41CN40

DipSW2-1

PUHY-HP-TJMU

DipSW2-1

TB3

TB5 TB5

104 105 155

ME R/C

To *1 or *2

201

*SC can be connected to TB3 side or TB7 side; Should SC connected to TB7 side, change Jumper from CN41 to CN40 at the Outdoor unit module so as to supply power to the SC.

NOTE:

2. Address should be set to Indoor units, LOSSNAY central controller, ME remote controllers.

3. For a system having more than 16 indoor unit, confirm the need of Booster at 2-3 "System configuration restrictions".

H2iSD-16

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

Group 1 Group 4 Group 5

Indoor unit

01 04 05

TB5 TB5 TB5

101

ME R/C

Group 2Group 3

LOSSNAY

TB5

102 103

ME R/CPZ-52SF

TB5

104 105 155

ME R/C

ME R/C ME R/C

2. M-NET CONTROL

2-4-3-6.

TB3

Power supply unit (PSU) (PAC-SC51KUA)

ME remote controller, Multi-refrigerant-system, System Controller at TB 7side, LOSSNAY, Booster for M-NET wiring

PUHY-HP-TSJMU

OC OS

DipSW2-1

201

PSU

PUHY-HP-TSJMU

TB7TB7 TB7 TB7

OC OS

5251

CN41CN40CN41CN40 CN41CN40CN41CN40 CN41CN40

DipSW2-1

TB3TB3

Group 2Group 1 Group 21

TB3

DipSW2-1

Indoor unit

01 02 03 30

TB5 TB5TB5 TB2

202

SC *2

101

ME R/C

Group 31 Group 34 Group 35

Indoor unit

41 44 45

TB5 TB5 TB5

102

ME R/C

Group 32 Group 33

TB5

9291

TB5

LOSSNAY

PUHY-HP-TJMU

TB7

DipSW2-1

TB3

Transmission Booster

PAC-SF46EPA

TB3

TB5

130 180

ME R/C ME R/C

SYSTEM DESIGN

Y-SERIES

2010 H2i

203

SC *2

*1 System controller should connect to TB7 at Outdoor and use power supply unit together in Multi-Refrigerant-System.

For AG-150A, 24V DC should be used with the PAC-SC51KUA. *2 When multiple system controllers are connected in the system, set the controller with more functions than others as a "main" controller and others as "sub". TC-24A, AG-150A, GB-50ADA and GB-24A are for exclusive use as a "main" system controller and cannot be used as a "sub" system controller. Make the setting to only one of the system controllers for "prohibition of operation from local remote controller".

NOTE:

2. M-NET power is supplied by the Outdoor unit at TB3, while Indoor unit and ME

transmission use. The power balance is needed to consider for M-NET wiring. Details refer to "System configuration

restrictions".

141

ME R/C

142 143

ME R/C PZ-52SF

remote controller

144 145 195

ME R/C

consume the M-NET power for

ME R/C ME R/C

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-17

Y-SERIES

2010 H2i

SYSTEM DESIGN

2. M-NET CONTROL

2-4-3-7. ME remote controller, Multi-refrigerant-system, No Power supply unit

PUHY-HP-TSJMU PUHY-HP-TJMU

OC OCOS

TB7

CN40

DipSW2-1

OFF

TB3

TB7

5251

CN41CN40CN41

DipSW2-1

OFF

TB3

01 02 03 04 05

TB7

CN41CN40

DipSW2-1

OFF

TB3

Group 1

Group 2

101

ME R/C

Group 3Group 4

105

ME R/C

0910 08 07 06

110

NOTE

It is necessary to change the connecter to CN40 on the outdoor unit control board (only one outdoor unit) when the group is set between other refrigerant systems. It is necessary to set on the remote controller by manual when group sets on the different refrigerant system. Please refer to remote controller installation manual

ME R/C

107

ME R/C

2-4-3-8. ME remote controller, Multi-refrigerant-system, System Controller at TB7 side, No Power supply unit

PUHY-HP-TSJMU PUHY-HP-TJMU

OC OCOS

TB7

CN40

DipSW2-1

TB3

TB7

5251

CN41CN40CN41

DipSW2-1

TB3

TB7

DipSW2-1

TB3

CN41CN40

Group 1

Group 2

01 02 03 04 05

201

101

ME R/C

Group 3Group 4

105

ME R/C

0910 08 07 06

110

NOTE

H2iSD-18

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

ME R/C

107

ME R/C

2. M-NET CONTROL

2-4-3-9. TG-2000A + AG-150A/GB-50A

AG-150A/GB-50A can control max. 50 indoor units.

AG-150A can control max. 50 indoor units. AG-150A can control max. 150 indoor units via expansion controllers (PAC-YG50ECA).

TG-2000A can control max. 40 pieces of AG-150A*2 or GB-50A;

TG-2000A can control max. 40 pieces of AG-150A*1 or GB-50A;

TG-2000A can control max. 2000 indoor units.

AG-150A

000

24VDC

PUHY-HP-TJMU

TB7

CN41CN40

SYSTEM DESIGN

Y-SERIES

2010 H2i

HUB

PC with

TG-2000A

LAN

PSU

(PAC-SC51KUA)

AG-150A

000

24VDC

PSU

(PAC-SC51KUA)

DipSW2-1

TB3

Group 2Group 1 Group 40

Indoor unit

01 02 03 42

TB5 TB5TB5 TB2

Wireless R/C

PUHY-HP-TSJMU PUHY-HP-TJMU

TB15

SRU

OC OS

TB7 TB7

DipSW2-1

TB3TB3

MA R/

9291

CN41CN40CN41CN40 CN41CN40

DipSW2-1

TB15 TB15 TB3

Transmission Booster

PAC-SF46EPA

TB7

DipSW2-1

TB3

TB5

TB15

A R/C

(Main) (Sub)

MA R/C

Group 2Group 1 Group 21

Indoor unit

01 02 03 30

TB5 TB5TB5 TB2

Transmission Booster

101

ME R/C

Indoor unit

41 42

TB5 TB5

141

ME R/C

NOTE It is planned that GB-50ADA will be supported on TG-2000A Ver. 6.3* or later.

*1 When AG-150A is connected with expansion controllers (PAC-YG50ECA), AG-150A here means PAC-YG50ECA. *2 For Wireless R/C and Signal receiver unit (SRU), channel 1, 2 and 3 are selectable and should be set to same channel. *3 AG-150A connected with PAC-YG50ECA is compatible with TG-2000A Ver.6.10* or later.

102 130 180

ME R/C ME R/C ME R/C

Group 32Group 31 Group 33 Group 34

Interlocked LOSSNAY

TB5 TB5 TB5

142

ME R/C

PAC-SF46EPA

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

TB3

44 45

144 145 195

ME R/C

TB5

ME R/C ME R/C

H2iSD-19

Y-SERIES

2010 H2i

SYSTEM DESIGN

2. M-NET CONTROL

2-4-3-10. LMAP

LMAP can transmit max. 50 indoor units; If system controller (SC) is used, DipSW1-2 at LMAP and DipSW2-1 at Outdoor unit should set to "ON". Change Jumper from CN41 to CN40 to activate power supply to LMAP itself for those LMAP connected without system controller (SC).

LMAP can transmit for max. 50 indoor units in single-refrigerant-system or multi-refrigerant-system.

CN41

PUHY-HP-TSJMU

OC OS

TB7 TB7

5251

CN41CN40CN41CN40

(LONWORKS adapter)

LMAP(01)

identified by Neuron ID

247

CN40

DipSW1-2

OFF

Power supply unit (PAC-SC51KUA)

PSU

LMAP(02)

identified by Neuron ID

247

CN40

LONWORKS

DipSW1-2

24VDC

CN41

TB3

DipSW2-1

OFF

Group 2Group 1

Group 40

DipSW2-1

OFF

TB3

Indoor unit

01 02 03 42

SRU

TB15

TB15 TB15 TB3

MA R/C MA R/C

TB7TB7 TB7 TB7

5251

CN41CN40CN41CN40

DipSW2-1

TB3

Group 2

OC OS

DipSW2-1

Transmission Booster

PAC-SF46EPA

9291

CN40CN41CN40 CN41CN40

CN41

DipSW2-1

TB3TB3

TB5

(Main) (Sub)

TB3

Group 21

TB5 TB5TB5 TB2

AG-150A

000

Wireless R/C

PUHY-HP-TSJMU PUHY-HP-TSJMU PUHY-HP-TJMU

OC OS

DipSW2-1

TB3

Group 1

Indoor unit

01 02 03 30

TB5 TB5TB5 TB2

TB3

TB5

TB15

MA R/C

TB7

DipSW2-1

LONW

H2iSD-20

ORKS

Transmission Booster

101

ME R/C

Group 31 Group 34 Group 35

Indoor unit

41 44 45

TB5 TB5 TB5

102 130 180

ME R/C ME R/C ME R/C

Group 32 Group 33

LOSSNAY

TB5

PAC-SF46EPA

card

*1 For Wireless R/C and Signal receiver unit (SRU), channel 1, 2 and 3 are selectable and should be set to same channel.

For other equipments (Lighting, security, elevator etc.)

141

ME R/C

142 143

ME R/CPZ-52SF

144 145 195

ME R/C

ME R/C ME R/C

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

2. M-NET CONTROL

2-4-3-11. BM ADAPTER

BM ADAPTER(01)

HUB

For other equipments (Lighting, security, elevator etc.)

BM ADAPTER can transmit for max. 50 indoor units in single-refrigerant-system or multi-refrigerant-system.

000

BAC net

BM ADAPTER(02)

201

CN41

CN40

BM ADAPTER can transmit max. 50 indoor units; Change Jumper from CN41 to CN40 to activate power supply to BM ADAPTER itself for those BM ADAPTER connected without the power supply unit.

Indoor unit

MA R/CMA R/C

(Main)(Sub)

MA R/C

SRU

Wireless R/C

01 02 03 42

TB15

TB5TB5TB5TB2

Transmission Booster

PAC-SF46EPA

TB5

TB15 TB15 TB3

TB15

Group 2Group 1

Group 40

Indoor unit

ME R/C ME R/CME R/C

01 02 03 30

TB5TB5TB5TB2

Transmission Booster

PAC-SF46EPA

TB5

ME R/C

101

102 130 180

TB3

Group 2

Group 1

Group 21

TB3

TB7TB7

TB7

TB3

OC OS

5251

TB3

CN41CN40CN41CN40 CN41CN40

DipSW2-1

ME R/CME R/C

Indoor unit

ME R/C

PZ-52SF-E

142 143

144 145 195

41 42

44 45

TB5TB5

LOSSNAY

TB5TB5 TB5

Group 32 Group 33Group 31 Group 34 Group 35

ME R/C

141

PUHY-HP-TSJMU PUHY-HP-TJMU

*1 For Wireless R/C and Signal receiver unit (SRU), channel 1, 2 and 3 are selectable and should be set to same channel.

HUB

CN41

CN40

TB3

TB7TB7

TB7

TB3

5251

OC OS

TB3

CN41CN40CN41CN40 CN41CN40

OFF

DipSW2-1

OFF

DipSW2-1

OFF

DipSW2-1

PUHY-HP-TSJM

PUHY-HP-TJMU

SYSTEM DESIGN

Y-SERIES

2010 H2i

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-21

3. PIPING DESIGN

3-1. R410A Piping Material

Y-SERIES

2010 H2i

SYSTEM DESIGN

Refrigerant pipe for CITY MULTI shall be made of phosphorus deoxidized copper, and has two types. A. Type-O : Soft copper pipe (annealed copper pipe), can be easily bent with human's hand. B. Ty pe-1/2H pipe : Hard copper pipe (Straight pipe), being stronger than Type-O pipe of the same radical thickness.

The maximum operation pressure of R410A air conditioner is 4.30 MPa [623psi] . The refrigerant piping should ensure the safety under the maximum operation pressure. MITSUBISHI ELECTRIC recommends pipe size as Ta ble 3-1, or You shall follow the local industrial standard. Pipes of radical thickness 0.7mm or less shall not be used.

Table 3-1. Copper pipe size and radial thickness for R410A CITY MULTI.

Size (mm) Size (inch)Radial thickness (mm) Pipe type

ø6.35 ø1/4"0.8 Ty pe-O ø9.52 ø3/8"0.8 Ty pe-O

ø12.7 ø1/2"0.8 Ty pe-O ø15.88 ø5/8"1.0 Ty pe-O ø19.05 ø3/4"1.2 Ty pe-O ø19.05 ø3/4"1.0 Ty pe-1/2H or H

ø22.2 ø7/8"1.0 Ty pe-1/2H or H

ø25.4ø1" 1.0Type-1/2H or H ø28.58 ø1-1/8" 1.0Type-1/2H or H ø31.75 ø1-1/4" 1.1Type-1/2H or H ø34.93 ø1-3/8" 1.2Type-1/2H or H ø41.28 ø1-5/8" 1.4

* F

or pipe sized ø19.05 (3/4") for R410A air conditioner, choice of pipe type is up to you. * The figures in the radial thickness column are based on the Japanese standards and provided only as a reference. Use pipes that meet the local standards.

Radial thickness (mil)

[32] [32] [32] [40] [48] [40] [40] [40] [40] [44] [48] [56] Type-1/2H or H

Flare

Due to the relative higher operation pressure of R410A compared to R22, the flare connection should follow dimensions mentioned below so as to achieve enough the air-tightness.

Flare pipe Pipe sizeA (For R410A) Flare nut Pipe size

ø6.35 [1/4"] ø9.52 [3/8"]

ø12.70 [1/2"] ø15.88 [5/8"] ø19.05 [3/4"]

9.1 [3/8"]

13.2 [9/16"]

16.6 [11/16"]

19.7 [13/16"]

24.0 [1"]

ø6.35 [1/4"]

ø9.52 [3/8"] ø12.70 [1/2"] ø15.88 [5/8"] ø19.05 [3/4"]

B (For R410A)

17.0 [3/4"]

22.0 [7/8"]

26.0 [1-1/16"]

29.0 [1-1/8"]

36.0 [1-7/16"]

(mm[in.]) (mm[in.])

H2iSD-22

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

3. PIPING DESIGN

Table3-2-1-6. R410A Joint selection rule Total down-stream Indoor capacity Joint ~ P72 CMY-Y102S-G2 P73 ~ P144 CMY-Y102L-G2 P145 ~ P234 CMY-Y202-G2 P235 ~ CMY-Y302-G2

*Concerning detailed usage of Joint parts, refer to its Installation Manual.

Table3-2-1-7. R410A Header selection rule 4-branch Header 8-branch Header 10-branch Header CMY-Y104-G CMY-Y108-G CMY-Y1010-G Total down-stream Indoor capacity

<=P72 <=P144 <=P234

* CMY-Y104-G can directly connect PUHY-HP72TJMU, but can NOT directly connect PUHY-HP96TJMU or above; * CMY-Y108-G can directly connect PUHY-HP72-144T(S)JMU, but can NOT directly connect PUHY-HP192TSJMU * CMY-Y1010-G can directly connect PUHY-HP72-192T(S)JMU; * CMY-Y104-G can NOT connect P72, P96 Indoor, but CMY-Y108, Y1010-G can do; * Concerning detailed usage of Header parts, refer to its Installation Manual.

The first joint

Joint

b ca

IU IUIU

Header

Note1. No Joint after Header; Piping direct to Indoor Unit from Header; Note2. If the A/C system is designed to use Cooling-mode under Outside temperature 10°C [50°F], H'<=40m [131ft.]; Note3. As bents cause pressure loss on transportation of refrigerant, fewer bents design is better; Piping length needs to consider the actual length and equivalent length which bents are counted. Equivalent piping length = Actual piping length + "M" x Quantity of bent.

IU : Indoor unit , OU : Outdoor unit

Fig. 3-2-1A Piping scheme

3-2-1. PUHY-HP-72, 96TJMU Piping

Table3-2-1-1. Piping length (m [ft.]) Item Piping in the figure Max. length

Max. equivalent length Total piping length A+B+C+D+a+b+c+d+e+f+g 300 [984'] Farthest IU from OU (L1) A+C+D+g / A+B+d 150 [492'] 175 [574'] Farthest IU from first Joint (L2) C+D+g / B+d 40 [131'] 40 [131']

Height between OU and IU (OU above IU)

H 50 [164'] -

Height between OU and IU (OU under IU)

H' 40 [131'] -

Height between IU and IU h 15 [49'] -

OU: Outdoor Unit, IU: Indoor Unit

Table3-2-1-3. Piping "A" size selection rule (mm [in.]) Outdoor and the first Joint Pipe(Liquid) Pipe(Gas) PUHY-HP72TJMU=CMY-Y102S-G2 ø12.70 [1/2"] ø19.05 [3/4"] PUHY-HP96TJMU=CMY-Y102L-G2 ø12.70 [1/2"] ø22.20 [7/8"]

Table3-2-1-4. Piping "B","C","D"size selection rule

(mm [in.]) Total down-stream Indoor capacity Pipe(Liquid) Pipe(Gas) ~ P54 ø9.52 [3/8"] ø15.88 [5/8"] P55 ~ P72 ø9.52 [3/8"] ø19.05 [3/4"] P73 ~ P108 ø9.52 [3/8"] ø22.20 [7/8"] P109 ~ P144 ø12.70 [1/2"] ø28.58 [1-1/8"] P145 ~ P234 ø15.88 [5/8"] ø28.58 [1-1/8"]

Table3-2-1-5.

Piping "a","b","c","d","e","f","g"size selection rule (mm [in.]) Indoor Unit size Pipe(Liquid) Pipe(Gas) P06,P08,P12,P15,P18 ø6.35 [1/4"] ø12.70 [1/2"] P24,P27,P30,P36,P48,P54 ø9.52 [3/8"] ø15.88 [5/8"] P72 ø9.52 [3/8"] ø19.05 [3/4"] P96 ø9.52 [3/8"] ø22.20 [7/8"]

Table3-2-1-2.

Bent equivalent length "M"

Outdoor Model M (m/

bends

[ft./

bends

]) PUHY-HP72TJMU 0.30 [0.99] PUHY-HP96TJMU 0.35 [1.15]

Note4. Indoor capacity is described as its model size; For example, PEFY-P08NMAU-E, its capacity is P06; Note5. Total down-stream Indoor capacity is the summary of the model size of Indoors downstream. For example, PEFY-P06NMAU-E+PEFY-P08NMAU-E: Total Indoor capacity=P06+P08=P14 Note6. Piping sized determined by the Total down-stream indoor capacity is NOT necessary to be bigger than the up-stream one. i.e. A>=B; A>=C>=D

3-2. Piping Design

SYSTEM DESIGN

Y-SERIES

2010 H2i

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-23

3. PIPING DESIGN

Table3-2-2-4. R410A Joint selection rule

Total down-stream Indoor capacity Joint

~ P72CMY-Y102S-G2 P73~ P144 CMY-Y102L-G2 P145 ~ P234 CMY-Y202-G2

*First Joint is always CMY-Y202-G2; *Concerning detailed usage of Joint parts, refer to its Installation Manual.

Outdoor Twinning Kit CMY-Y100VBK2

Note1. No Joint after Header; Piping direct to Indoor Unit from Header; Note2. If the A/C system is designed to use cooling-mode under outside temperature 10°C [50°F], H’<=40m [131ft]. Note3. As bents cause pressure loss on transportation of refrigerant, fewer bents design is better;

Piping length needs to consider the actual length and equivalent length which bents are counted. Equivalent piping length=Actual piping length+"M" x Quantity of bent.

H (OU above IU)

H' (OU under IU)

1st Joint

Joint

IU IUIU

Header

Capped

IU : Indoor unit , OU : Outdoor unit

Fig. 3-2-1B Piping scheme

2m [6.56ft]

To indoor unit

2m [6.56ft] max

Trap (gas pipe only)

Upward incline

Downward incline

Install the pipes from the outdoor unit to the branch joint with a downward incline.

If the length of pipe between the branch joint and outdoor unit exceeds 2m [6.56ft], provide at rap at a distance 2m [6.56ft] or less from the branch joint.

3-2-2. PUHY-HP144-192TSJMU Piping

Table3-2-2-1. Piping length (m [ft.])

ItemPiping in the figureMax. length

Max. equivalent length

Total piping length

S+T+A+B+C+D+E+a+b+c+d+e+f+g

300 [984']Distance between OU and OU S+T 10[32']Height between OU and OU h2 0.1[0.3']Farthest IU from OU (L1)

S(T)+A+C+D+E+g / S(T)+A+B+c

150 [492'] 175 [574'] Farthest IU from the first Joint (L2) C+D+E+g / B+c 40 [131'] 40 [131'] Height between OU and IU (OU above IU)

H 50 [164']-

Height between OU and IU (OU under IU)

H' 40 [131']-

Height between IU and IU h1 15 [49']-

OU: Outdoor Unit, IU: Indoor Unit

Table3-2-2-3. Piping "A" size selection rule (mm [in.])

Outdoor and the first JointPipe(Liquid) Pipe(Gas) CMY-Y100VBK2=CMY-Y202-G2 ø15.88[5/8"] ø28.58[1-1/8"]

For Piping size "S","T", please refer to specification of the Twining kit CMY-Y100VBK2 at the Outdoor unit's external drawing.

Table3-2-2-2.

Bent equivalent length "M" Outdoor Model M (m/bends [ft./bends]) PUHY-HP144TSJMU 0.50 [1.64] PUHY-HP192TSJMU 0.50 [1.64]

Y-SERIES

2010 H2i

SYSTEM DESIGN

H2iSD-24

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

3. PIPING DESIGN

+++

3-3. Refrigerant Charge Calculation

At the time of shipping, the outdoor unit is charged with the refrigerant. As this charge does not include the amount needed for extended piping, additional charging for each refrigerant line will be required on site. In order that future servicing may be properly provided, always keep a record of the size and length of each refrigerant line and the amount of additional charge by writing it in the space provided on the outdoor unit.

(1) Calculation of additional refrigerant charge

Calculate the amount of additional charge based on the length of the piping extension and the size of the refrigerant

line.

Use the table to the below as a guide to calculating the amount of additional charging and charge the system

accordingly.

If the calculation results in a fraction of less than 0.1kg, round up to the next 0.1kg. For example, if the result of the

12.38kg, round the result up to 12.4kg.

calculation was

If the calculation results in a fraction of less than 1oz, round up to the next 1oz. For example, if the result of the

calculation was 435.1oz, round the result up to 436oz.

Additional refrigerant charge

Table3-2-3-1. Value of

(kg) (oz)

Total capacity of connecting indoor units

Total length of liquid

= ++

(m) (ft.)

Models 27 Models 28 54 Models 55 126 Models 127 144 Models 145 180 Models 181 234 Models 235

Example: PUHY-HP96TJMU

m [kg]

Indoor 1: P48A: 40 m a: 10 m

2: P36B: 10 m b: 5 m 3: P15 15 m c: 10 m 4: P12 10 m d: 10 m 5: P24 e: 10 m

The total length of liquid pipe of each size is as follows:

12.7 : A = 40 = 40 m

9.52 : B + C + D + a + b + e = 10 + 15 + 10 + 10 + 5 + 10 = 60 m

6.35 : c + d = 10 + 10 = 20 m

Total capacity of connecting Indoor units Pt : Pt = P48 + P36 + P15 + P12 + P24 = P135, therefore = 3.5kg

0.29 (kg/m)

x x 3.1 [oz/ft.]

Total length of liquid

(m) x 0.20 (kg/m)

(ft.)

x 2.15 [oz/ft.]

2.0 kg [71 oz]

2.5 kg [89 oz]

3.0 kg [106 oz]

3.5 kg [124 oz]

4.5 kg [159 oz]

5.0 kg [177 oz]

6.0 kg [212 oz]

Total length of liquid

(m) x 0.12 (kg/m) (ft.)

x 1.29 [oz/ft.]

ft. [oz]

Indoor 1: P48A: 131ft. 32ft.

The total length of liquid pipe of each line is as follows:

Total capacity of connecting Indoor units Pt : Pt = P48 + P36 + P15 + P12 + P24 = P135, therefore = 124oz

Total length of liquid

(m) x 0.06 (kg/m) (ft.)

x 0.65 [oz/ft.]

2: P36B: 32ft. b: 16ft. 3: P15C: 49ft. c: 32ft. 4: P12D: 32ft. d: 32ft. 5: P24 e: 32ft.

A = 131 = 131ft.

+ a + b + e = 32 + 49 + 32 + 32 + 16 + 32 = 193ft.

Total length of liquid

(m) x 0.024 (kg/m) (ft.)

x 0.26 [oz/ft.]

SYSTEM DESIGN

Y-SERIES

2010 H2i

m [kg]

Additional refrigerant charge

(kg)

ft. [oz]

Additional refrigerant charge

(oz)

B C D

a b c d

P15P36P48 P12

Total length of liquid

=+++

x 0.29 (kg/m)

0 (m) x 0.29 (kg/m)

0 0 40 x 0.12 60 x 0.06 20 x 0.024

= 12.4 kg

Total length of liquid

=+++

x 3.1 (oz/ft.)

0 (ft.) x 3.1 (oz/ft.)

0 0 131 x 1.29 193 x 0.65 64 x 0.26

= 436 [oz]

Total length of liquid

x 0.20 (kg/m)

0 (m) x 0.20 (kg/m)

++++

Total length of liquid

x 2.15 (oz/ft.)

0 (ft.) x 2.15 (oz/ft.)

++++

Total length of liquid

x 0.12 (kg/m)

40 (m) x 0.12 (kg/m)

Total length of liquid

x 1.29 (oz/ft.)

131 (ft.) x 1.29 (oz/ft.)

Total length of liquid

x 0.06 (kg/m)

60 (m) x 0.06 (kg/m)

Total length of liquid

x 0.65 (oz/ft.)

193 (ft.) x 0.65 (oz/ft.)

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

P24

Total length of liquid

x 0.024 (kg/m)

20 (m) x 0.024 (kg/m)

Total length of liquid

x 0.26 (oz/ft.)

64 (ft.) x 0.26 (oz/ft.)

H2iSD-25

3.5

+ 3.5

124

+ 124

Y-SERIES

2010 H2i

SYSTEM DESIGN

4. OUTDOOR INSTALLATION

4-1. Installation Site Requirements

Do not install in an area where the unit could be subjected to direct heat.

Avoid installing the unit in a location where the operating sound could be an annoyance.

3. Avoid the sites where strong winds blow.

Install on a stable, load-bearing surface.

Ensure there is adequate drain flow from the unit when in heating mode

See space requirements for installation and maintenance.

7. Do not install the unit in an environment that may have combustible gas, oil, steam, chemical gas like acidic solutions, sulfur gas, etc.

8. To ensure an adequate flow velocity for the exhaust pipe, make sure its horizontal gradient is higher than 1/100.

H2iSD-26

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

4. OUTDOOR INSTALLATION

4-2. Installation Clearance Space

In case of single installation

• Secure enough space around the unit as shown in the figure.

<A> : Top view <B> :Side view <C> : When there is little space up to an obstruction

(1) If the distance is 300 mm [11-13/16 in.] or more between the rear side and the wall

:Front

Unit height

300* [11-13/16]

Back

:Air outlet guide (Procured at the site)

SYSTEM DESIGN

Y-SERIES

2010 H2i

450* [17-23/32]

15* [19/32] 15* [19/32]

<A>

(2) If the distance is 100 mm [3-15/16 in.] or more between the rear side and the wall

100* [3-15/16]

450* [17-23/32]

50* [1-31/32] 50* [1-31/32]

<A>

(3) If the wall height (H) of the front, rear or side exceeds the wall height restriction

500

[19-11/16]

<B>

• When the height of the walls on the front, back or on the sides <H> exceeds the wall height limit as defined below,

add the height that exceeds the height limit <h> to the figures that are marked with an asterisk.

<Wall height limit> Front: Up to the unit height Back: Up to 500mm [19-11/16 in.] from the unit bottom Side: Up to the unit height

(4) If there are obstacles at the upper part of the unit

1000

45°

240

[39-3/8]

[9-15/32]

<C>

(Unit : mm [in.])

50 [1-31/32]

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-27

Y-SERIES

2010 H2i

SYSTEM DESIGN

4. OUTDOOR INSTALLATION

In case of collective installation and continuous installation

:Front

Must be open

• When multiple units are installed adjacent to each other, secure enough space to allow for air circulation and passageways between groups of units as shown in the figures.

• At least two sides must be left open.

• As with the single installation, add the height that exceeds the height limit <h> to the figures that are marked with an asterisk.

• If there is a wall at both the front and the rear of the unit, install up to six units consecutively in the side direction and

provide a space of 1000mm [33-3/8] or more as inlet space/passage space for each six units.

: Wall height (H)

B B

[1-3/16]

450* 300*

[17-23/32] [11-13/16]

[3-15/16]

B B

100

[3-15/16]

450* 100*

[17-23/32]

AAA

B B

1000*

[39-3/8]

300*300*

900

900 300*

[11-13/16] [11-13/16] [11-13/16]

[35-7/16]

H2iSD-28

450*

[17-23/32] [17-23/32] [17-23/32]

450 450

100*

[3-15/16]

15*

AAA

450 450

[17-23/32] [17-23/32]

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

(Unit : mm [in.])

4. OUTDOOR INSTALLATION

4-3. Piping Direction

4-3-1. Lifting method

· When lifting the unit with ropes, run the ropes under the unit and use the lifting hole.

· Support the unit at four points with two ropes, and avoid giving mechanical shock.

· Suspension rope angle must be 40° or less, so as to avoid compressing fan guard.

· Use two ropes, each at least 8m [26 ft.] in length

· Use ropes strong enough to support the weight of the unit.

· Always suspend the unit from four corners. (It is dangerous to suspend a unit from two corners and must not be attempt ed.)

· Use protective pads to keep the ropes from scratching the panels on the unit.

SYSTEM DESIGN

Y-SERIES

2010 H2i

1 HP72 HP96

8 [26]

40°

8 [26]

CAUTION

Exercise caution when transporting products.

· Products weighing more than 20 kg [45 LBS] should not be carried alone.

· Do not carry the product by the PP bands.

· To avoid the risk of injury, do not touch the heat exchanger fins.

· Plastic bags may pose a risk of choking hazard to children. Tear plastic bags into pieces before disposing of them.

· When lifting and transporting outdoor units with ropes, run the ropes through lifting hole at the unit base. Securely

fix the unit so that the ropes will not slide off, and always lift the unit at four points to prevent the unit from falling.

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-29

4. OUTDOOR INSTALLATION

4-3-2. Installation

Y-SERIES

2010 H2i

SYSTEM DESIGN

· Secure the unit with anchor bolts as shown in the figure below so that the unit will not topple over with strong wind or during an earthquake.

· Install the unit on a durable base made of such materials as concrete or angle steel.

· Ta ke appropriate anti-vibration measures (e.g., vibration damper pad, vibration isolation base) to keep vibrations and noise from being transmitted from the unit through walls and floors.

· Install the unit in such a way that the corner of the angle bracket at the base of the unit shown in the figure below is securely supported.

· Install the anchor bolt in such a way that the top end of the anchor bolt do not stick out more than 30 mm [1-3/16in].

· This unit is not designed to be anchored with post-installation-type anchor bolts, although by adding fixing brackets anchoring with such type of anchor bolts becomes possible.

WARNING

Properly install the unit on a surface that can withstand the weight of the unit.Unit installed on an unstable surface may fall and cause injury.

WARNING

Ta ke appropriate safety measures against strong winds and earthquakes to prevent the unit from falling.

[1-3/16in]

30mm

Install the unit in such a way that the corner of the angle bracket at the base of the unit shown in the figure is securely supported. The brackets may bend if they are not securely supported.

Fixing bracket for postinstallation-type anchor bolts.

Ta ke into consideration the durability of the base, water drainage route (Drain water is discharged from outdoor units during operation.), piping route, and wiring route when performing foundation work.

4-3-3. Anchor bolt positions

<HP72, 96>

• Individual installation • Collective installation

724±3 [(28-13/32~28-5/8)]

AAAA

(For maintenance)

30 [1-3/16] 190 [7-1/2]

30 [1-3/16]

190 [7-1/2]

Leave a minimum of 30 mm [1-3/16 in.] between units.

HP72

760±2 [29-15/16(29-27/32~30)]

1060±2 [41-3/4(41-21/32~41-13/16)]

(Unit : mm [in.])

724±3 [(28-13/32~28-5/8)]

HP96PUHY

H2iSD-30

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

4. OUTDOOR INSTALLATION

4-3-4. Installation

When the pipes and/or cables are routed at the bottom of the unit, make sure that the through hole at the base of the unit does not get blocked with the installation base. When the pipes are routed at the bottom of the unit, the base should be at least 100 mm [3-15/16 in] in height.

· HP72

(Unit : mm [in.]) (Unit : mm [in.])

· HP96

SYSTEM DESIGN

Y-SERIES

2010 H2i

(5-29/32)

221

251

186

(3-5/32)

150

(3-9/32)

Refrigerant service valve <gas>

760

(29-15/16)

(Mounting pitch)

(5-23/32)

(3-13/32) 86

145

(3-5/32)

(8-23/32) (9-29/32) (7-11/32)

(5-3/16)

(5-29/32)

131

150

Refrigerant service valve <liquid>

Bottom view

4-3-5. Refrigerant pipe routing

2X2-14(9/16)X20(13/16) Oval hole

(23/32)

(3-5/8)

(29-15/16) (760)

(Mounting pitch)

724(721~727)

(28-13/32~28-5/8)

(28-17/32)

(23/32)

(10-11/16)

(11-7/8)

(8-17/32)

(5-3/16)

(5-29/32)

131

150

Refrigerant service valve <liquid>

Installation base perpendicular to the unit’s front panelInstallation base parallel to the unit’s front panel

(5-29/32)

150271

301 83

216

(3-5/32) (3-5/32)

(3-9/32)

Refrigerant service valve <gas>

1060

(41-3/4)

(Mounting pitch)

(5-23/32)

(3-5/16)

145

94 84

(3-23/32)

8080

Bottom view

2X2-14(9/16)X20(13/16) Oval hole

(23/32)

(29-15/16) 760

724(721~727)

(Mounting pitch)

(28-13/32~28-5/8)

(28-17/32)

(23/32)

Example of closure materials (field-supplied)

Fill the gap at the site

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

The gaps around the edges of through holes for pipes and wires on the unit allow water or mice to enter the unit and damage its parts. Close these gaps with filler plates.

This unit allows two types of pipe routing:

• Bottom piping

• Front piping

CAUTION

To prevent small animals, water and snow from entering the unit and damage its parts, close the gap around the edges of through holes for pipes and wires with filler plates.

H2iSD-31

4. OUTDOOR INSTALLATION

4-3-6. Twinning on the outdoor unit side

Reducer

±15°

The tilt angle of the reducer should be within

±15° with the horizontal plane.

Note: See the following drawing for the fitting position of the twinning pipe.

The tilt angle of the twinning pipe

The tilt angle of the twinning pipe must be within ±15° with the horizontal plane. Tilting the twinning pipe more than specified will cause damage to the unit.

The length of the straight part of the pipe before the branching

For the twinning kit, always use the accessory piping parts. The length of the straight part of pipe connected in front of the twinning pipe must be 500 mm (19 in) or longer. (Connect the field piping so that the length of the straight part of pipe connected in front of the twinning pipe can be 500 mm (19 in) or longer.) If the length is less than 500 mm (19 in), it will cause damage to the unit.

To Indoor unit

Less than 2 m (6 ft)

To Indoor unit

(6 ft)

200 mm (7 in) or over

Trap (gas pipe only)

The piping connection

When connecting the twinning kit to the outdoor unit, note the following: If the length of piping from the twinning kit to the outdoor unit is more than 2 m (6 ft),

install a trap within 2 m (6 ft) from the outdoor unit. The height of the trap must be 200 mm (7 in) or higher.

When installing the twinning kit in a higher position than the outdoor unit base, make

sure that the twinning kit is installed in a position lower than 200 mm (7 in) from the outdoor unit base.

<2 m (6 ft) or less>

<PUHY-HP144TSJMU-A>

<PUHY-HP192TSJMU-A>

Outdoor unit 1Outdoor unit 2

200 mm (7 in) or less

Twinning pipe1

To Indoor unit

To indoor unit

Twinning pipe 1

200mm [7 in.] or less

Outdoor unit 1

Outdoor unit 2

Y-SERIES

2010 H2i

SYSTEM DESIGN

H2iSD-32

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

4. OUTDOOR INSTALLATION

4-3-7. Twinning on the outdoor unit side

See the following drawing for connecting the pipes between the outdoor units.

<PUHY-HP144 TSJMU-A>

<PUHY-HP192TSJMU-A>

Field piping

Twinning kit

Field piping

The length of the straight pipe

must be 500 mm [19 in.

]

or longer

SYSTEM DESIGN

Y-SERIES

2010 H2i

Field piping

Twinning kit

CAUTION

The length of the straight pipe must be 500mm[19in.] or longer. If not, it may cause improper operation.

Field piping

The length of the straight pipe

must be 500 mm [19 in.] or longer

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-33

• Snow hood

2010 H2i

4. OUTDOOR INSTALLATION

4-4. Weather Countermeasures

906 [35-11/16]

Y-SERIES

SYSTEM DESIGN

(See Note 1)

800 [31-1/2]

1324 [52-5/32]

[3-13/32]

(920 [36-1/4])

750 [29-17/32]

(760) [29-15/16]

Unit : mm[in]

453 [17-27/32] 453 [17-27/32]

910 [35-27/32]

760 [29-15/16]

Outlet

453 [17-27/32]

Inlet

Note:

1.Height of frame base for snow damage prevention (H) 12 inches above the average snowfall. Width of frame base shall not exceed that of the unit. The frame base shall be made of angle steel, etc., and designed so that snow and wind slip through the structure. (If frame base is too wide, snow will be accumulated on it.)

2.Install unit so that wind will not directly lash against openings of inlet and outlet ducts.

3.Build frame base at customer referring to this figure.

Material: Galvanized steel plate 1.2T [1/16 in T] Painting: Overall painting with polyester powder Color: Munsell 5Y8/1 (same as that of unit)

4.When the unit is used in a cold region and the heating operation is continuously performed for a long time when the outside air temperature is below freezing, install a heater to the unit base or take other appropriate measures to prevent water from freezing on the base.

Countermeasure to wind

Referring to the figure shown below, take appropriate measures which will suit the actual situation of the place for installation.

Wind

H2iSD-34

Install the outdoor unit where seasonal winds do not blow directly against the unit, such as behind a building.

Install the outdoor unit to avoid having seasonal winds against the front of air outlet/inlet on the unit.

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

4. OUTDOOR INSTALLATION

Prevailing

Outdoor Units

Building Wall

12"

1-3/16"

Concrete Pad

4-5. Low Ambient Kit Application Guidelines

General Unit Placement and Clearances

• Outdoor units should be located in an area protected from

prevailing winds.

• In high wind locations, it may be advisable to install the outdoor

units within a walled area.

• Hood discharge should be directed away from or perpendicular to the prevailing winds. Do not direct the hood discharge towards prevailing winds.

• When using the low ambient components, add an additional 7” to

the standard mounting clearances.

Note:

Equipment supports must elevate the unit at least 12” above the average expected snow depth or 12” above the ground, whichever is higher. The equipment supports must be an open construction to minimize snow drifting and/or ice formation during defrost.

Wind

Top View

SYSTEM DESIGN

Y-SERIES

2010 H2i

If the units are surrounded by an enclosure, the hood must be positioned that the air is directed out and over the walls to prevent air recirculation.

Equipment Supports

When modules are combined, they should be placed a minimum of 1-3/16” apart.Bydoingso,onlyonesetofsidewinddeectors(SWD-1)are required per group of modules.

Theequipmentsupportmustbermlyattachedtothegroundorstructure.

The outdoor unit must be properly attached to the equipment support with 3/8” stainless steel or equal strength to at least a grade 5 bolt.

Note:

If the outdoor unit is located in an area with continuous high winds, additional braced may be required. Contact your distributor for assistance.

Minimum 3/8”

stainless steel or

harder bolts

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

H2iSD-35

Important!

For all roof top

installations, safety

straps must be

attached between the

hood(s) and the unit

mounting structure.

Y-SERIES

2010 H2i

SYSTEM DESIGN

4. OUTDOOR INSTALLATION

Additional Rooftop Mounting Guidelines

Ground-level installation is preferred for outdoor units that include a low ambient kit. If ground-level installation is not possible, follow general, as well all additional installation guidelines for rooftop mounting. If you have any questions, please contact your distributor.

Note:

Low ambient hood(s) increase the overall height of the outdoor units and make them more susceptible to wind stresses. Follow all guidelines when using these for rooftop applications.

• Straps must be attached to the hood where they will not interfere with the movement of the dampers.

Note:

For all rooftop installation, safety straps must be attached between the hood(s) and the equipment support structure. Straps should be 3/16” (or larger) vinyl-coated cables.

• Straps must be connected to both the hood and mounting structure through using ¼” diameter (or larger) bolt.

• Theoutdoorunitandequipmentsupportshouldbermly attached to the structure. If the equipment support does not attach to the structure, refer to the support manufacturer’s guidelines for proper size and construction.

Safety strap Provided by others

Dependingonlocation,exposureandotherfactorsinuencingwind

access or blockage, additional support may be required such as shown at right. Contact your distributor for assistance.

H2iSD-36

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

5. STANDARD AND SEACOAST (BS) PROTECTION TREATMENT

5-1. H2i Y-Series

Component Base Material

External Panel Base

External Front Panel

Pillar

Compressor Cover

Fin Guard Steel Wires

Fan Guard and Drum

Fan Fan Motor Frame Galvanized Steel Sheet Fan Motor Shaft High-carbon S35C Steel

Fan Motor Support Galvanized Steel Sheet

Heat Exchanger (Fin Only)

Electrical Parts Box

Printed Circuit Board Epoxy Resin

Screws Steel

Alloyed Galvanized Steel Sheet

Galvanized Steel Sheet Galvanized Aluminum

Sheet

Weather-resistant Polypropylene Plastic

Weather-resistant Acrylic Nitrile Styrene Plastic

Aluminum Plate

Galvanized Steel Sheet Galvanized Aluminum

Sheet

Standard

Models

● ●

●

● ●

●

● ●

Seacoast

Protection

Models (-BS)

●

Surface

Treatment

Thermoset Polyester-resin Powder Coating

Polyester-resin Coating ≥15μm ≥5μm Thermoset Polyester-resin

Powder Coating Polyester-resin Coating ≥30μm Thermoset Polyester-resin

Powder Coating No Treatment Thermoset Polyester-resin

Powder Coating Weather-resistant

Polypropylene-resin Coating

No Treatment

No Treatment No Treatment Rust-prevention Coating No Treatment

Thermoset Polyester-resin Powder Coating

Cellulose- and Polyurethaneresin Coating (Blue Fin)

(no unusual rust development to 480 hours)

Cellulose- and Polyurethaneresin Coating (Blue Fin)

(no unusual rust development to 960 hours)

No Treatment Thermoset Polyester-resin

Powder Coating No Treatment

Polyurethane Coating ≥10μm

Zinc-nickel Alloy Plating with a Chromate Film

External Surface Internal Surface

Coating Thickness

≥70μm ≥70μm

≥85μm ≥75μm

≥70μm ≥70μm

≥300μm ≥300μm

≥70μm ≥70μm

≥1μm

≥1-1.5μm

≥70μm

≥5μm

SYSTEM DESIGN

Y-SERIES

2010 H2i

Application Guide

Direct Exposure to Sea Breezes Facing Inland Seacoast Protection (-BS) Models Standard Models Facing Sea Seacoast Protection (-BS) Models On an Island Seacoast Protection (-BS) Models Indirect Exposure to Sea Breezes Facing Inland Seacoast Protection (-BS) Models Standard Models Facing Sea Seacoast Protection (-BS) Models On an Island Seacoast Protection (-BS) Models

Material

Test Conditions

Test Results

984′(300m) 1,640′(500m) 3,281′(1km)

Thermoset Polyester-resin

Powder Coating

Salt-spray T est Method: JIS

K2371 based on ISO9227

Conform to JRA9002 Criteria

(960-hour test)

Distance from the Sea

Cellulose- and Polyurethane-

resin Coating (Blue Fin)

Salt-spray T est Method: JIS Z2371

based on ISO9227

No unusual rust

development to

480 hours

No unusual rust development to

960 hours

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

For optimum performance, follow the cautions listed below.

1. Avoid installing the unit in a location that is subjected to direct sea winds.

2. Do not attach a sunshade to the unit. Let the rain wash away any salt residue that may adhere to the unit.

3. Unit should be installed following instructions for proper operation and to ensure optimum water drainage.

4. Periodically wash the unit.

5. If the panels become scratched, repair as soon as possible.

6. Inspect the unit at regular intervals. Paint the unit or replace parts when necessary.

“Blue Fin” treatment is an anti-corrosion treatment that is applied to the condenser coil to protect it against airborne contaminants.

H2iSD-37

6. CAUTIONS

R410A refrigerant is harmless and incombustible. R410A is heavier than the indoor air in density. Leakage of the refrigerant in a room has possibility to lead to a hypoxia situation. Therefore, the critical concentration specified below shall not be exceeded even if the leakage happens.

Critical concentration

Critical concentration is the maximum refrigerant concentration at which no harm would occur if immediate measures are taken when refrigerant leakage happens.

Critical concentration of R410A: 0.30kg/m

(The weight of refrigeration gas per 1 m

[1 ft3] air

conditioning space.);

The critical concentration is per ISO5149, EN378-1 (other codes and standards may establish different values for critical concentration).

For CITY MULTI systems, the concentration of refrigerant leaked should not exceed the critical concentration in any situation.

[0.0187 lbs./ft

]

The maximum refrigerant leakage concentration (Rmax) is defined as the result of the possible maximum refrigerant weight (Wmax) leaked into a room divided by its room capacity (V). The refrigerant weight includes itsoriginal charge and additional charge at the site. The additional charge is calculated according to "

PUHY-P-T(S)HMU/Y(S)HMU's refrigerant charging calculation

", and shall not be

over charged at the site

Procedure 6-2-1~3 tells how to confirm maximum refrigerant leakage concentration (Rmax) and how to take

Refrigerant pipe

to Outdoor unit

Indoor unit

Opening

Ventilation air supply fan (always ON)

Indoor space

(Floor)

Fig. 6-2. air supply always ON

Refrigerant pipe

to Outdoor unit

Indoor unit

Opening

Sensor for refrigerant leakage (Oxygen sensor or refrigerant sensor). [At 0.3m height from the floor]

Ventilation air supply fan

Indoor space

(Floor)

Fig. 6-3.

air supply upon sensor action

Note 1. Countermeasure 3 should be done in a proper way in which the ventilation air supply shall be on whenever the leakage happens . Note 2. In principle, MITSUBISHI ELECTRIC requires proper piping design, installation and air-tight testing after installation to avoid leakage happening.

In the area should earthquake happen, anti-vibration measures should be fully considered. The piping should consider the extension due to the temperature variation.

Outdoor unit (No.1)

Flow of refrigerant

Indoor unit

Maximum refrigerant leakage concentration (Rmax)

Outdoor unit (No.1) Outdoor unit (No.2)

Indoor unit

Flow of refrigerant Flow of refrigerant

Rmax=Wmax / V

Maximum refrigerant leakage concentration (Rmax) Rmax=Wmax / V where, Wmax=W1+W2

W1: Refrigerant weight of Outdoor unit No.1 W2: Refrigerant weight of Outdoor unit No.2

Fig. 6-1 The maximum refrigerant leakage concentration

6-2-1.Find the room capacity (V),

If a room having total opening area more than 0.15% of the floor area at a low position with another room/space, the two rooms/space are considered as one. The total space shall be added up.

6-2-2.Find the possible maximum leakage (Wmax) in the room. If a room has Indoor unit(s) from more than 1 Outdoor unit, add up the refriger-

ant of the Outdoor units. 6-2-3.Divide (Wmax) by (V) to get the maximum refrigerant leakage concentration (Rmax). 6-2-4.Find if there is any room in which the maximum refrigerant leakage concentration (Rmax) is over 0.30kg/m

If no, then the CITY MULTI is safe against refrigerant leakage.

If yes, following countermeasure is recommended to do at site.

Countermeasure 1: Let-out (making V bigger)

Design an opening of more than 0.15% of the floor area at a low position of the wall to let out the refrigerant whenever leaked. e.g. make the upper and lower seams of door big enough.

Countermeasure 2: Smaller total charge (making Wmax smaller)

e.g. Avoid connecting more than 1 Outdoor unit to one room. e.g. Using smaller model size but more Outdoor units. e.g. Shorten the refrigerant piping as much as possible.

Countermeasure 3:

As the density of the refrigerant is bigger than that of the air. Ventilation air supply solution refers to Fig. 6-2~3.

countermeasures against a possible leakage.

Ventilation air in from the ceiling.

Ventilation air from the ceiling is better than air exhausting from the ceiling.

Ventilation Ventilation

[0.0187 lbs./ft. ].

e.g. Remove unit from space.

The installer and/or air-conditioning system specialist shall follow local safety regulations and standards regarding refrigerant leakage. The following standard may be applicable if a local regulation or standard is available.

2010 H2i

6-1. Refrigerant Properties

Y-SERIES

SYSTEM DESIGN

6-2. Conrm the Critical Concentration Levels and Perform Countermeasures

H2iSD-38

2010 Hyper-heating Y-SERIES SYSTEM DESIGN (Sept. 2010)

Mitsubishi Electronics H2iSD-1 User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual