Toshiba RAV-SM802CT-E, RAV-SM563AT-E, RAV-SM562CT-E, RAV-SM562BT-E, RAV-SM1402CT-E User Manual 2

...
Page 1
FILE NO. A06-010
Revised : Mar. 2007
SERVICE MANUAL/INTEGRATION
AIR-CONDITIONER
SPLIT TYPE
INDOOR UNIT
<DIGITAL INVER TER> RAV-SM563UT-E RAV-SM562BT-E RAV-SM562CT-E
<SUPER DIGITAL INVERTER> RAV-SP1102UT-E
OUTDOOR UNIT
<DIGITAL INVERTER> RAV-SM563AT-E RAV-SM803AT-E RAV-SM1103AT-E RAV-SM1403AT-E
<SUPER DIGITAL INVERTER> RAV-SP562AT-E RAV-SP802AT-E RAV-SP1102AT-E RAV-SP1402AT-E
R410A
PRINTED IN JAPAN, Mar.,2007 ToMo
Page 2
ADOPTION OF NEW REFRIGERANT
This Air Conditioner is a new type which adopts a new refrigerant HFC (R410A) instead of the conventional refrigerant R22 in order to prevent destruction of the ozone layer.
WARNING
Cleaning of the air filter and other parts of the air filter involves dangerous work in high places, so be sure to have a service person do it. Do not attempt it yourself. The cleaning diagram for the air filter is there for the service person, and not for the customer.
NOTE
A direct current motor is adopted for indoor fan motor in the Concealed Duct Standard Type air conditioner. Caused from its characteristics, a current limit works on the direct current motor. When replacing the high­performance filter or when opening the service board, be sure to stop the fan. If an above action is executed during the fan operation, the protective control works to stop the unit operation, and the check code “P12” may be issued. However it is not a trouble. When the desired operation has finished, be sure to reset the system to clear “P12” error code using the leak breaker of the indoor unit. Then push the operation stop button of the remote controller to return to the usual operation.
CONTENTS
SAFETY CAUTION ............................................................................................ 4
1. SPECIFICATIONS......................................................................................... 9
1-1. Indoor Unit........................................................................................................... 9
1-2. Outdoor Unit...................................................................................................... 17
1-3. Operation Characteristic Curve....................................................................... 19
2. AIR DUCTING WORK ................................................................................. 22
2-1. Static Pressure Characteristics of Each Model ............................................. 22
3. CONSTRUCTION VIEWS (EXTERNAL VIEWS)......................................... 24
3-1. Indoor Unit......................................................................................................... 24
3-2. Outdoor Unit...................................................................................................... 28
4. SYSTEMATIC REFRIGERATING CYCLE DIAGRAM ................................ 31
4-1. Indoor Unit/Outdoor Unit ................................................................................. 31
5. WIRING DIAGRAM ..................................................................................... 39
5-1. Indoor Unit......................................................................................................... 39
5-2. Outdoor Unit (Wiring Diagram)........................................................................ 42
6. SPECIFICATIONS OF ELECTRICAL PARTS............................................. 46
6-1. Indoor Unit......................................................................................................... 46
6-2. Outdoor Unit...................................................................................................... 48
6-3. Accessory Separate Soldparts ........................................................................ 50
– 2 –
Page 3
7. REFRIGERANT R410A .............................................................................. 51
7-1. Safety During Installation/Servicing ............................................................... 51
7-2. Refrigerant Piping Installation....................................................................... 51
7-3. Tools .................................................................................................................. 55
7-4. Recharging of Refrigerant................................................................................ 55
7-5. Brazing of Pipes................................................................................................ 56
7-6. Instructions for Re-use Piping of R22 or R407C ............................................ 58
8. CONTROL BLOCK DIAGRAM ................................................................... 61
8-1. Indoor Control Cir cuit....................................................................................... 61
8-2. Control Specifications...................................................................................... 62
8-3. Indoor Print Circuit Board................................................................................ 70
9. CIRCUIT CONFIGURATION AND CONTROL SPECIFICATIONS ............. 71
9-1. Indoor Control Cir cuit....................................................................................... 71
9-2. Outdoor Controls.............................................................................................. 71
10. TROUBLESHOOTING............................................................................... 80
10-1. Summary of Troubleshooting........................................................................... 80
10-2. Check Code List................................................................................................ 82
10-3. Error Mode Detected by LED on Outdoor P.C. Board .................................... 85
10-4. Troubleshooting Procedure f or Each Check Code......................................... 86
11. REPLACEMENT OF SERVICE INDOOR P.C. BOARD .......................... 102
12. SETUP AT LOCAL SITE AND OTHERS ................................................ 106
12-1. Indoor Unit....................................................................................................... 106
12-2. Setup at Local Site / Others ........................................................................... 113
12-3. How to set up central control address number............................................ 115
13. ADDRESS SETUP .................................................................................. 116
13-1. Address Setup ................................................................................................ 116
13-2. Address Setup & Group Control.................................................................... 117
13-3. Address Setup ................................................................................................ 118
14. DETACHMENTS..................................................................................... 120
14-1. Indoor Unit...................................................................................................... 120
14-2. Outdoor Unit.................................................................................................... 134
15. EXPLODED VIEWS AND PARTS LIST ................................................. 159
15-1. Indoor Unit....................................................................................................... 159
15-2. Outdoor Unit.................................................................................................... 173
15-3. Replacement of Main Parts (Sold Separately).............................................. 181
16. CORD HEATER INSTALLATION WORK ................................................ 183
16-1. Required parts for installation work (Recommendation) ............................ 183
16-2. Base Plate ....................................................................................................... 192
3
Page 4
SAFETY CAUTION
The important contents concerned to the safety are described on the product itself and on this Service Manual. Please read this Service Manual after understanding the described items thoroughly in the following contents
(Indications/Illustrated marks), and keep them.
[Explanation of indications]
Indication
DANGER
WARNING
CAUTION
Property damage : Enlarged damage concerned to property, furniture, and domestic animal/pet
Indicates contents assumed that an imminent danger causing a death or serious injury of the repair engineers and the third parties when an incorrect work has been executed.
Indicates possibilities assumed that a danger causing a death or serious injury of the repair engineers, the third parties, and the users due to troubles of the product after work when an incorrect work has been executed.
Indicates contents assumed that an injury or property damage ( ) may be caused on the repair engineers, the third parties, and the users due to troubles of the product after work when an incorrect work has been executed.
Explanation
[Explanation of illustrated marks]
Mark Explanation
Indicates prohibited items (Forbidden items to do) The sentences near an illustrated mark describe the concrete prohibited contents.
Indicates mandatory items (Compulsory items to do) The sentences near an illustrated mark describe the concrete mandatory contents.
Indicates cautions (Including danger/warning) The sentences or illustration near or in an illustrated mark describe the concrete cautious contents.
[Confirmation of warning label on the main unit]
Confirm that labels are indicated on the specified positions (Refer to the Parts disassembly diagram (Outdoor unit).)
If removing the label during parts replace, stick it as the original.
DANGER
Turn “OFF” the breaker before removing the front panel and cabinet, otherwise an electric shock is caused by high voltage resulted in a death or injury.
During operation, a high voltage with 400V or higher of circuit () at secondary circuit of the high­voltage transformer is applied.
Tur n off breaker.
Execute discharge
between terminals.
Prohibition
If touching a high voltage with the naked hands or body, an electric shock is caused even if using an electric insulator.
: For details, refer to the electric wiring diagram.
When removing the front panel or cabinet, execute short-circuit and discharge between high­voltage capacitor terminals.
If discharge is not executed, an electric shock is caused by high voltage resulted in a death or injury. After turning off the breaker, high voltage also keeps to apply to the high-voltage capacitor.
Do not turn on the breaker under condition that the front panel and cabinet are removed.
An electric shock is caused by high voltage resulted in a death or injury.
– 4 –
Page 5
Check earth wires.
Prohibition of modification.
Use specified parts.
Do not bring a child
close to the equipment.
Insulating measures
No fire
WARNING
Before troubleshooting or repair work, check the earth wire is connected to the earth terminals of the main unit, otherwise an electric shock is caused when a leak occurs.
If the earth wire is not correctly connected, contact an electric engineer for rework.
Do not modify the products.
Do not also disassemble or modify the parts. It may cause a fire, electric shock or injury.
For spare parts, use those specified (
If unspecified parts are used, a fire or electric shock may be caused. : For details, refer to the parts list.
Before troubleshooting or repair work, do not bring a third party (a child, etc.) except the repair engineers close to the equipment.
It causes an injury with tools or disassembled parts. Please inform the users so that the third party (a child, etc.) does not approach the equipment.
Connect the cut-off lead cables with crimp contact, etc, put the closed end side upward and then apply a water-cut method, otherwise a leak or production of fire is caused at the users’ side.
When repairing the refrigerating cycle, take the following measures.
1) Be attentive to fire around the cycle. When using a gas stove, etc, be sure to put out fire before work; otherwise the oil mixed with refrigerant gas may catch fire.
2) Do not use a welder in the closed room. When using it without ventilation, carbon monoxide poisoning may be caused.
3) Do not bring inflammables close to the refrigerant cycle, otherwise fire of the welder may catch the inflammables.
∗∗
∗).
∗∗
Refrigerant
Check the used refrigerant name and use tools and materials of the parts which match with it.
For the products which use R410A refrigerant, the refrigerant name is indicated at a position on the outdoor unit where is easy to see. To prevent miss-charging, the route of the service port is changed from one of the former R22.
For an air conditioner which uses R410A, never use other refrigerant than R410A. For an air conditioner which uses other refrigerant (R22, etc.), never use R410A.
If different types of refrigerant are mixed, abnormal high pressure generates in the refriger­ating cycle and an injury due to breakage may be caused.
Do not charge refrigerant additionally.
If charging refrigerant additionally when refrigerant gas leaks, the refrigerant composition in the refrigerating cycle changes resulted in change of air conditioner characteristics or refrigerant over the specified standard amount is charged and an abnormal high pressure is applied to the inside of the refrigerating cycle resulted in cause of breakage or injury. Therefore if the refrigerant gas leaks, recover the refrigerant in the air conditioner, execute vacuuming, and then newly recharge the specified amount of liquid refrigerant. In this time, never charge the refrigerant over the specified amount.
When recharging the refrigerant in the refrigerating cycle, do not mix the refrigerant or air other than R410A into the specified refrigerant.
If air or others is mixed with the refrigerant, abnormal high pressure generates in the refrigerating cycle resulted in cause of injury due to breakage.
After installation work, check the refrigerant gas does not leak.
If the refrigerant gas leaks in the room, poisonous gas generates when gas touches to fire such as fan heater, stove or cocking stove though the refrigerant gas itself is innocuous.
Never recover the refrigerant into the outdoor unit.
When the equipment is moved or repaired, be sure to recover the refrigerant with recover­ing device. The refrigerant cannot be recovered in the outdoor unit; otherwise a serious accident such as breakage or injury is caused.
Assembly/Cabling
After repair work, surely assemble the disassembled parts, and connect and lead the removed cables as before. Perform the work so that the cabinet or panel does not catch the inner cables.
If incorrect assembly or incorrect cable connection was done, a disaster such as a leak or fire is caused at user’s side.
– 5 –
Page 6
WARNING
Insulator check
Ventilation
Be attentive to
electric shock
Compulsion
After the work has finished, be sure to use an insulation tester set (500V mugger) to check the resistance is 2M metal section (Earth position).
If the resistance value is low, a disaster such as a leak or electric shock is caused at user’s side.
When the refrigerant gas leaks during work, execute ventilation.
If the refrigerant gas touches to a fire, poisonous gas generates. A case of leakage of the refrigerant and the closed room full with gas is dangerous because a shortage of oxygen occurs. Be sure to execute ventilation.
When checking the circuit inevitably under condition of the power-ON, use rubber gloves and others not to touch to the charging section.
If touching to the charging section, an electric shock may be caused.
When the refrigerant gas leaks, find up the leaked position and repair it surely.
If the leaked position cannot be found up and the repair work is interrupted, pump-down and tighten the service valve, otherwise the refrigerant gas may leak into the room. The poisonous gas generates when gas touches to fire such as fan heater, stove or cocking stove though the refrigerant gas itself is innocuous.
When installing equipment which includes a large amount of charged refrigerant such as a multi air conditioner in a sub-room, it is necessary that the density does not the limit even if the refrigerant leaks.
If the refrigerant leaks and exceeds the limit density, an accident of shortage of oxygen is caused.
For the installation/moving/reinstallation work, follow to the Installation Manual.
If an incorrect installation is done, a trouble of the refrigerating cycle, water leak, electric shock or fire is caused.
ΩΩ
or more between the charge section and the non-charge
ΩΩ
Check after rerair
Check after reinstallation
Put on gloves
Cooling check
After repair work has finished, check there is no trouble.
If check is not executed, a fire, electric shock or injury may be caused. For a check, turn off the power breaker.
After repair work (installation of front panel and cabinet) has finished, execute a test run to check there is no generation of smoke or abnormal sound.
If check is not executed, a fire or an electric shock is caused. Before test run, install the front panel and cabinet.
Check the following items after reinstallation.
1) The ear th wire is correctly connected.
2) The power cord is not caught in the product.
3) There is no inclination or unsteadiness and the installation is stable. If check is not executed, a fire, an electric shock or an injury is caused.
CAUTION
Be sure to put on gloves (
If not putting on gloves, an injury may be caused with the parts, etc. () Heavy gloves such as work gloves
When the power was turned on, start to work after the equipment has been sufficiently cooled.
As temperature of the compressor pipes and others became high due to cooling/heating operation, a burn may be caused.
∗∗
) during repair work.
∗∗
– 6 –
Page 7
New Refrigerant (R410A)
This air conditioner adopts a new HFC type refrigerant (R410A) which does not deplete the ozone layer.
1. Safety Caution Concerned to New Refrigerant
The pressure of R410A is high 1.6 times of that of the former refrigerant (R22). Accompanied with change of refrigerant, the refrigerating oil has been also changed. Therefore, be sure that water, dust, the former refrigerant or the former refrigerating oil is not mixed into the refrigerating cycle of the air conditioner with new refrigerant during installation work or service work. If an incorrect work or incorrect service is per­formed, there is a possibility to cause a serious accident. Use the tools and materials exclusive to R410A to purpose a safe work.
2. Cautions on Installation/Service
1) Do not mix the other refrigerant or refrigerating oil. For the tools exclusive to R410A, shapes of all the joints including the service port differ from those of the
former refrigerant in order to prev ent mixture of them.
2) As the use pressure of the new refrigerant is high, use material thickness of the pipe and tools which are specified for R410A.
3) In the installation time, use clean pipe materials and work with great attention so that water and others do not mix in because pipes are affected by impurities such as water, oxide scales, oil, etc. Use the clean pipes.
Be sure to brazing with flowing nitrogen gas. (Never use gas other than nitrogen gas.)
4) For the earth protection, use a vacuum pump for air purge.
5) R410A refrigerant is azeotropic mixture type refrigerant. Therefore use liquid type to charge the refriger­ant. (If using gas for charging, composition of the refrigerant changes and then characteristics of the air conditioner change.)
3. Pipe Materials
For the refrigerant pipes, copper pipe and joints are mainly used. It is necessary to select the most appropri­ate pipes to conform to the standard. Use clean material in which impurities adhere inside of pipe or joint to a minimum.
1) Copper pipe
<Piping>
The pipe thickness, flare finishing size , flare nut and others differ according to a refrigerant type. When us#ing a long copper pipe for R410A, it is recommended to select “Copper or copper-base pipe
without seam” and one with bonded oil amount 40mg/10m or less. Also do not use crushed, deformed, discolored (especially inside) pipes. (Impurities cause clogging of expansion valves and capillary tubes.)
<Flare nut>
Use the flare nuts which are attached to the air conditioner unit.
2) Joint
The flare joint and socket joint are used for joints of the copper pipe. The joints are rarely used for installa­tion of the air conditioner. However clear impurities when using them.
– 7 –
Page 8
4. Tools
1. Required T ools for R410A Mixing of different types of oil may cause a trouble such as generation of sludge, clogging of capillary,
etc. Accordingly, the tools to be used are classified into the following three types.
1) Tools exclusive for R410A (Those which cannot be used for conventional refrigerant (R22))
2) Tools exclusive for R410A, but can be also used for conventional refrigerant (R22)
3) Tools commonly used for R410A and for conventional refrigerant (R22) The table below shows the tools exclusive for R410A and their interchangeability.
Tools exclusive for R410A (The following tools for R410A are required.)
Tools whose specifications are changed for R410A and their interchangeability
No.
Flare tool
Copper pipe gauge for
adjusting projection margin Torque wrench
Gauge manifold
Charge hose
V acuum pump adapter
Electronic balance for
refrigerant charging Refrigerant cylinder
Leakage detector
Charging cylinder
Used tool
Usage
Pipe flaring Flaring by conventional
flare tool Connection of flare nut
Evacuating, refrigerant charge, run check, etc.
V acuum evacuating
Refrigerant charge Refrigerant charge
Gas leakage check Refrigerant charge
air conditioner installation
R410A
Existence of Whether conven­new equipment tional equipment for R410A can be used
Yes *(Note 1)
Yes *(Note 1) Yes No
Yes No
Yes No
Yes Yes Yes No
Yes No
(Note 2) No
Conventional air
conditioner installation
Whether conventional equipment can be used
Yes
*(Note 1)
No
No
Yes
Yes
No
Yes
No
(Note 1) When flaring is carried out for R410A using the conventional flare tools, adjustment of projec-
tion margin is necessary. For this adjustment, a copper pipe gauge, etc. are necessary.
(Note 2) Charging cylinder for R410A is being currently developed.
General tools (Conventional tools can be used.)
In addition to the above exclusive tools, the following equipments which ser ve also for R22 are necessary as the general tools.
1) Vacuum pump Use vacuum pump by attaching vacuum pump adapter.
2) Torque wrench
3) Pipe cutter
4) Reamer
7) Screwdriver (+, –)
8) Spanner or Monkey wrench
9) Hole core drill
10) Hexagon wrench (Opposite side 4mm)
11) Tape measure
12) Metal saw
5) Pipe bender
6) Level vial
Also prepare the following equipments for other installation method and run check.
1) Clamp meter
2) Thermometer
3) IInsulation resistance tester
4) Electroscope
– 8 –
Page 9
1. SPECIFICATIONS
1-1. Indoor Unit
1-1-1. 4-Way Air Discharge Cassette Type
<Digital Inverter>
Revised : Mar. 2007
Model
Cooling capacity (kW) Heating capacity (kW) Po w er supply
Cooling
Electrical characteristics
Heating
Main unit
Appearance
Outer dimension
Total weight
Heat exchanger
Fan unit Standard air flow H/M/L (m³/min)
Air filter Controller (Sold separately)
Connecting pipe Liquid side (mm)
Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
Ceiling panel (Sold separately)
Main unit Width (mm)
Ceiling panel (Sold separately)
Main unit (kg) Ceiling panel (Sold separately) (kg)
Fan
Motor (W)
Indoor unit RA V­Outdoor unit RA V-
Running current (A) Po w er consumption (kW) Po w er factor (%) EER (W/W) Energy efficiency class * Energy rating ** Running current (A) Po w er consumption (kW) Po w er factor (%) COP (W/W) Energy efficiency class * Energy rating **
Model Panel color Height (mm)
Depth (mm) Height (mm) Width (mm) Depth (mm)
Gas side (mm)
Drain port (mm)
SM563UT-E SM803UT-E SM1103UT-E SM1403UT-E
SM563AT-E SM803AT-E SM1103AT-E SM1403AT-E
5.3 6.7 10.0 12.1
5.6 8.0 11.2 14.0 1 phase 230V (220 – 240V) 50Hz
7.89 – 7.24 10.11 – 9.26 14.42 – 13.21 7.67 – 16.19
1.65 2.09 3.11 3.77 95 94 98 97
3.21 3.21 3.22 3.21
AAAA
4.5 4.0 4.5 4.0
6.89 – 6.32 10.69 – 9.80 14.38 – 13.18 18.18 – 16.67
1.44 2.21 3.10 3.88 95 94 98 97
3.89 3.62 3.61 3.61
AAAA
6.0 4.5 5.0 4.0 Zinc hot dipping steel plate
RBC-U21PG (W)-E2
Moon-white (Muncel 2.5GY 9.0/0.5) 256 256 319 319 840 840 840 840 840 840 840 840
35 35 35 35 950 950 950 950 950 950 950 950
21 22 26 26
4.5 4.5 4.5 4.5 Finned tube
Turbo fan Turbo fan Turbo fan Turbo fan
17.5/13.9/12.1 20.0/15.7/13.6 28.0/22.0/18.0 34.0/25.0/20.0 60 60 90 90
TCB-LF1601UE2, UFM1601UE, UFH1601UE
RBC-AMT31E, AS21E2, TCB-SC642TLE2, AX21U(W)-E2
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 VP25
32/29/27 37/31/28 39/36/33 47/38/34 47/44/42 52/46/43 54/51/48 62/53/49
– 9 –
* : IEC standard, ** : AS standard
Page 10
<Super Digital Inverter>
Revised : Mar. 2007
Model
Cooling capacity (kW) Heating capacity (kW) Po w er supply
Cooling
Electrical characteristics
Heating
Indoor unit RA V­Outdoor unit RA V-
Running current (A) Po w er consumption (kW) Po w er factor (%) EER (W/W) Energy efficiency class * Energy rating ** Running current (A) Po w er consumption (kW) Po w er factor (%) COP (W/W) Energy efficiency class * Energy rating **
SM563UT-E SM803UT-E SP1102UT-E SM1403UT-E
SP562AT-E SP802AT-E SP1102AT-E SP1402AT-E
5.3 7.1 10.0 12.5
5.6 8.0 11.2 14.0
1 phase 230V (220 – 240V) 50Hz
7.17 – 6.57 8.95 – 8.21 11.24 – 10.31 16.51 – 15.14
1.53 1.93 2.40 3.56 97 98 97 98
3.46 3.68 4.17 3.51
AAAA
————
5.62 – 5.15 9.42 – 8.63 12.28 – 11.25 16.60 – 15.22
1.20 2.03 2.62 3.58 97 98 97 98
4.67 3.94 4.27 3.91
AAAA
————
Main unit
Appearance
Outer dimension
Total weight
Heat exchanger
Fan unit Standard air flow H/M/L (m³/min)
Air filter Controller (Sold separately)
Ceiling panel (Sold separately)
Main unit Width (mm)
Ceiling panel (Sold separately)
Main unit (kg) Ceiling panel (Sold separately) (kg)
Fan
Motor (W)
Model Panel color Height (mm)
Depth (mm) Height (mm) Width (mm) Depth (mm)
Zinc hot dipping steel plate
RBC-U21PG (W)-E2
Moon-white (Muncel 2.5GY 9.0/0.5) 256 256 319 319 840 840 840 840 840 840 840 840
35 35 35 35 950 950 950 950 950 950 950 950
21 22 26 26
4.5 4.5 4.5 4.5 Finned tube
Turbo fan Turbo fan Turbo fan Turbo fan
17.5/13.9/12.1 20.0/15.7/13.6 28.0/22.0/18.0 33.0/25.0/20.0 60 60 90 90
TCB-LF1601UE2, UFM1601UE, UFH1601UE
RBC-AMT31E, AS21E2, TCB-SC642TLE2, AX21U (W)-E2
Gas side (mm)
Connecting pipe Liquid side (mm)
Drain port (mm) Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
– 10 –
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 VP25
32/29/27 37/31/28 39/36/33 42/38/34 47/44/42 52/46/43 54/51/48 57/53/49
* : IEC standard, ** : AS standard
Page 11
1-1-2. Concealed Duct Type
<Digital Inverter>
Revised : Mar. 2007
Model
Cooling capacity (kW) Heating capacity (kW) Po w er supply
Cooling
Electrical characteristics
Heating
Main unit
Appearance
Outer dimension
Total weight
Heat exchanger
Fan unit Standard air flow H/M/L (m³/min)
Air filter TCB-
Controller (Sold separately)
Connecting pipe Liquid side (mm)
Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
Ceiling panel (Sold separately)
Main unit Width (mm)
Ceiling panel (Sold separately)
Main unit (kg) Ceiling panel (Sold separately) (kg)
Fan
Motor (W)
Indoor unit RA V­Outdoor unit RA V-
Running current (A) Po w er consumption (kW) Po w er factor (%) EER (W/W) Energy efficiency class * Energy rating ** Running current (A) Po w er consumption (kW) Po w er factor (%) COP (W/W) Energy efficiency class * Energy rating **
Model Panel color Height (mm)
Depth (mm) Height (mm) Width (mm) Depth (mm)
Gas side (mm)
Drain port (mm)
SM562BT-E SM802BT-E SM1102BT-E SM1402BT-E
SM563AT-E SM803AT-E SM1103AT-E SM1403AT-E
5.0 7.1 10.0 12.5
5.6 8.0 11.2 14.0
1 phase 230V (220 – 240V) 50Hz
8.52 – 7.81 12.23 – 11.21 16.50 – 15.10 20.70 – 19.00
1.78 2.53 3.56 4.42 95 94 98 97
2.81 2.81 2.81 2.83
CCCC
3.0 3.0 3.5 3.0
8.18 – 7.50 11.65 – 10.68 14.56 – 13.35 18.88 – 17.31
1.71 2.41 3.14 4.03 95 94 98 97
3.27 3.32 3.57 3.47
CCBB
3.0 3.5 5.0 4.0 Zinc hot dipping steel plate
— 320 320 320 320 700 1000 1350 1350 800 800 800 800
———— ———— ———— 30 39 54 54 ————
Finned tube
Centrifugal Centrifugal Centr ifugal Centrifugal
13.0/11.9/9.8 19.0/16.2/13.3 27.0/23.0/18.9 33.0/28.0/23.1 120 120 120 120
UFM11BFCE UFM21BFCE UFM21BE UFM31BE UFM41BE UFM61BE UFH51BFCE UFH61BFCE
UFM71BE UFH81BE
RBC-AMT31E, AS21E2, TCB-SC642TLE2, AX21E2
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 VP25
40/37/33 40/37/34 42/39/36 44/41/38 55/52/48 55/52/49 57/54/51 59/56/53
– 11 –
* : IEC standard, ** : AS standard
Page 12
<Super Digital Inverter>
Model
Cooling capacity (kW) Heating capacity (kW) Po w er supply
Cooling
Electrical characteristics
Heating
Main unit
Appearance
Outer dimension
Total weight
Heat exchanger
Fan unit Standard air flow H/M/L (m³/min)
Air filter TCB-
Controller (Sold separately)
Connecting pipe Liquid side (mm)
Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
Ceiling panel (Sold separately)
Main unit Width (mm)
Ceiling panel (Sold separately)
Main unit (kg) Ceiling panel (Sold separately) (kg)
Fan
Motor (W)
Indoor unit RA V­Outdoor unit RA V-
Running current (A) Po w er consumption (kW) Po w er factor (%) EER (W/W) Energy efficiency class * Energy rating ** Running current (A) Po w er consumption (kW) Po w er factor (%) COP (W/W) Energy efficiency class * Energy rating **
Model Panel color Height (mm)
Depth (mm) Height (mm) Width (mm) Depth (mm)
Gas side (mm)
Drain port (mm)
SM562BT-E SM802BT-E SM1102BT-E SM1402BT-E
SP562AT-E SP802AT-E SP1102A T-E SP1402AT-E
5.0 7.1 10.0 12.5
5.6 8.0 11.2 14.0
1 phase 230V (220 – 240V) 50Hz
6.51 – 5.97 9.74 – 8.93 11.72 – 10.74 18.09 – 16.58
1.39 2.10 2.50 3.90 97 98 97 98
3.60 3.38 4.00 3.21
AAAA
————
7.26 – 6.66 9.74 – 8.93 11.72 – 10.74 16.70 – 15.31
1.55 2.10 2.50 3.60 97 98 97 98
3.61 3.81 4.48 3.89
AAAA
————
Zinc hot dipping steel plate
— 320 320 320 320 700 1000 1350 1350 800 800 800 800
———— ———— ———— 30 39 54 54 ————
Finned tube
Centrifugal Centrifugal Centrifugal Centrifugal
13.0/11.9/9.8 19.0/16.2/13.3 27.0/23.0/18.9 33.0/28.0/23.1 120 120 120 120
UFM11BFCE UFM21BFCE UFM21BE UFM31BE UFM 41BE UFM61BE UFH51BFCE UFH61BFCE
UFM71BE UFH 81BE
RBC-AMT31E, AS21E2, TCB-SC642TLE2, AX21E2
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 VP25
40/37/33 40/37/34 42/39/36 44/41/38 55/52/48 55/52/49 57/54/51 59/56/53
– 12 –
* : IEC standard, ** : AS standard
Page 13
1-1-3. Under Ceiling Type
<Digital Inverter>
Revised : Mar. 2007
Model
Cooling capacity (kW) Heating capacity (kW) Po w er supply
Cooling
Electrical characteristics
Heating
Main unit
Appearance
Outer dimension
Total weight
Heat exchanger
Fan unit Standard air flow H/M/L (m³/min)
Air filter Controller (Sold separately)
Connecting pipe Liquid side (mm)
Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
Ceiling panel (Sold separately)
Main unit Width (mm)
Ceiling panel (Sold separately)
Main unit (kg) Ceiling panel (Sold separately) (kg)
Fan
Motor (W)
Indoor unit RA V­Outdoor unit RA V-
Running current (A) Po w er consumption (kW) Po w er factor (%) EER (W/W) Energy efficiency class * Energy rating ** Running current (A) Po w er consumption (kW) Po w er factor (%) COP (W/W) Energy efficiency class * Energy rating **
Model Panel color Height (mm)
Depth (mm) Height (mm) Width (mm) Depth (mm)
Gas side (mm)
Drain port (mm)
SM562CT-E SM802CT-E SM1102CT-E SM1402CT-E
SM563AT-E SM803AT-E SM1103AT-E SM1403AT-E
5.0 7.0 10.0 12.3
5.6 8.0 11.2 14.0
1 phase 230V (220 – 240V) 50Hz
8.71 – 7.98 12.23 – 11.21 16.20 – 14.90 21.18 – 19.40
1.82 2.53 3.51 4.52 95 94 98 97
2.75 2.77 2.85 2.72
DDCD
2.5 2.5 3.0 2.5
7.85 – 7.19 11.94 – 10.95 14.84 – 13.61 19.40 – 17.78
1.64 2.47 3.20 4.14 95 94 98 97
3.41 3.24 3.50 3.38
BCBC
4.0 4.0 5.0 3.5 Shine white
— 210 210 210 210 910 1180 1595 1595 680 680 680 680
———— ———— ———— 21 25 33 33 ————
Finned tube
Centrifugal Centrifugal Centr ifugal Centrifugal
13.0/11.2/10.0 18.5/16.7/14.6 27.5/24.0/21.2 30.0/26.0/23.1 60 60 120 120
Attached main unit
RBC-AMT31E, AS21E2, TCB-SC642TLE2, AX21E2
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 VP25
36/33/30 38/36/33 41/38/35 43/40/37 51/48/45 53/51/48 56/53/50 58/55/52
– 13 –
* : IEC standard, ** : AS standard
Page 14
<Super Digital Inverter>
Revised : Mar. 2007
Model
Cooling capacity (kW) Heating capacity (kW) Po w er supply
Cooling
Electrical characteristics
Heating
Indoor unit RA V­Outdoor unit RA V-
Running current (A) Po w er consumption (kW) Po w er factor (%) EER (W/W) Energy efficiency class * Energy rating ** Running current (A) Po w er consumption (kW) Po w er factor (%) COP (W/W) Energy efficiency class * Energy rating **
SM562CT-E SM802CT-E SM1102CT-E SM1402CT-E
SP562AT-E SP802AT-E SP1102A T-E SP1402AT-E
5.0 7.1 10.0 12.5
5.6 8.0 11.2 14.0
1 phase 230V (220 – 240V) 50Hz
6.61 – 6.06 9.74 – 8.93 11.24 – 10.31 18.09 – 16.58
1.41 2.10 2.40 3.90 97 98 97 98
3.55 3.38 4.17 3.21
AAAA
————
7.03 – 6.44 10.20 – 9.35 11.72 – 10.74 17.39 – 15.94
1.50 2.20 2.50 3.75 97 98 97 98
3.73 3.64 4.48 3.73
AAAA
————
Main unit
Appearance
Outer dimension
Total weight
Heat exchanger
Fan unit Standard air flow H/M/L (m³/min)
Air filter Controller (Sold separately)
Ceiling panel (Sold separately)
Main unit Width (mm)
Ceiling panel (Sold separately)
Main unit (kg) Ceiling panel (Sold separately) (kg)
Fan
Motor (W)
Model Panel color Height (mm)
Depth (mm) Height (mm) Width (mm) Depth (mm)
Shine white
— 210 210 210 210 910 1180 1595 1595 680 680 680 680
———— ———— ———— 21 25 33 33 ————
Finned tube
Centrifugal Centrifugal Centrifugal Centrifugal
13.0/11.2/10.0 18.5/16.7/14.6 27.5/24.0/21.2 30.0/26.0/23.1 60 60 120 120
Attached main unit
RBC-AMT31E, AS21E2, TCB-SC642TLE2, AX21E2
Gas side (mm)
Connecting pipe Liquid side (mm)
Drain port (mm) Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
– 14 –
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 VP25
36/33/30 38/36/33 41/38/35 43/40/37 51/48/45 53/51/48 56/53/50 58/55/52
* : IEC standard, ** : AS standard
Page 15
1-1-4. Twin Type
<Digital Inverter>
Revised : Mar. 2007
Type
Model
Cooling capacity (kW) Heating capacity (kW)
Pow er supply
Electrical characteristics
Fan unit
Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
Pow er supply
Inter connecting pipes
Fan unit Standard air flow high (m³/min)
Connecting pipe
Sound pressure level Cooling/Heating (dB•A) Sound power level Cooling/Heating (dB•A)
Indoor unit 1 RAV­Indoor unit 2 RAV­Outdoor unit RAV-
Indoor unit
Running current (A) Power consumption (kW)
Cooling Power factor (%)
EER (W/W) Energy efficiency class * Running current (A) Power consumption (kW)
Heating Power factor (%)
COP (W/W)
Energy efficiency class * Fan Standard
air flow Motor (W)
Outdoor unit
Standard length (m) Min. length (m) Max. total length (m) Over 30m
Height difference
Fan
Motor (W)
Gas side
Liquid side
H/M/L (m³/min)
Outdoor lower (m) Outdoor high (m)
Main (mm) Sub (mm) Main (mm) Sub (mm)
4-Way Air Cassette Concealed Duct Under Ceiling SM563UT-E SM803UT-E SM562BT-E SM802BT-E SM562CT-E SM802CT-E SM563UT-E SM803UT-E SM562BT-E SM802BT-E SM562CT-E SM802CT-E
SM1103AT-E SM1403AT-E SM1103AT-E SM1403AT-E SM1103AT-E SM1403AT-E
10.0 12.5 10.0 12.5 10.0 12.3
11.2 14.0 11.2 14.0 11.2 14.0
Indoor unit
1 phase 230V (220 – 240V) 50Hz
14.40–13.20 19.17–17.57 16.51–15.14 20.71–18.99 16.28–14.92 21.18–19.42
3.11 4.09 3.56 4.42 3.51 4.52 98 97 98 97 98 97
3.22 3.06 2.81 2.83 2.85 2.72
ABCCCD
14.40–13.20 18.74–17.18 14.56–13.35 18.88–17.31 14.84–13.61 19.40–7.78
3.10 4.00 3.14 4.03 3.20 4.14 98 97 98 97 98 97
3.61 3.50 3.57 3.47 3.50 3.38
ABBBBC
Turbo fan Turbo fan Centrifugal Centrifugal Centrifugal Centrifugal
17.5/ 20.0/ 13.0/ 19.0/ 13.0/ 18.5/
13.9/12.1 15.7/13.6 11.9/9.8 16.2/13.3 11.2/10.0 16.7/14.6 60 60 120 120 60 60
32/29/27 34/31/28 40/37/33 40/37/34 36/33/30 38/36/33 47/44/42 49/46/43 55/52/48 55/52/49 51/48/45 53/51/48
Outdoor unit
1 phase 230V (220 – 240V) 50Hz (Power exclusive to outdoor is required.)
7.5 7.5 7.5 7.5 7.5 7.5
5.0 5.0 5.0 5.0 5.0 5.0 50 50 50 50 50 50
40g/m (31m to 50m) 30 30 30 30 30 30 30 30 30 30 30 30
Propeller fan
75 75 75 75 75 75
100 100 100 100 100 100
15.9 15.9 15.9 15.9 15.9 15.9
12.7 12.7 12.7 15.9 12.7 15.9
9.5 9.5 9.5 9.5 9.5 9.5
6.4 6.4 6.4 9.5 6.4 9.5 53/54 53/54 53/54 53/54 53/54 53/54 70/71 70/71 70/71 70/71 70/71 70/71
– 15 –
* : IEC standard
Page 16
<Super Digital Inverter>
Revised : Mar. 2007
Type
Model
Cooling capacity (kW) Heating capacity (kW)
Indoor unit
Pow er supply
Electrical characteristics
Fan unit
Sound pressure level H/M/L (dB•A) Sound power level H/M/L (dB•A)
Outdoor unit
Pow er supply
Inter connecting pipes
Fan unit Standard air flow high (m³/min)
Connecting pipe
Sound pressure level Cooling/Heating (dB•A) Sound power level Cooling/Heating (dB•A)
Indoor unit 1 RAV­Indoor unit 2 RAV­Outdoor unit RAV-
Running current (A) Power consumption (kW)
Cooling Power factor (%)
EER (W/W) Energy efficiency class * Running current (A) Power consumption (kW)
Heating Power factor (%)
COP (W/W)
Energy efficiency class * Fan Standard
air flow Motor (W)
Standard length (m) Min. length (m) Max. total length (m) Over 30m
Height difference
Fan
Motor (W)
Gas side
Liquid side
H/M/L (m³/min)
Outdoor lower (m) Outdoor high (m)
Main (mm) Sub (mm) Main (mm) Sub (mm)
4-Way Air Cassette Concealed Duct Under Ceiling SM563UT-E SM803UT-E SM562BT-E SM802BT-E SM562CT-E SM802CT-E SM563UT-E SM803UT-E SM562BT-E SM802BT-E SM562CT-E SM802CT-E
SP1102AT-E SP1402AT-E SP1102AT-E SP1402AT-E SP1102AT-E SP1402AT-E
10.0 12.5 10.0 12.5 10.0 12.3
11.2 14.0 11.2 14.0 11.2 14.0
Indoor unit
1 phase 230V (220 – 240V) 50Hz
11.24–10.31 16.51–15.14 11.72–10.74 18.09–16.58 11.24–10.31 18.09–16.58
2.40 3.56 2.50 3.90 2.40 3.90 97 98 97 98 97 98
4.17 3.51 4.00 3.21 4.17 3.21
AAAAAA
11.95–10.95 16.60–15.22 11.95–10.95 16.70–15.31 11.95–10.95 17.39–15.94
2.55 3.58 2.55 3.60 2.55 3.75 97 98 97 98 97 98
4.39 3.91 4.39 3.89 4.39 3.79
AAAAAA
Turbo fan Turbo fan Centrifugal Centrifugal Centrifugal Centrifugal
17.5/ 20.0/ 13.0/ 19.0/ 13.0/ 18.5/
13.9/12.1 15.7/13.6 11.9/9.8 16.2/13.3 11.2/10.0 16.7/14.6 60 60 120 120 60 60
32/29/27 34/31/28 40/37/33 40/37/34 36/33/30 38/36/33 47/44/42 49/46/43 55/52/48 55/52/49 51/48/45 53/51/48
Outdoor unit
1 phase 230V (220 – 240V) 50Hz (Po wer exclusive to outdoor is required.)
7.5 7.5 7.5 7.5 7.5 7.5
5.0 5.0 5.0 5.0 5.0 5.0 50 50 50 50 50 50
40g/m (31m to 50m) 30 30 30 30 30 30 30 30 30 30 30 30
Propeller fan
125 125 125 125 125 125
63 + 63 63 + 63 63 + 63 63 + 63 63 + 63 63 + 63
15.9 15.9 15.9 15.9 15.9 15.9
12.7 15.9 12.7 15.9 12.7 15.9
9.5 9.5 9.5 9.5 9.5 9.5
6.4 9.5 6.4 9.5 6.4 9.5 49/51 53/54 49/51 53/54 49/51 53/54 66/68 70/71 66/68 70/71 66/68 70/71
– 16 –
* : IEC standard
Page 17
1-2. Outdoor Unit
<Digital Inverter>
Revised : Mar. 2007
Model name RAV-
Power supply
Type
Compressor Motor (kW)
Pole Refrigerant charged (kg) Refrigerant control
Standard length (m)
Min. length (m)
Max. total length (m) Inter connecting pipe
Outer dimension Width (mm)
Additional refrigerant charge
under long piping connector
Height
difference
Height (mm)
Outdoor lower (m) Outdoor higher (m)
SM563AT-E SM803AT-E SM1103AT-E SM1403AT-E
1 phase 230V (220 – 240V)
50Hz (Power exclusive to outdoor is required.)
Hermetic compressor
1.1 1.6 2.5 3.0 4444
1.0 1.7 2.8 2.8
Pulse motor valve
7.5 7.5 7.5 7.5
5.0 5.0 5.0 5.0
30 30 50 50
20g/m 40g/m 40g/m 40g/m
(21m to 30m) (21m to 30m) (31m to 50m) (31m to 50m)
30 30 30 30
30 30 30 30 550 550 795 795 780 780 900 900
Depth (mm) Appearance Total weight (kg) Heat exchanger
Fan Fan unit Standard air flow (m³/h)
Motor (W)
Gas side (mm) Connecting pipe
Liquid side (mm) Sound pressure level Cooling/Heating (dB•A) Sound power leve l Cooling/Heating (dB•A) Outside air temperature, Cooling (°C) Outside air temperature, Heating (°C)
290 290 320 320
Silky shade (Muncel 1Y8.5/0.5)
38 44 77 77
Finned tube
Propeller fan 40 45 75 75 43 43 100 100
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 46/48 48/50 53/54 54/54 63/65 65/67 70/71 71/71
43 to –15 15 to –15
– 17 –
Page 18
<Super Digital Inverter>
Model name RAV-
Power supply
Type
Compressor Motor (kW)
Pole Refrigerant charged (kg) Refrigerant control
Standard length (m)
Min. length (m)
Max. total length (m) Inter connecting pipe
Outer dimension Width (mm)
Additional refrigerant charge
under long piping connector
Height
difference
Height (mm)
Outdoor lower (m) Outdoor higher (m)
SP562AT-E SP802AT-E SP1102AT-E SP1402AT-E
1 phase 230V (220 – 240V)
50Hz (Power exclusive to outdoor is required.)
Hermetic compressor
2.0 2.0 3.75 3.75 4444
1.5 2.1 2.95 2.95
Pulse motor valve
7.5 7.5 7.5 7.5
5.0 5.0 5.0 5.0
50 50 70 70
20g/m 40g/m 40g/m 40g/m
(21m to 50m) (31m to 50m) (31m to 70m) (31m to 70m)
30 30 30 30
30 30 30 30 795 795 1340 1340 900 900 900 900
Depth (mm) Appearance Total weight (kg) Heat exchanger
Fan Fan unit Standard air flow (m³/h)
Motor (W)
Gas side (mm) Connecting pipe
Liquid side (mm) Sound pressure level Cooling/Heating (dB•A) Sound power leve l Cooling/Heating (dB•A) Outside air temperature, Cooling (°C) Outside air temperature, Heating (°C)
320 320 320 320
Silky shade (Muncel 1Y8.5/0.5)
55 62 95 95
Finned tube
Propeller fan 57 57 125 125 63 63 63 + 63 63 + 63
12.7 15.9 15.9 15.9
6.4 9.5 9.5 9.5 46/47 47/49 49/51 53/54 63/64 64/66 66/68 70/71
43 to –15 15 to –15
– 18 –
Page 19
1-3. Operation Characteristic Curve
• Operation characteristic curve <Digital Inverter>
RAV-SM563AT-E, RAV-SM803AT-E
<Cooling> <Heating>
Revised : Mar. 2007
14
12
10
8
6
Current (A)
4
2
0
0 20 40 60708090100
RAV-SM803AT-E
RAV-SM803AT-E
RAV-SM563AT-E
RAV-SM563AT-E
• Conditions Indoor : DB27˚C/WB19˚C Outdoor : DB35˚C Air flow : High Pipe length : 7.5m 230V
Compressor speed (rps)
16
14
RAV-SM803AT-E
12
10
8
RAV-SM803AT-E
Current (A)
6
4
2
0
0 20406080100120
RAV-SM563AT-E
RAV-SM563AT-E
• Conditions Indoor : DB20˚C Outdoor : DB7˚C/WB6˚C Air flow : High Pipe length : 7.5m 230V
Compressor speed (rps)
RAV-SM1103AT-E, RAV-SM1403A T-E
<Cooling> <Heating>
22 22
20
RAV-SM1103AT-E
RAV-SM1103AT-E
18
16
14
12
10
Current (A)
8
6
4
2
0
0204060
RAV-SM1403AT-E
RAV-SM1403AT-E
• Conditions Indoor : DB27˚C/WB19˚C Outdoor : DB35˚C Air flow : High Pipe length : 7.5m 230V
80 100 120
20
18
RAV-SM1403AT-E
RAV-SM1403AT-E
16
14
12
10
Current (A)
8
6
4
2
0
0 204060
Compressor speed (rps)
RAV-SM1103AT-E
RAV-SM1103AT-E
• Conditions Indoor : DB20˚C Outdoor : DB7˚C/WB6˚C Air flow : High Pipe length : 7.5m 230V
80 100 120
Compressor speed (rps)
– 19 –
Page 20
• Operation characteristic curve <Super Digital Inverter>
RAV-SP562AT-E, RAV-SP802AT-E
<Cooling> <Heating>
14
12
RAV-SP802AT-E
RAV-SP802AT-E
10
8
6
Current (A)
4
2
0
0 20406050 70 80 100
RAV-SP562AT-ERAV-SP562AT-E
• Conditions Indoor : DB27˚C/WB19˚C Outdoor : DB35˚C Air flow : High Pipe length : 7.5m 230V
Compressor speed (rps) Compressor speed (rps)
16
14
RAV-SP802AT-E
12
10
8
RAV-SP802AT-E
RAV-SP562AT-E
RAV-SP562AT-E
Current (A)
6
4
2
0
0 204060 908070 100
• Conditions Indoor : DB20˚C Outdoor : DB7˚C/WB6˚C Air flow : High Pipe length : 7.5m 230V
RAV-SP1102AT-E, RAV-SP1402A T-E
<Cooling> <Heating>
22
20
18
16
14
12
10
RAV-SP1402AT-E
RAV-SP1402AT-E
Current (A)
8
RAV-SP1102AT-E
6
4
2
0
020406080
RAV-SP1102AT-E
• Conditions Indoor : DB27˚C/WB19˚C Outdoor : DB35˚C Air flow : High Pipe length : 7.5m 230V
22
20
18
16
14
12
10
Current (A)
8
6
4
2
0
020406080
RAV-SP1402AT-E
RAV-SP1402AT-E
RAV-SP1102AT-E
RAV-SP1102AT-E
• Conditions Indoor : DB20˚C Outdoor : DB7˚C/WB6˚C Air flow : High Pipe length : 7.5m 230V
Compressor speed (rps)
Compressor speed (rps)
– 20 –
Page 21
• Capacity variation ratio according to temperature
RAV-SM563AT-E, RAV-SM803AT-E, RAV -SM1103AT-E, RAV-SM1403AT-E RAV-SP562AT-E, RAV-SP802AT-E, RAV-SP1102AT-E, RAV-SP1402AT-E
<Cooling> <Heating>
Revised : Mar. 2007
105
100
95
90
85
80
75
70
Capacity ratio (%)
65
60
55
50
32 33 34 35 36 37 38 39
Outdoor temp. (˚C)
Conditions Indoor : DB27˚C/WB19˚C Indoor air flow : High Pipe length : 7.5m
40
41 42 43
120 110 100
90 80 70 60 50
Capacity ratio (%)
40 30 20 10
0
-14-12-10-8-6-4-20246810
Conditions Indoor : DB20˚C Indoor air flow : High Pipe length : 7.5m
Outdoor temp. (˚C)
– 21 –
Page 22
2. AIR DUCTING WORK
2-1. Static Pressure Characteristics of Each Model
RAV-SM562BT-E, RAV-SM802BT-E, RAV-SM1102BT-E, RAV -SM1402BT-E
Fig. 1 RAV-SM562BT-E (Round duct)
140
120
100
Usable lim
80
60
Static pressure (Pa)
40
Air volume limit (Min.)
20
0 500 700 780 900
Standard air volume 780m³/h
High static pressure 2H tap
it
High static pressure 1H tap
Standard H tap
Low static pressure H tap
Standard L tap
Air volume m³/h
140
120
100
80
60
Static pressure (Pa)
40
Air volume limit (Max.)
20
Fig. 3 RAV-SM802BT-E (Round duct)
Standard air volume 1140m³/h
High static pressure 2H tap
Usable limit
Air volume limit (Min.)
0 800
High static pressure 1H tap
Standard H tap
Low static pressure H tap
Standard L tap
1000
Air volume m³/h
Air volume limit (Max.)
12001140 1300
Fig. 2 RAV-SM562BT-E (Square duct)
140
120
108 100
80
60
Usable limit
Static pressure (Pa)
40
Air volume limit (Min.)
20
0 500 700 780 900
Standard air volume 780m³/h
High static pressure 2H tap
High static pressure 1H tap
Standard H tap
Low static pressure H tap
Standard L tap
Air volume m³/h
140
120
100
80
60
Static pressure (Pa)
40
Air volume limit (Max.)
20
Fig. 4 RAV-SM802BT-E (Square duct)
Standard air volume 1140m³/h
High static pressure 2H tap
Usable limit
Air volume limit (Min.)
0 800
High static pressure 1H tap
Standard H tap
Low static pressure H tap
Standard L tap
1000
Air volume m³/h
Air volume limit (Max.)
12001140 1300
– 22 –
Page 23
0
Fig. 5 RAV-SM1102BT-E (Round duct)
Fig. 7 RAV-SM1402BT-E (Round duct)
140
120
Standard air volume 1620m³/h
140
120
Standard air volume 1980m³/h
High static pressure 2H tap
High static pressure 2H tap
100
100
Usable limit
High static pressure 1H tap
80
60
Standard H tap
Static pressure (Pa)
40
Air volume limit (Min.)
20
0 1200
Low static pressure H tap
Standard L tap
1620
Air volume limit (Max.)
2000
80
60
Static pressure (Pa)
40
20
0 1200 1800
Air volume m³/h
Usable limit
Air volume limit (Min.)
High static pressure 1H tap
Standard H tap
Low static pressure H tap
Standard L tap
1980
Air volume m³/h
Air volume limit (Max.)
2200 2400
Fig. 6 RAV-SM1102BT-E (Square duct)
140
120
Usable limit
100
80
60
Static pressure (Pa)
40
Air volume limit (Min.)
20
Low static pressure H tap
Standard air volume 1620m³/h
High static pressure 2H tap
High static pressure 1H tap
Standard H tap
Standard L tap
Air volume limit (Max.)
Fig. 8 RAV-SM1402BT-E (Square duct)
140
120
100
80
60
Usable limit
Static pressure (Pa)
40
Air volume limit (Min.)
20
Standard air volume 1980m³/h
High static pressure 2H tap
High static pressure 1H tap
Standard H tap
Low static pressure H tap
Standard L tap
Air volume limit (Max.)
0
1200
1620
Air volume m³/h
2000
– 23 –
0 1200 1800
Air volume hm³/h
1980
2200 240
Page 24
3. CONSTRUCTION VIEWS (EXTERNAL VIEWS)
3-1. Indoor Unit
3-1-1. 4-Way Air Discharge Cassette Type
RAV-SM563UT-E, RAV-SM803UT-E
Surface under ceiling
200
113
173
Refrigerant pipe connecting port A
130
200
Check port (¨450)
Check port (¨450)
Cable draw-in port
45
Refrigerant pipe connecting port B
Electric parts box
860 to 910 Recommended external size
30
105
270 105 25070
950 Panel external dimension
790 Hanging bolt pitch
346.5
860 to 910 Recommended external size
Surface under ceiling
130
210
Indoor unit
Hanging bolt M10 or W3/8 Procured locally
Standing 850 or less
Standing 640 or less
360
Drain up standing size
256
88
Surface under ceiling
SM563 SM803
840 Unit external dimension
A
Ø6.4 Ø9.5
150
105
Ø12.7 Ø15.9
Knockout
97
35
Z view
for humidifier
Ceiling panel (Sold separately)
Surface under ceiling
80
Ø162
B
415.0
105105
240
254.5
840 Hanging bolt
480
227
12097
Surface under ceiling
381.6 227
480
723 Hanging bolt pitch
950 Panel external dimension
35˚
Z
64
57
57.5
25
188
Surface under ceiling
120
– 24 –
Page 25
RAV-SM1103UT-E, RAV-SM1403UT-E, RAV-SP1102UT-E
860 to 910 Recommended external size
200
Check port (¨450)
200
Check port (¨450)
Take-in port of pipes
45
30
SM1103 SM1403 SP1102
860 to 910 Recommended external size
Ceiling bottom surface
A
B
Ø9.5
Ø15.9
Ø9.5
Ø15.9
Ø9.5 319183Ø15.9
Standing 850 or less
Standing 640 or less
C
183 183
D
319 319
113
173
Refrigerant pipe connecting port A
Refrigerant pipe connecting port B
130
Ceiling bottom surface
Ø162
105
80
Electric parts box
415.0
240
105 105
840 Unit external dimension
105
105
270
250
70
860 to 910 Ceiling opening dimension
950 Panel external dimension
790 Hanging bolt pitch
Knockout square hole for divide duct For Ø150
346.5
130
210
Drain pipe connecting port
Hanging bolt M10 or Ø3/8 (To be procured locally)
381.6
480
723 Hanging bolt pitch
950 Panel external dimension
860 to 910 Ceiling opening dimension
35˚
360
Indoor unit
Drain up standing size
D
227
88
Surface under ceiling
Ceiling panel (sold separately)
Ø162
105
Ceiling bottom surface
Knockout square hole for divide duct for Ø150 (2 positions)
C97
254.5
840 Unit external dimension
480
227
– 25 –
57.5
188
Z
C
97
Z view
35
Ceiling bottom surface
64
57
25
Surface under ceiling
Page 26
3-1-2. Concealed Duct Type
RAV-SM562BT-E, RAV-SM802BT-E, RAV-SM1102BT-E, RAV-SM1402BT-E
129
110
Knock-out hole Ø125 (Air take-in port)
6-Ø4 T apping screw undersized hole Ø160
• Dimension
Discharge port flange N-Ø200
60 to 260 9
Suction port canvas (Separate sold)
Refrigerant pipe connecting port (Gas side ØF)
Hanging bolt pitch B
Main unit dimension A
J = M x K H
C
Ceiling open size D
Panel external dimension E
Hanging bolt 4-M10 screw (Arranged locally)
44 49
Refrigerant pipe connecting port (Liquid side ØG)
Drain pipe connecting port for vinyl chloride pipe (Inner dia. 32, VP. 25)
75
Main unit dimension 800
Hanging bolt pitch 700
50
131
50
Ø26 Power supply, remote controller cable take-out port
638
498
393
41
196
243
Panel C.L
410
Ceiling open size
470
Panel external dimension 500
5941
174
Suction port flange (Separate sold)
Suction port panel (Separate sold)
320
ABCDEFGHJKMNO
RAV-SM562BT
RAV-SM802BT
RAV-SM1102BT RAV-SM1402BT
700 766 690 750 780 12.7 6.4 252 280 280 1 2 410
1000 1066 990 1050 1080 15.9 9.5 252 580 290 2 3 410
1350 1416 1340 1400 1430 15.9 9.5 252 930 310 3 4 410
NOTE 1 :
For maintenance of the equipment, be sure to install a check port A at the position as shown below.
NOTE 2 :
Using the drain up kit sold separately, drain-up by 300 (mm) from drain pipe draw-out port of the main unit is necessary. The drain-up over 300mm or more is impossible.
Plane view of main unit
(Pipe side)
Discharge side
Check port A
300
100
450
– 26 –
Page 27
3-1-3. Under Ceiling Type
RAV-SM562CT-E, RAV-SM802CT-E, RAV-SM1102CT-E, RAV-SM1402CT-E
128
84
170320
(Hanging position)
Hanging bolt
50
Within
Upper pipe draw-out port (Knockout hole)
Power supply cable take-in port (Knockout)
Remote controller cable take- in port (Knockout hole)
53
Left drain size
B (Hanging position)
Refrigerant pipe (Gas side ØD)
Ceiling surface
Unit
Refrigerant pipe (Liquid side ØC)
A
216
110
70
75 97
76
50
130
680
Drain pipe connecting port
146
145
Pipe hole on wall (Ø100 hole)
210
167
105
347
262
135 84
Outside air take-in port (Duct sold separately)(Knockout hole Ø92)
Pipe draw-out port (Knockout hole)
Drain port VP20 (Inner dia. Ø26, hose attached)
114
41
200 (Liquid pipe)
216 (Gas pipe)
Remote controller cable take- in port
Power supply cable take-in port (Knockout hole)
Remote controller cable take- in port
90
32
(Knockout hole)
92
Drain left pipe draw-out port (Knockout hole)
32
171
Wireless sensor mounting section
250 or more250 or more
Model name A B C D 562CT 802CT 1102CT, 1402CT
910 1180 1595
855 1125 1540
Ø6.4 Ø12.7
Ø9.5 Ø15.9
500 or more
– 27 –
Page 28
3-2. Outdoor Unit
RAV-SM563AT-E, RAV-SM803AT-E
Revised : Mar. 2007
Drain hole (2-Ø20 × 88 long hole)
69.5 147
320
306
Ø6 hole pitch
For anchor bolt)
(Long hole pitch
21
550
290
A legs
6
48335
30
B legs
44952
Drain hole (Ø25)
60
600
108 125
30
20
2-Ø11 × L14 long hole (For Ø8-Ø10 anchor bolts)
483 257
108
90
2-Ø11-14 U-shape hole
54
(For Ø8-Ø10 anchor bolts)
Connecting pipe port Gas flare side RAV-SM563AT-E: Ø12.7
( )
RAV-SM803AT-E: Ø15.9 Connecting pipe port
Liquid flare side RAV-SM563AT-E: Ø6.4
( )
RAV-SM803AT-E: Ø9.5
8-Ø6 hole (For fixing outdoor unit)
25 22
157 79
21
145
31 143
8
Space required for service
2-Ø11 × 14 U-shape holes (For Ø8–Ø10 anchor bolt)
32
Discharge guard
150 or more
320
500 or more
600
54 38
R15
3
320
Ø11 × 14 U-shape hole
Details of A legs Details of B legs
2-Ø6 hole
Product external line
150
or more
500
780
600
Suction port
Discharge port
Discharge guide mounting hole (4-Ø4.5 embossing)
Discharge port
Ø11 × 14 U-shape holes
320
300 or more
(Minimum distance up to wall)
2-Ø11 × 14 long hole (For Ø8–Ø10 anchor bolt)
2-Ø6 hole
38 54
Product external line
R15
600
3
71
93
137
Charge port
342
54
Earth
terminal
– 28 –
Page 29
RAV-SM1103AT-E, RAV-SM1403AT-E / RAV-SP562AT-E, RAV-SP802AT-E
Knockout (For draining)
21
Suction port
365 17.517.5
40 70
(Long hole pitch
for anchor bolt)
21
565 101
Drain hole (Ø20 × 88 Burring hole)
29 90 191 20
Knockout (For draining)
6026
314
43
Suction port
Discharge port
300150 900
Drain hole (Ø25 Burring hole)
Part B
40
39
Part A
95
43
Handles (Both sides)
Refrigerant pipe connecting port Flare at liquid side Ø6.4: RAV-SP562AT-E
( )
Ø9.5: RAV-SP802AT-E Refrigerant pipe connecting port
Flare at gas side Ø12.7: RAV-SP562AT-E
( )
Ø15.9: RAV-SP802AT-E
47
Installation bolt hole (Ø12 × 17 U-shape holes)
17.5 4040
Details of B part
Details of A part
17.5
Installation bolt hole (Ø12 × 17 U-shape holes)
2
Discharge guide mounting hole (4-Ø4 Embossing)
1
60 90
58
27
161
32028
400
264
300
795
25
85
2
Z
2
46
165
60 80
30 45
1
307
2760
96
2-Ø12 × 17 U-shape holes (For Ø8–Ø10 Anchor bolt)
264
6760
154
1
Knockout for lower piping
Space required for service
150 or more
365
500 or more
Z views
Suction port
150
or more
Discharge port
600
86 7
7
58
150 or more
Discharge port
(Minimum distance up to wall)
2-Ø12 × 17 long hole (For Ø8–Ø10 Anchor bolt)
– 29 –
Page 30
RAV-SP1102AT-E, RAV-SP1402A T-E
Knockout (Drain)
365 17.517.5
350 625
Discharge guide mounting port (8-Ø3 embossing)
70 21
Suction port
21 40
9029
Knockout (Drain)
26
150
56567 60 565
164 300
314
Drain hole (Ø20 x 88)
191 20
Suction port
Drain hole (Ø25)
43
60
Discharge port
600 900
B legs
A legs
40
43
40
108
Refrigerant pipe connecting port (Ø9.5 flare at liquid side)
Refrigerant pipe connecting port (Ø15.9 flare at gas side)
54
28
706
715
67
154
60 27
z
95
307 400
60
60 90
27
Mountig bolt hole (Ø12 x 17 long hole)
161
58
320
1340
89
25
Mountig bolt hole (Ø12 x 17 U-shape hole)
12
20
46
8060
165
32 45
40
Details of A legs Details of B legs
2-Ø12 x 17 U-shape holes (For Ø8–Ø10 anchor bolt)
150 or more
365
– 30 –
40
86 7
Z view
58 7
Space required for service
600
Suction port
150
or more
Discharge port
500 or more
Discharge port
2-Ø12 x 17 long hole (For Ø8–Ø10 anchor bolt)
150 or more
(Minimum distance up to wall)
Page 31
4. SYSTEMATIC REFRIGERATING CYCLE DIAGRAM
4-1. Indoor Unit/Outdoor Unit
RAV-SM563UT-E, RAV-SM562BT-E, RAV -SM562CT-E / RAV-SM563AT-E
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
12.7mm 6.4mm
Height difference (m)
Outdoor unit at upper side
30 30
Outdoor unit at lower side
TS sensor
2-step muffler
Ø19 .05 × 200L
TD sensor
Height difference
TC sensor
Refrigerant pipe at gas side Ø12.7
Packed valve Outer dia. ØA
TO sensor
Indoor unit
Air heat exchanger
Section shape
of heat insulator
Outdoor unit
TCJ
sensor
Refrigerant pipe at liquid side Ø6.4
Min.
5m Packed valve Outer dia. ØB
PMV (Pulse Motor Valve) (CAM-B30YGTF-2)
Strainer
Max. 30m
Rotary compressor
(DA150A1F-20F)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
4-way valve
(STF-0108Z)
Muffler
Ø19 × L160
Pressure
(MPa) (kg/cm²G)
Pd Ps Pd Ps
3.50 0.97 35.7 9.9
3.90 1.08 39.8 11.0
1.90 0.70 19.4 7.1
2.31 0.61 13.6 6.2
2.86 0.89 29.2 9.1
1.86 0.25 19.0 2.6
Discharge
(TD)
85 93 48 87 86 69
Heat exchanger Ø8 ripple, 2 rows, 14 steps FP1.3 flat fin
Pipe surface temperature (°C)
14
7 5 17
Indoor heat
exchanger
(TC)
12 17 5 40 47 31
Suction
(TS)
26
–14
TE sensor
Outdoor heat
exchanger
(TE)
48 54 30 1 11
–15
Distributor
Compressor
revolutions per
second (rps)
*
70 70 50 97 95 98
R410A 1.0 kg
Cooling Heating
Indoor/Outdoor
fan
temp. conditions
(DB/WB) (°C)
Indoor Outdoor
27/19 35/– 32/24 43/–
18/15.5 –5/–
20/– 7/6 28/– 24/18 15/–
Indoor
HIGH HIGH
LOW
HIGH
LOW
HIGH
–10/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 31 –
Page 32
RAV-SM803UT-E, RAV-SM802BT-E, RAV -SM802CT-E / RAV-SM803AT-E
Revised : Mar. 2007
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
15.9mm 9.5mm
Height difference (m)
Outdoor unit at upper side
30 30
TS
sensor
Outdoor unit at lower side
TD
sensor
Height difference
2-step
muffler
Ø25 × 200L
TC sensor
Refrigerant pipe at gas side Ø15.9
Packed valve Outer dia. ØA
TO sensor
Indoor unit
Air heat exchanger
Section shape
of heat insulator
Outdoor unit
TCJ
sensor
Refrigerant pipe at liquid side Ø9.5
Min.
5m Packed valve Outer dia. ØB
PMV (Pulse Motor Valve) (CAM-B30YGTF-1)
Strainer
Max. 30m
Accumulator
(1000cc)
compressor
(DA150A1F-20F)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
4-way valve
(STF-0213Z)
Ø19 × L160
Rotary
Pressure
(MPa) (kg/cm²G)
Pd Ps Pd Ps
3.28 0.86 33.4 8.8
3.59 1.00 33.6 10.2
1.85 0.83 18.9 8.5
2.53 0.62 25.8 6.3
3.42 1.07 34.9 10.9
1.99 0.23 20.3 2.3
Muffler
Discharge
(TD)
84 82 42 75 80 89
Heat exchanger Ø8 ripple, 2 rows, 20 steps FP1.3 flat fin
4 pass
Pipe surface temperature (°C)
11
8 3 20
Indoor heat
exchanger
(TC)
10 16 6 42 54 34
Suction
(TS)
17
–19
TE sensor
Outdoor heat
exchanger
(TE)
45 51 23 2 17
–18
Distributor
Compressor
revolutions per
second (rps)
*
83 76 35 95 50 120
R410A 1.6 kg
Indoor
fan
HIGH HIGH
LOW
HIGH
LOW
HIGH
Cooling Heating
Indoor/Outdoor
temp. conditions
(DB/WB) (°C)
Indoor Outdoor
27/19 35/– 32/24 43/–
18/15.5 –5/–
20/– 7/6
28/– 24/18
15/–
–10/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 32 –
Page 33
RAV-SM1103UT-E, RAV-SM1102BT-E, RAV-SM1102CT-E / RAV-SM1103AT-E
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
15.9mm 9.5mm
Height difference (m)
Outdoor unit
at upper side
30 30
Outdoor unit at lower side
Height difference
TS sensor
Strainer
Refrigerant pipe at gas side Ø15.9
Ball valve Outer dia. ØA
Strainer
TO sensor
Indoor unit
TCJ sensor
Air heat exchanger
Section shape
of heat insulator
Outdoor unit
Distributor (Strainer incorporated)
TC sensor
Refrigerant pipe at liquid side Ø9.5
Min. 5m
Packed valve Outer dia. ØB
PMV (Pulse Motor Valve) (UKV-25D22)
Max. 50m
Accumulator
(2500cc)
(DA420A3F – 21M)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
TD sensor
Muffler
Rotary
compressor
Pressure
(MPa) (kg/cm²G)
Pd Ps Pd Ps
3.44 0.92 35.1 9.4
3.73 1.18 38.1 12.0
1.49 0.70 15.2 7.1
2.80 0.61 28.6 6.2
3.43 1.08 35.0 11.0
2.20 0.25 22.4 2.6
4-way valve
(STF-0213Z)
Ø25 × L210 Ø25 × L180
Discharge
(TD)
82 82 39 80 82 76
Heat exchanger Outer side Ø8, 2 rows, 20 steps FP1.3 flat fin Inner side Ø9.52 row, 30 steps FP1.5 flat fin
Pipe surface temperature (°C)
8
Indoor heat
exchanger
(TC)
10 17 3 46 55 36
Suction
(TS)
15 8 0 14 –19
TE sensor
Outdoor heat
exchanger
(TE)
39 48 22 1 13 –16
Distributor
Compressor
revolutions per
second (rps)
*
47 42 30 48 24 55
Strainer
R410A 2.8kg
Indoor
fan
HIGH HIGH
LOW
18/15.5 –5/–
HIGH
LOW
HIGH
Cooling Heating
Indoor/Outdoor
temp. conditions
(DB/WB) (°C)
Indoor Outdoor
27/19 35/– 32/24 43/–
20/– 7/6
30/– 24/18
15/–
–10/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 33 –
Page 34
RAV-SM1403UT-E, RAV-SM1402BT-E, RAV-SM1402CT-E / RAV-SM1403AT-E
Revised : Mar. 2007
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
15.9mm 9.5mm
Height difference (m)
Outdoor unit
at upper side
30 30
Outdoor unit at lower side
TS sensor
Height difference
Strainer
Refrigerant pipe at gas side Ø15.9
Ball valve Outer dia. ØA
Strainer
TO sensor
Indoor unit
TCJ sensor
Air heat exchanger
Section shape
of heat insulator
Outdoor unit
Distributor (Strainer incorporated)
TC sensor
Refrigerant pipe at liquid side Ø9.5
Min. 5m
Packed valve Outer dia. ØB
PMV (Pulse Motor Valve) (UKV-25D22)
Max. 50m
Accumulator
(2500cc)
(DA420A3F – 21M)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
TD sensor
Muffler
Rotary
compressor
Pressure
(MPa) (kg/cm²G)
Pd Ps Pd Ps
3.52 0.85 35.9 8.7
3.78 1.12 38.6 11.4
1.51 0.71 15.4 7.2
2.88 0.60 29.4 6.1
3.41 1.08 34.8 11.0
2.35 0.24 24.0 2.4
4-way valve
(STF-0213Z)
Ø25 × L210 Ø25 × L180
Discharge
(TD)
87 84 40 85 81 80
TE sensor
Heat exchanger Outer side Ø8, 2 rows, 20 steps FP1.3 flat fin Inner side Ø9.52 row, 30 steps FP1.5 flat fin
Pipe surface temperature (°C)
8
Indoor heat
exchanger
(TC)
9 17 3 47 54 40
Suction
(TS)
15 7 1 14 –19
Outdoor heat
exchanger
(TE)
39 47 23 1 13 –16
Distributor
Compressor
revolutions per
second (rps)
*
54 45 30 61 24 73
Strainer
R410A 3.0kg
Indoor
fan
HIGH HIGH
LOW
HIGH
LOW
HIGH
Cooling Heating
Indoor/Outdoor
temp. conditions
(DB/WB) (°C)
Indoor Outdoor
27/19 35/– 32/24 43/–
18/15.5 –5/–
20/– 7/6
30/– 24/18
15/–
–10/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 34 –
Page 35
RAV-SM563UT-E, RAV-SM562BT-E, RAV -SM562CT-E / RAV-SP562AT-E
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
12.7mm 6.4mm
Height difference (m)
Outdoor unit
at upper side
30 15
Outdoor unit at lower side
Height
TS sensor
difference
Indoor unit
TCJ
sensor
Air heat exchanger
TC sensor
* The refrigerating cycle of the indoor units differs according to
the models to be combined. For the refrigerating cycles of the other indoor units, refer to the corresponding Service Manuals described in the list on the cover.
Refrigerant pipe at gas side Outer dia. ØA
Packed valve Outer dia. ØA
Strainer
TO sensor
Section shape
of heat insulator
Outdoor unit
Refrigerant pipe at liquid side Outer dia. ØB
Packed valve Outer dia. ØB
Modulating (PMV) (CAM-B30YGTF-2)
Min. 5m
Max. 50m
Rotary compressor
(DA220A2F-20L1)
Accumulator (1500cc)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
TD sensor
Muffler
Pressure
(MPa)
Pd Ps
2.71 1.03
3.48 1.16
1.92 0.74
2.22 0.72
3.47 1.16
1.79 0.25
4-way valve
(STF-0213Z)
Ø25 × L210
Ø25 × L160
Discharge
(TD)
75 81 34 32 81 71
Heat exchangerØ8 1 row 30 stages FP1.3 flat fin
Pipe surface temperature (°C)
Suction
(TS)
15 20 5 6 20 –16
Indoor heat
exchanger
(TC)
10 16 2 38 55 30
TE sensor
Outdoor heat
exchanger
(TE)
38 51 11 2 15 –18
Capillary Ø3ר2× L530
Compressor
revolutions per
second (rps)
*
43 44 24 41 41 70
Strainer
R410A 1.5 kg
Indoor
fan
HIGH HIGH
LOW
HIGH
LOW
HIGH
temp. conditions
Indoor Outdoor
18/15.5 –5/–
Cooling Heating
Indoor/Outdoor
(DB/WB) (°C)
27/19 35/– 32/24 43/–
20/– 7/6
30/– 24/18
15/–
–15/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 35 –
Page 36
RAV-SM803UT-E, RAV-SM802BT-E, RAV -SM802CT-E / RAV-SP802AT-E
Revised : Mar. 2007
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
15.9mm 9.5mm
Height difference (m)
Outdoor unit
at upper side
30 15
Outdoor unit at lower side
Height difference
TS sensor
Indoor unit
TCJ
sensor
Air heat exchanger
TC sensor
* The refrigerating cycle of the indoor units differs according to
the models to be combined. For the refrigerating cycles of the other indoor units, refer to the corresponding Service Manuals described in the list on the cover.
Refrigerant pipe at gas side Outer dia. ØA
Packed valve Outer dia. ØA
Strainer
TO sensor
Section shape
of heat insulator
Outdoor unit
Refrigerant pipe at liquid side Outer dia. ØB
Packed valve Outer dia. ØB
Modulating (PMV) (CAM-B30YGTF-2)
Min. 5m
Max. 50m
Rotary compressor
(DA220A2F-20L1)
Accumulator
(1500cc)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
TD sensor
Muffler
Pressure
(MPa)
Pd Ps
2.72 0.93
3.57 1.10
1.89 0.74
2.58 0.68
3.49 1.22
2.30 0.25
4-way valve
(STF-0213Z)
Ø25 × L210
Ø25 × L160
Discharge
(TD)
74 80 34 72 79 91
Heat exchangerØ8 1 row 30 stages FP1.3 flat fin
Pipe surface temperature (°C)
Suction
(TS)
12 21 7 4 19 –17
Indoor heat
exchanger
(TC)
11 17 2 41 55 37
TE sensor
Outdoor heat
exchanger
(TE)
40 52 12 2 16 –19
Capillary Ø3ר2× L530
Compressor
revolutions per
second (rps)
*
55 47 24 62 28 90
Strainer
R410A 2.1 kg
Indoor/Outdoor
Indoor
fan
HIGH HIGH
LOW
HIGH
LOW
HIGH
temp. conditions
Indoor Outdoor
27/19 35/– 32/24 43/–
18/15.5 –5/–
20/– 7/6
30/– 24/18
15/–
Cooling Heating
(DB/WB) (°C)
–15/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 36 –
Page 37
RAV-SP1102UT-E, RAV-SM1102BT-E, RAV-SM1102CT-E / RAV-SP1102AT-E
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
15.9mm 9.5mm
Height difference (m)
Outdoor unit
at upper side
30 15
Outdoor unit at lower side
Height
difference
TS sensor
Indoor unit
TCJ sensor
Strainer
Air heat exchanger
* The refrigerating cycle of the indoor units differs according to
the models to be combined. For the refrigerating cycles of the other indoor units, refer to the corresponding Service Manuals described in the list on the cover.
Refrigerant pipe at gas side Outer dia. ØA
Refrigerant pipe at liquid side Outer dia. ØB
Section shape
of heat insulator
Ball valve Outer dia. ØA
Outdoor unit
Strainer
Check joint
TO sensor
Distributor (Strainer incorporated)
TC sensor
Packed valve Outer dia. ØB
PMV (UKV-25D22)
Min. 5m
Max. 70m
Accumulator
(2500cc)
compressor
(DA420A3F – 21M)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
TD sensor
Rotary
Pd Ps
2.55 0.98
3.28 1.08
1.76 0.76
2.58 0.73
3.43 1.18
2.10 0.32
(STF-0401G)
Muffler
Pressure
(MPa)
4-way valve
Ø25 × L210 Ø25 × L180
Discharge
(TD)
69 82 47 68 75 88
TE sensor
Heat exchanger 2 row 52 stages
Outside : Ø8 FP1.3 flat fin
Inside : Ø9.52 FP1.5 flat fin
Pipe surface temperature (°C)
Suction
(TS)
12 17 8 3 20 –14
Indoor heat
exchanger
(TC)
10 16
5 40 56 34
Outdoor heat
exchanger
(TE)
40 48 27 3 16 –13
Distributor
Compressor
revolutions per
second (rps)
*
40 50 24 44 24 63
Strainer
R410A 2.95kg
Cooling Heating
Indoor/Outdoor
Indoor
fan
HIGH HIGH
LOW
HIGH
LOW
HIGH
temp. conditions
(DB/WB) (°C)
Indoor Outdoor
27/19 35/– 32/24 43/–
18/15.5 –5/–
20/– 7/6 30/– 24/18 15/–
–15/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 37 –
Page 38
RAV-SM1403UT-E, RAV-SM1402BT-E, RAV-SM1402CT-E / RAV-SP1402AT-E
Revised : Mar. 2007
Outer diameter of refrigerant pipe
Gas side ØA Liquid side ØB
15.9mm 9.5mm
Height difference (m)
Outdoor unit
at upper side
30 15
Outdoor unit at lower side
Height
difference
TS sensor
Indoor unit
TCJ sensor
Strainer
Air heat exchanger
* The refrigerating cycle of the indoor units differs according to
the models to be combined. For the refrigerating cycles of the other indoor units, refer to the corresponding Service Manuals described in the list on the cover.
Refrigerant pipe at gas side Outer dia. ØA
Section shape
of heat insulator
Ball valve Outer dia. ØA
Outdoor unit
Strainer
Check joint
TO sensor
Distributor (Strainer incorporated)
TC sensor
Refrigerant pipe at liquid side Outer dia. ØB
Packed valve Outer dia. ØB
PMV (UKV-25D22)
Min. 5m
Max. 70m
Accumulator
(2500cc)
(DA420A3F – 21M)
Standard
Cooling Overload
Low load Standard
Heating Overload
Low load
TD sensor
Muffler
Rotary
compressor
Pressure
(MPa)
Pd Ps
2.76 0.91
3.46 1.03
1.77 0.78
2.65 0.69
3.33 1.08
2.50 0.22
4-way valve
(STF-0401G)
Ø25 × L210 Ø25 × L180
Discharge
(TD)
74 82 48 75 74 98
Heat exchanger 2 row 52 stages
Outside : Ø8 FP1.3 flat fin
Inside : Ø9.52 FP1.5 flat fin
Pipe surface temperature (°C)
Suction
(TS)
11 17 9 3 19 –22
Indoor heat
exchanger
(TC)
9 16 6 43 55 43
TE sensor
Outdoor heat
exchanger
(TE)
39 48 27 3 15 –18
Distributor
Compressor
revolutions per
second (rps)
*
53 51 24 55 24 73
Strainer
R410A 2.95kg
Indoor/Outdoor
Indoor
fan
HIGH HIGH
LOW
HIGH
LOW
HIGH
temp. conditions
Indoor Outdoor
27/19 35/– 32/24 43/–
18/15.5 –5/–
20/– 7/6 30/– 24/18 15/–
Cooling Heating
(DB/WB) (°C)
–15/(70%)
4 poles are provided to this compressor.
*
The compressor frequency (Hz) measured with a clamp meter is 2 times of revolutions (rps) of the compressor.
– 38 –
Page 39
5. WIRING DIAGRAM
5-1. Indoor Unit
5-1-1. 4-Way Air Discharge Cassette Type
RAV-SM563UT-E, RAV-SM803UT-E, RAV-SM1103UT-E, RAV-SM1403UT-E, RAV-SP1102UT-E
TA
LM1
LM2
5 5 4 4 3 3 2 2 1 1
5 5 4 4 3 3 2 2 1 1
5 5 4 4 3 3 2 2 1 1
FM
FS
CN34
(RED)
3 3
2 2
1 1
CN33
(WHI)
5 5 4 4 3 3 2 2 1 1
CN333
(WHI)
5 5
4 4
3 3
2 2
1 1
CN334
(WHI)
1 1
2 2 3 3
4 4 5 5
TCJ
1 2
1 2
1 2
CN104
(YEL)
1 2
CN102
(RED)
MCC-1402
Control P.C. Board for
Indoor Unit
Motor
drive
circuit
RY 302
CN68
1 233 1 2 3
(BLU)
1 2
DP
RY 303
CN304
(GRY)
TC
1 2 1 2
CN101
(BLK)
Fuse F302 T3.15A 250V~
Fuse F301 250V~ T6.3A
CN67 (BLK)
RED
1 2 3
CN80
(GRN)
DC20V DC15V DC12V DC7V
Power
supply
circuit
+
~~
1 233 1 2
5
445
WHI BLK
WHI
(EXCT)
1 2
CN73 (RED)
P301
RED
BLK
1 2
CN70 (WHI)
1 2
CN66 (WHI)
Closed-end connector
Connection interface (option)
CN50 (WHI)
5 4 3 2 1
6 5 4 3 2 1
2 1
(FAN DRIVE)
6 5 4 3 2 1
3
2
1
3
2 2
1 1
CN41 (BLU)
5 4 3 2 1
CN60 (WHI)
CN32 (WHI)
CN61 (YEL)
CN309
(YEL)
BLK
3
BLK
CN51
(RED)
5
5
4
4
P.C.
3
3
Board
2
2
1
1
Terminal for
central remote
controller
B A
1 2 1 2
CN40 (BLU)
U4U3
BLK
WHI
Wireless Remote
BLK
WHI
CN001
2 2
(WHI)
1 1
Adapter for
Controller
B A
Wired Renote
Controller
FM
TA
TC
TCJ
LM1,LM2
DP
FS
RY302
NOTE
: Fan motor : Indoor temp. sensor : Temp. sensor : Temp. sensor : Louver motor : Drain pump motor : Float switch : Drain control relay
Single phase 220 to 240V 50Hz
– 39 –
321
Indoor unit earth screw
321
Outdoor unit earth screw
Serial
NL
signal
Color
Identification
BLACK
:
BLK
BLUE
:
BLU
RED
:
RED
GRAY
:
GRY
PINK
:
PNK
GREEN
:
GRN
WHITE
:
WHI
BROWN
:
BRN
ORANGE
:
ORN
YELLOW
:
YEL
Page 40
5-1-2. Concealed Duct Type
RAV-SM562BT-E, RAV-SM802BT-E, RAV-SM1102BT-E, RAV -SM1402BT-E
FM
FS
CN34
(RED)
3 3
2 2
1 1
CN33 (WHI)
CN333
(WHI)
5 5
4 4
3 3
2 2
1 1
TA
1 2 1 2
CN104
(YEL)
5 4 3 2 1
1 2 1 2
CN102
(RED)
TCJ
1 2 1 2
CN101
(BLK)
TC
1 2 3
CN80
(GRN)
(EXCT)
1 2
CN73 (RED)
MCC-1402
Control P.C. Board for
Indoor Unit
DC20V DC15V DC12V DC7V
Power
supply
1 2
CN70 (WHI)
Connection interface (option)
CN50 (WHI)
5 4 3 2 1
6 5 4 3 2 1
2 1
(FAN DRIVE)
5 4 3 2 1
CN60
(WHI)
CN32
(WHI)
CN51
(RED)
5
5
4
4
3
3
Board
2
2
1
1
Terminal for
central remote
controller
P.C.
1 2 1 2
U4U3
CN40 (BLU)
circuit
Fuse F302 T3.15A 250V~
Motor
6 5 4
CN61 (YEL)
3 2 1
drive
circuit
+
FM
TA
TC
TCJ
DP
FS
RY302
CN334
(WHI)
1 1
2 2 3 3
4 4 5 5
RY 302
CN68
1 233 1 2 3
(BLU)
1 2
CN304
(GRY)
DP
NOTE
: Fan motor : Indoor temp. sensor : Temp. sensor : Temp. sensor : Drain pump motor : Float switch : Drain control relay
RY 303
Capacitor
~~
Fuse F301 250V~ T6.3A
1 233
CN67
1 2
(BLK)
RED
445
WHI BLK
NL
Single phase 220V, 50Hz
5
WHI
321
321
Serial signal
P301
RED
1 2
BLK
CN66 (WHI)
Closed-end connector
Indoor unit earth screw
Outdoor unit earth screw
3
CN309
2
(YEL)
1
3
3
2 2
1 1
CN41 (BLU)
1 233 1 2
Reactor
BLK BLK
BLK
B A
WHI
Identification
BLK BLU RED GRY PNK GRN WHI BRN ORN YEL
B A
Wired Renote
Controller
Color
BLACK
:
BLUE
:
RED
:
GRAY
:
PINK
:
GREEN
:
WHITE
:
BROWN
:
ORANGE
:
YELLOW
:
– 40 –
Page 41
5-1-3. Under Ceiling Type
RAV-SM562CT-E, RAV-SM802CT-E, RAV-SM1102CT-E, RAV -SM1402CT-E
LM
FM
TA
1 2 1 2
CN104
(YEL)
CN34
FS
(RED)
3 3
22
1 1
CN33
(WHI)
5
5
5
5
4
4
3
3
2
2
1
1
4
4
3
3
2
2
1
1
TCJ
1 2 1 2
CN102
(RED)
Control P.C. Board for
TC
1 2 12
CN101
(BLK)
1 2 3
CN80
(GRN)
MCC-1402
Indoor Unit
DC20V DC15V DC12V DC7V
Power
supply
(EXCT)
12
CN73
(RED)
12
CN70 (WHI)
Connection interface (option)
CN50 (WHI)
5 4 3 2 1
(FAN DRIVE)
6 5 4 3 2 1
2 1
5 4 3 2 1
CN60 (WHI)
CN32 (WHI)
CN51 (RED)
5
5
4
4
P.C.
3
3
Board
2
2
1
1
1 2 12
Terminal for
central remote
controller
U4U3
CN40 (BLU)
circuit
6 5 4 3 2 1
CN61 (YEL)
BLK
WHI
2 2 1 1
CN001
(WHI)
CN333
(WHI)
5 5
44
3 3
22
1 1
Fuse F302 T3.15A 250V~
Motor
drive
circuit
+
FM
TA
TC
TCJ
LM DP
FS
RY302
CN334
(WHI)
1 1
2 2 33
4 4 5 5
RY 302
CN68
1
(BLU)
233 1 2 3
1 2
DP
NOTE
: Fan motor : Indoor temp. sensor : Temp. sensor : Temp. sensor : Louver motor : Drain pump motor : Float switch : Drain control relay
RY 303
CN304
(GRY)
CN67 (BLK)
Capacitor
~ ~
Fuse F301 250V~ T6.3A
1 1 2
RED WHI BLK
233
5
445
321
1
Single phase 220V, 50Hz
32
Serial
NL
signal
RED
WHI
P301
BLK
Indoor unit earth screw
Outdoor unit earth screw
12
CN66 (WHI)
Closed-end connector
3
CN309
2
(YEL)
1
3
3
22
1 1
CN41 (BLU)
1
233
1 2
Reactor
BLK BLK
Wireless Remote
BLK
B A
WHI
Wired Renote
Color
Identification
BLK
:
BLU
:
RED
:
GRY
:
PNK
:
GRN
:
WHI
:
BRN
:
ORN
:
YEL
:
Adapter for
Controller
B A
Controller
BLACK BLUE RED GRAY PINK GREEN WHITE BROWN ORANGE YELLOW
– 41 –
Page 42
– 42 –
CAUTION : HIGH VOLTAGE
The high voltage circuit is incorporated. Be careful to do the check service, as the electric shock may be caused in case of touching parts on the P.C. board by hand
The 4-way valve coil is turned on while the cooling operation
NOTE
Compressor
:
CM
Pulse motor valve
:
PMV
Fan motor
:
FM
Heat exchanger Temp. Sensor
:
TE
Discharge T emp . Sensor
:
TD
Outdoor T emp . Sensor
:
TO
Suction T emp . Sensor
:
TS
Insulated Gate Bipolar Transistor
:
IGBT
Rectifier
:
DB
Curreut T r ansformer
:
CT
Color Identification
BLK
: BLU RED GRY PNK
BLACK
:
BLUE
:
RED
:
GRAY
:
PINK
WHI BRN ORN YEL PUR
Compressor
CM
:
WHITE
:
BROWN
:
ORANGE
:
YELLOW
:
PURPLE
Reactor
212 3 3
YEL
YEL
BRN
YEL
ORN
212
5-2. Outdoor Unit (Wiring Diagram)
RAV-SM563AT-E, RAV-SM803AT-E
RED WHI BLK
P25 P24
P23 P22
P21 P20
P35 P34
P19
P18 P11
P08
P04 P05 P06
DB01
Q404
1
3
1
RED
WHI
BLK
223
1
3
1
SW802
MCC-1530
Sub P.C. Board
BLK
Q200~205 IGBT
Power
relay
DB02
R221
R220
R219
L03 C13
CT
Relay
PUR
P.C. Board
(MCC-5009)
F03 Fuse T3.15A AC250V
C12 C14
112
2
Reactor
CN701
Q300~305 MOS-FET
R321
R320
R319
Varistor
L01
Surge absorber
Varistor
F01 Fuse T25A AC250V
P03
P10
ORN
WHI
BLK
ORN
RED
P7P32P33
3
1 1
3
BLKP30P31CN605
Coil for 4-WAY VALVE
Fuse 250V~
T6.3A
Reactor
RED
1
1
CN300
CN700
P02 WHI CN806
For optional P.C. Board
WHI
BLK
GRN/YEL
WHI
3
3
2
2
1
1
6
6
5
5
4
4
3
3
2
2
1
1
CN603
CN602
CN601
CN600
4 52 31223
BLK WHI RED
Fan motor
Pulse motor valve
3 2 131
212
1
3 2 131
212
1
FM
PMV
TS
(Suction pipe temp. sensor)
TO
(Outdoor temp. sensor)
TD
(Discharge pipe temp. sensor)
TE
(Condenser pipe temp. sensor)
NL321
To indoor Power supply
220-240V~ 50Hz
Page 43
Color Identification
BLK
: BLU RED GRY PNK
BLACK
:
BLUE
:
RED
:
GRAY
:
PINK
WHI BRN ORN YEL PUR
:
WHITE
:
BROWN
:
ORANGE
:
YELLOW
:
PURPLE
Reactor Reactor
P09
1
GRY
P12
221
GRY
1
WHI
P08
221
WHI
P13
P29 ORN
P21 BRN
P24 RED
RAV-SM1103AT-E, RAV-SM1403A T-E
~ ~ ~
P28 GRY
YEL BLU
P17
P19
P20
P18
BLK
RED
WHI
F01 Fuse T25A, 250V~
Coil for 4-WAY Valve
RED
WHI
To indoor unitPower supply
CN700 YEL
20SF
CN02 BLK
BLK
BLU BLU
F02 Fuse T25A, 250V~
5
31
CN13 RED
1 1
Serial commu­nication circuit
223
3
5
BLK
5
CN01 RED
53
44556
CN702 WHI
6
1 3 3
1 3 3 5 5
1
1
RY300
1
RED
1 1
F01 Fuse T3.15A 250V~
PMV
Pulse motor valve Fan motor
Power factor
control
21
CN05 WHI
1
ORN
CN04 WHI
211
SUB P.C. board
(MCC-1531)
223
1
CN301
WHI
1
WHI
RED
FM
CN01
RED
CN02
WHI
CN03
– 43 –
Fuse
T6.3A,
250V~
RED
NL 1 2 3
220-240V~ 50Hz
RY01
P.C. board
(MCC-1438)
445
223
1
3
1
PNK
RED
BLU
445
223
1
3
1
Fan motor drive circuit
445
223
1
3
1
3
BLK
YEL
PNK
5
WHI
5
5
GRY
CN06 RED
BLK
CN800 RED
CN300 WHI
1 3 3
CN04 WHI
CN03 WHI
1
3
1
CN600
BLK
3
1
YEL
BLU
3
1
3
1 233
Fuse F300 T5A, 250V
445
223
1 1
1 1
Optional
P.C. board
MCC-1522
223
5
3
445
5
3
CN804 BLU
1
221
TH
CM PMV FM TE TH TD TO TS IGBT
CN09 RED
CN10 WHI
CN11 BLK
IGBT MODULE
TS TE TO
1 1
CN605
WHI
CN500 BLU
2 2 1 1
ORN
ORN
1
CN604
WHI
221
1
CN601
WHI
2 31 5 64 87
Thermostat for compressor
49C
221
CN801
TD
1
233
1
CN600
WHI
NOTE
Compressor
:
Pulse motor valve
:
Fan motor
:
Heat exchanger Temp. Sensor
:
Temp. Sensor
:
Discharge T emp . Sensor
:
Outdoor T emp . Sensor
:
Suction T emp . Sensor
:
Insulated Gate Bipolar Transistor
:
WV U
CM
Compressor
Page 44
RAV-SP562AT-E, RAV-SP802AT-E
BLU
1
CN700
1
YEL
RED
1
RED
3 3
CN02
BLK
1 3 3 5 5
GRN/YEL
Reactor Reactor
P09
1
RED
1 1
1 1
221
1
GRY
GRY
P12
31
Serial commu­nication circuit
223
3
P13
F02 Fuse T25A, 250V~
5
CN13 RED
5
BLK
5
CN01 RED
53
44556
CN702 WHI
6
Power factor
CN301
221
1
WHI
WHI
P08
1
RY300
F01 Fuse T3.15A 250V~
1
PMV
Pulse motor valve Fan motor
P29 ORN
P21 BRN
P24 RED
control
21
CN05 WHI
1
ORN
CN04 WHI
211
SUB P.C. board
(MCC-1531)
223
1
WHI
1
RED
FM
3
WHI
BLK
~ ~ ~
P28 GRY
RY01
P.C. board
(MCC-1438)
445
223
1 1
PNK
RED
223
1 1
Fan motor drive circuit
223
1 1
YEL
3
3
BLU
3
445
PNK
WHI
445
5
GRY
CN06 RED
5
BLK
CN800 RED
5
CN300 WHI
WHI
CN03 WHI
Fuse F300 T5A, 250V
3
1
YEL
BLU
3
1
3
1 233
CN607
YEL
3
1
CN04
YEL BLU
P19
P20
1 1
CN605
CN606
RED
CN500 BLU
2 2 1 1
:
CM
:
PMV
:
FM
:
TE
:
TD
:
TO
:
TS
:
IGBT
P17
P18
CN20 RED
CN21 WHI
CN22 BLK
IGBT MODULE
WV U
CM
TS TE TO
221
221
1
CN601
WHI
2 31 5 64 87
CN801
Thermostat for compressor
49C
WHI
ORN
ORN
12121
CN604
WHI
NOTE
Compressor Pulse motor valve Fan motor Heat exchanger Temp. Sensor Discharge T emp . Sensor Outdoor T emp . Sensor Suction T emp . Sensor Insulated Gate Bipolar Transistor
TD
1
233
1
CN600
WHI
Compressor
Color Identification
BLK
:
BLACK
BLU
:
BLUE
RED
:
RED
GRY
:
GRAY
PNK
:
PINK
RED
WHI
– 44 –
Reactor
Fuse
T6.3A,
250V~
WHI
RED RED
RED
CN01
CN02
CN03
BLK
WHI BRN ORN YEL PUR
F01 Fuse T25A, 250V~
WHI
BLK
:
WHITE
:
BROWN
:
ORANGE
:
YELLOW
:
PURPLE
Coil for 4-WAY Valve
WHI
RED
RED
20SF
BLU
3 3
WHI
NL1 2 3
To indoor unit Power supply
220-240V~ 50Hz
Page 45
Color Identification
BLK
: BLU RED GRY PNK
BLACK
:
BLUE
:
RED
:
GRAY
:
PINK
WHI BRN ORN YEL PUR
:
WHITE
:
BROWN
:
ORANGE
:
YELLOW
:
PURPLE
Reactor Reactor
P09
1
GRY
P12
221
GRY
1
WHI
P08
221
WHI
P13
P21 BRN
P24 RED
P29 ORN
RAV-SP1102AT-E, RAV-SP1402A T-E
~ ~ ~
P28 GRY
YEL BLU
P17
P19
P20
P18
BLK
WHI
F01 Fuse T25A, 250V~
RED
BLK
220-240V~ 50Hz
WHI
RED
NL1 2 3
CN700 YEL
20SF
Coil for 4-WAY Valve
GRN/YEL
WHI
BLU BLU
1 3 3
CN02
BLK
1 3 3 5 5
F02 Fuse T25A, 250V~
Power factor
5
31
CN13
1
RED
1 1
1
RY300
F01 Fuse T3.15A 250V~
1
1 1
Serial commu­nication circuit
223
3
RED
5
BLK
5
CN01 RED
53
44556
CN702 WHI
6
1
ORN
CN301
WHI
PMV
Pulse motor valve Fan motor
control
21
CN05 WHI
CN04 WHI
211
SUB P.C. board
223
1 1
WHI
RED
FM
CN01
RED
CN02
WHI
CN03
– 45 –
Fuse
T6.3A,
250V~
WHI
RED RED
RED
To indoor unit Power supply
RY01
P.C. board
(MCC-1438)
445
223
1
3
1
PNK
RED
BLU
WHI
445
223
1
3
1
(MCC-1531)
Fan motor drive circuit
CN300
WHI
445
223
1 1
3
BLK
YEL
5
3
PNK
5
BLK
5
GRY
CN06 RED
CN800 RED
CN303
WHI
3
1
CN04 WHI
CN03 WHI
Fuse F300 T5A, 250V
1 1
RED
223
WHI
CN600
BLK
3
1
BLU
3 3
1 1
YEL
TH
CN607
YEL
CN302
WHI
223
3
445
PNK
YEL
1 1 233
3
BLK
FM
Fan motor
221
1
CN606
RED
5
GRY
TS TE TO
1 1
CN605
WHI
CN500 BLU
ORN
2 2 1 1
ORN
Compressor
:
CM
Pulse motor valve
:
PMV
Fan motor
:
FM
Heat exchanger Temp. Sensor
:
TE
Temp. Sensor
:
TH
Discharge T emp . Sensor
:
TD
Outdoor T emp . Sensor
:
TO
Suction T emp . Sensor
:
TS
Insulated Gate Bipolar Transistor
:
IGBT
IGBT MODULE
221
12121
1
CN604
CN601
WHI
WHI
2 31 5 64 87
Thermostat for compressor
49C
NOTE
CN09 RED
CN10 WHI
CN11 BLK
1
221
1
CN600
WHI
CN801
TD
233
WV U
CM
Compressor
Page 46
6. SPECIFICATIONS OF ELECTRICAL PARTS
6-1. Indoor Unit
6-1-1. 4-Way Air Discharge Cassette Type
RAV-SM563UT-E, RAV-SM803UT-E
No.
1
Fan motor (for indoor)
2
Thermo. sensor (TA-sensor)
3
Heat exchanger sensor (TCJ-sensor)
4
Heat exchanger sensor (TC-sensor)
5
Float switch
6
Drain pump motor
Parts name
Type
SWF-230-60-1R
155 mm Ø6 mm, 1200 mm Ø6 mm, 1200 mm
FS-0218-102
ADP-1409
RAV-SM1103UT-E, RAV-SM1403UT-E, RAV-SP1102UT-E
No.
1
Fan motor
2
Thermo. sensor (TA-sensor)
3
Heat exchanger sensor (TCJ-sensor)
4
Heat exchanger sensor (TC-sensor)
5
Float switch
6
Drain pump motor
Parts name
Type
SWF-200-90-1R
155 mm Ø6 mm, 1200 mm Ø6 mm, 1200 mm
FS-0218-102
ADP-1409
Specifications
Output (Rated) 60 W, 220–240 V 10 k at 25°C 10 k at 25°C 10 k at 25°C
Specifications
Output (Rated) 90 W 10 k at 25°C 10 k at 25°C 10 k at 25°C
– 46 –
Page 47
6-1-2. Concealed Duct Type
RAV-SM562BT-E, RAV-SM802BT-E, RAV-SM1102BT-E, RAV -SM1402BT-E
Revised : Mar. 2007
No.
1
Fan motor (SM802BT-E) Fan motor
2
(SM562BT-E/SM1102BT-E/SM1402BT-E)
3
Thermo. sensor (TA-sensor)
4
Heat exchanger sensor (TCJ-sensor)
5
Heat exchanger sensor (TC-sensor)
6
Float switch
7
Drain pump motor
8
Reactor
Parts name
Type
ICF-280-120-1B
ICF-280-120-2B
618 mm Ø6 mm, 1200 mm Ø6 mm, 1200 mm
FS-0218-102
ADP-1409
CH-43-2Z-T
6-1-3. Under Ceiling Type
RAV-SM562CT-E, RAV-SM802CT-E, RAV-SM1102CT-E, RAV -SM1402CT-E
No.
1
Fan motor (SM562CT-E)
Parts name
Type
SWF-280-60-1R
Specifications
Output (Rated) 120 W, 220–240 V
Output (Rated) 120 W, 220–240 V
10 k at 25°C 10 k at 25°C 10 k at 25°C
10 mH, 1 A
Specifications
Output (Rated) 60 W, 220–240 V
2
Fan motor (SM802CT-E)
3
Fan motor (SM1102CT-E/SM1402CT-E)
4
Thermo. sensor (TA-sensor)
5
Heat exchanger sensor (TCJ-sensor)
6
Heat exchanger sensor (TC-sensor)
7
Louver motor
8
Reactor
SWF-280-60-2R
SWF-280-120-2R
155 mm Ø6 mm, 1200 mm Ø6 mm, 1200 mm
MP24Z2N
CH-43-2Z-T
Output (Rated) 60 W, 220–240 V Output (Rated) 120 W, 220–240 V 10 k at 25°C 10 k at 25°C 10 k at 25°C DC 15 V 10 mH, 1 A
– 47 –
Page 48
6-2. Outdoor Unit
RAV-SM563AT-E
Revised : Mar. 2007
No.
1
Fan motor
2
Compressor
3
Reactor
4
Outdoor temp. sensor (To-sensor)
5
Heat exchanger sensor (Te-sensor)
6
Suction temp. sensor (Ts-sensor)
7
Discharge temp. sensor (Td-sensor)
8
Fuse (Switching power (Protect))
9
Fuse (Inverter, input (Current protect)
10
4-way valve solenoid coil
11
Compressor thermo. (Protection)
12
Coil (Pulse Motor Valve)
RAV-SM803AT-E
No.
1
Fan motor
2
Compressor
3
Reactor
4
Outdoor temp. sensor (To-sensor)
5
Heat exchanger sensor (Te-sensor)
6
Suction temp. sensor (Ts-sensor)
7
Discharge temp. sensor (Td-sensor)
8
Fuse (Switching power (Protect))
9
Fuse (Inverter, input (Current protect))
10
4-way valve solenoid coil
11
Compressor thermo. (Protection)
12
Coil (Pulse Motor Valve)
Parts name
Parts name
Type
ICF-140-43-4R
DA150A1F-20F
CH-57
— — — — — —
STF-01AJ502E1
US-622
CAM-MD12TF-6
Type
ICF-140-43-4R
DA150A1F-20F
CH-57
— — — — — —
STF-01AJ502E1
US-622
CAM-MD12TF-6
Specifications
Output (Rated) 43 W 3 phase, 4P, 1100 W 10 mH, 16A 10 k at 25°C 10 k at 25°C 10 k at 25°C 50 k at 25°C T3.15 A, AC 250 V 25 A, AC 250 V
OFF : 125 ± 4°C, ON : 90 ± 5°C
Specifications
Output (Rated) 43 W 3 phase, 4P, 1100 W 10 mH, 16 A 10 k at 25°C 10 k at 25°C 10 k at 25°C 50 k at 25°C T3.15 A, AC 250 V 25 A, AC 250 V AC 220 – 240 V OFF : 125 ± 4°C, ON : 90 ± 5°C
RAV-SM1103AT-E
No.
1
Fan motor
2
Compressor
3
Reactor
4
Outdoor temp. sensor (To-sensor)
5
Heat exchanger sensor (Te-sensor)
6
Suction temp. sensor (Ts-sensor)
7
Discharge temp. sensor (Td-sensor)
8
Fuse (Switching power (Protect))
9
Fuse (Inverter, input (Current protect)
10
4-way valve solenoid coil
11
Compressor thermo. (Protection)
12
Coil (Pulse Motor Valve)
Parts name
Type
ICF-280-100-1R DA420A3F-21M
CH-62
— — — — — —
STF-01AJ502E1
US-622
UKV-U048E
– 48 –
Specifications
Output (Rated) 100 W 3 phase, 4P, 2000 W 6 mH, 18.5 A 10 k at 25°C 10 k at 25°C 10 k at 25°C 50 k at 25°C T3.15 A, AC 250 V 25 A, AC 250 V AC 220 – 240 V OFF : 125 ± 4°C, ON : 90 ± 5°C
Page 49
RAV-SM1403AT-E
Revised : Mar. 2007
No.
1
Fan motor
2
Compressor
3
Reactor
4
Outdoor temp. sensor (To-sensor)
5
Heat exchanger sensor (Te-sensor)
6
Suction temp. sensor (Ts-sensor)
7
Discharge temp. sensor (Td-sensor)
8
Fuse (Switching power (Protect))
9
Fuse (Inverter, input (Current protect))
10
4-way valve solenoid coil
11
Compressor thermo. (Protection)
12
Coil (Pulse Motor Valve)
Parts name
RAV-SP562AT-E, RAV-SP802AT-E
No.
1
Fan motor
2
Compressor
3
Reactor
4
Outdoor temp. sensor (To-sensor)
5
Heat exchanger sensor (Te-sensor)
6
Suction temp. sensor (Ts-sensor)
7
Discharge temp. sensor (Td-sensor)
8
Fuse (Switching power (Protect))
9
Fuse (Inverter, input (Current protect))
10
4-way valve solenoid coil
11
Compressor thermo. (Protection)
12
Coil (Pulse Motor Valve)
13
Reactor
Parts name
Type
ICF-280-100-1R
DA420A3F-21M
CH-62
— — — — — —
VHV-01AJ503C1
US-622
UKV-U048E
Type
ICF-140-63-2R
DA220A2F-20L1
CH-47
— — — — — —
VHV-01AJ503C1
US-622
CAM-MD12TF-8
CH-43
Specifications
Output (Rated) 100 W 3 phase, 4P, 3500 W 6 mH, 18.5 A 10 k at 25°C 10 k at 25°C 10 k at 25°C 50 k at 25°C T3.15 A, AC 250 V 25 A, AC 250 V AC 220 – 240 V OFF : 125 ± 4°C, ON : 90 ± 5°C
Specifications
Output (Rated) 63 W 3 phase, 4P, 2000 W 8 mH, 16 A 10 k at 25°C 10 k at 25°C 10 k at 25°C 50 k at 25°C T3.15 A, AC 250 V 25 A, AC 250 V
OFF : 125 ± 4°C, ON : 90 ± 5°C
10 mH, 1 A
RAV-SP1102AT-E, RAV-SP1402A T-E
No.
1
Fan motor
2
Compressor
3
Reactor
4
Outdoor temp. sensor (To-sensor)
5
Heat exchanger sensor (Te-sensor)
6
Suction temp. sensor (Ts-sensor)
7
Discharge temp. sensor (Td-sensor)
8
Fuse (Switching power (Protect))
9
Fuse (Inverter, input (Current protect))
10
4-way valve solenoid coil
11
Compressor thermo. (Protection)
12
Coil (Pulse Motor Valve)
Parts name
Type
ICF-140-63-2R
DA420A3F-21M
CH-62
— — — — — —
VHV-01AJ502E1
US-622
UKV-U011E
– 49 –
Specifications
Output (Rated) 63 W 3 phase, 4P, 3500 W 6 mH, 18.5 A 10 k at 25°C 10 k at 25°C 10 k at 25°C 50 k at 25°C T3.15 A, AC 250 V 25 A, AC 250 V AC 220 V OFF : 125 ± 4°C, ON : 90 ± 5°C
Page 50
6-3. Accessory Separate Soldparts
TCB-DP22CE2 (Drain up kit) RAV-SM562CT-E, RAV-SM802CT-E, RAV-SM1102CT-E, RAV -SM1402CT-E
Revised : Mar. 2007
No.
1
Float switch
2
Drain pump motor
Parts name
Type
FS-0218-102
ADP-1415
Specifications
RBC-U21PG (W) -E2 (Ceiling panel) RAV-SM563UT-E, RAV-SM803UT-E, RAV-SM1103UT-E, RAV-SM1403UT-E / RAV-SP1102UT-E
No.
1 2
Motor-louver
Parts name
Type
MP24ZN
Specifications
DC 12 V
– 50 –
Page 51
7. REFRIGERANT R410A
This air conditioner adopts the new refrigerant HFC (R410A) which does not damage the ozone layer.
The working pressure of the new refrigerant R410A is 1.6 times higher than conventional refrigerant (R22). The refrigerating oil is also changed in accordance with change of refrigerant, so be careful that water, dust, and existing refrigerant or refriger­ating oil are not entered in the refrigerant cycle of the air conditioner using the new refrigerant during installation work or servicing time.
The next section describes the precautions for air conditioner using the new refrigerant. Confor ming to contents of the next section together with the general cautions included in this manual, perform the correct and safe work.
7-1. Safety During Installation/Servicing
As R410A’s pressure is about 1.6 times higher than that of R22, improper installation/servicing may cause a serious trouble. By using tools and materi­als exclusive for R410A, it is necessary to carry out installation/servicing safely while taking the following precautions into consideration.
1. Never use refrigerant other than R410A in an air conditioner which is designed to operate with R410A.
If other refrigerant than R410A is mixed, pressure in the refrigeration cycle becomes abnormally high, and it may cause personal injury, etc. by a rupture.
2. Confirm the used refrigerant name, and use tools and materials exclusive for the refrigerant R410A.
The refrigerant name R410A is indicated on the visible place of the outdoor unit of the air condi­tioner using R410A as refrigerant. To prevent mischarging, the diameter of the service port differs from that of R22.
3. If a refrigeration gas leakage occurs during installation/servicing, be sure to ventilate fully.
If the refrigerant gas comes into contact with fire, a poisonous gas may occur.
4. When installing or removing an air conditioner, do not allow air or moisture to remain in the refrigeration cycle. Otherwise, pressure in the refrigeration cycle may become abnormally high so that a rupture or personal injury may be caused.
5. After completion of installation work, check to make sure that there is no refrigeration gas leakage.
If the refrigerant gas leaks into the room, coming into contact with fire in the fan-driven heater, space heater, etc., a poisonous gas may occur.
6. When an air conditioning system charged with a large volume of refrigerant is installed in a small room, it is necessary to exercise care so that, even when refrigerant leaks, its concentr ation does not exceed the marginal le vel.
If the refrigerant gas leakage occurs and its concentration exceeds the marginal level, an oxygen starvation accident ma y result.
7. Be sure to carry out installation or removal according to the installation manual.
Improper installation may cause refrigeration trouble, water leakage , electric shock, fire, etc.
8. Unauthorized modifications to the air conditioner may be dangerous. If a breakdown occurs please call a qualified air conditioner technician or electrician.
Improper repair’s may result in water leakage, electric shock and fire, etc.
7-2. Refrigerant Piping Installation
7-2-1. Piping Materials and Joints Used
For the refrigerant piping installation, copper pipes and joints are mainly used. Copper pipes and joints suitable for the refrigerant m ust be chosen and installed. Furthermore, it is necessary to use clean copper pipes and joints whose interior surfaces are less affected by contaminants .
1. Copper Pipes It is necessary to use seamless copper pipes
which are made of either copper or copper alloy and it is desirable that the amount of residual oil is less than 40 mg/10 m. Do not use copper pipes having a collapsed, deformed or discolored portion (especially on the interior surface). Otherwise, the expansion valve or capillary tube may become blocked with contaminants.
As an air conditioner using R410A incurs pres­sure higher than when using R22, it is necessary to choose adequate materials.
Thicknesses of copper pipes used with R410A are as shown in Table 7-2-1. Never use copper pipes thinner than 0.8 mm even when it is available on the market.
NOTE:
Refer to the “7-6. Instructions for Re-use Piping of R22 or R407C”.
– 51 –
Page 52
Table 7-2-1 Thicknesses of annealed copper pipes
Thickness (mm)
Nominal diameter
1/4 3/8 1/2 5/8
1. Joints For copper pipes, flare joints or socket joints are used. Prior to use, be sure to remove all contaminants. a) Flare Joints
Flare joints used to connect the copper pipes cannot be used for pipings whose outer diameter exceeds 20 mm. In such a case, socket joints can be used.
Sizes of flare pipe ends, flare joint ends and flare nuts are as shown in Tables 7-2-3 to 7-2-6 below.
b) Socket Joints
Socket joints are such that they are brazed for connections, and used mainly for thick pipings whose diameter is larger than 20 mm. Thicknesses of socket joints are as shown in Table 7-2-2.
Outer diameter (mm)
6.4
9.5
12.7
15.9
Table 7-2-2 Minimum thicknesses of socket joints
R410A R22
0.80 0.80
0.80 0.80
0.80 0.80
1.00 1.00
Nominal diameter
1/4 3/8 1/2 5/8
Reference outer diameter of
copper pipe jointed (mm)
6.4
9.5
12.7
15.9
Minimum joint thickness
(mm)
0.50
0.60
0.70
0.80
7-2-2. Processing of Piping Materials
When performing the refrigerant piping installation, care should be taken to ensure that water or dust does not enter the pipe interior, that no other oil other than lubricating oils used in the installed air conditioner is used, and that refrigerant does not leak. When using lubricating oils in the piping processing, use such lubricating oils whose water content has been removed. When stored, be sure to seal the container with an airtight cap or any other cover.
1. Flare Processing Procedures and Precautions a) Cutting the Pipe
By means of a pipe cutter, slowly cut the pipe so that it is not deformed.
b) Removing Burrs and Chips
If the flared section has chips or burrs, refrigerant leakage may occur. Carefully remove all burrs and clean the cut surface before installation.
– 52 –
Page 53
c) Insertion of Flare Nut d) Flare Processing
Make certain that a clamp bar and copper pipe have been cleaned. By means of the clamp bar, perform the flare processing correctly. Use either a flare tool for R410A or conventional flare tool. Flare processing dimensions differ according
to the type of flare tool. When using a conventional flare tool, be sure
to secure “dimension A” by using a gauge f or size adjustment.
Fig. 7-2-1 Flare pr ocessing dimensions
Table 7-2-3 Dimensions related to flare processing for R410A
Nominal diameter
Outer
diameter
(mm)
Thickness
(mm)
Flare tool for
R410A clutch type
ØD
A
A (mm)
Conventional flare tool
Clutch type Wing nut type
1/4 3/8 1/2 5/8
Nominal diameter
1/4 3/8 1/2 5/8
6.4
9.5
12.7
15.9
0.8
0.8
0.8
1.0
0 to 0.5 0 to 0.5 0 to 0.5 0 to 0.5
Table 7-2-4 Dimensions related to flare processing for R22
Outer
diameter
(mm)
Thickness
(mm)
Flare tool for
R22 clutch type
6.4
9.5
12.7
15.9
0.8
0.8
0.8
1.0
0 to 0.5 0 to 0.5 0 to 0.5 0 to 0.5
1.0 to 1.5 1.5 to 2.0
1.0 to 1.5 1.5 to 2.0
1.0 to 1.5 2.0 to 2.5
1.0 to 1.5 2.0 to 2.5
A (mm)
Conventional flare tool
Clutch type Wing nut type
0.5 to 1.0 1.0 to 1.5
0.5 to 1.0 1.0 to 1.5
0.5 to 1.0 1.5 to 2.0
0.5 to 1.0 1.5 to 2.0
Nominal
diameter
1/4 3/8 1/2 5/8
Table 7-2-5 Flare and flare nut dimensions for R410A
Outer diameter
(mm)
6.4
9.5
12.7
15.9
Thickness
(mm)
0.8
0.8
0.8
1.0
Dimension (mm)
ABCD
9.1 9.2 6.5 13
13.2 13.5 9.7 20
16.6 16.0 12.9 23
19.7 19.0 16.0 25
– 53 –
Flare nut
width (mm)
17 22 26 29
Page 54
Table 7-2-6 Flare and flare nut dimensions for R22
Nominal
diameter
1/4 3/8 1/2 5/8 3/4
Outer diameter
(mm)
6.4
9.5
12.7
15.9
19.0
45
˚to 46
Thickness
(mm)
0.8
0.8
0.8
1.0
1.0
˚
B A
Dimension (mm)
ABCD
9.0 9.2 6.5 13
13.0 13.5 9.7 20
16.2 16.0 12.9 20
19.4 19.0 16.0 23
23.3 24.0 19.2 34
D
C
43˚to 45˚
Flare nut width
(mm)
17 22 24 27 36
Fig. 7-2-2 Relations between flare nut and flare seal surface
2. Flare Connecting Procedures and Precautions a) Make sure that the flare and union portions do not have any scar or dust, etc. b) Correctly align the processed flare surface with the union axis. c) Tighten the flare with designated torque by means of a torque wrench. The tightening torque for R410A is
the same as that for conventional R22. Incidentally, when the torque is weak, the gas leakage may occur . When it is strong, the flare nut may crac k and may be made non-removable. When choosing the tighten-
ing torque, comply with values designated by man ufacturers. Table 7-2-7 shows reference values.
NOTE:
When applying oil to the flare surface, be sure to use oil designated by the manufacturer. If any other oil is used, the lubricating oils may deteriorate and cause the compressor to burn out.
Table 7-2-7 Tightening torque of flare for R410A [Reference values]
Nominal
diameter
1/4
Outer diameter
(mm)
6.4
Tightening torque
N•m (kgf•m)
14 to 18 (1.4 to 1.8)
Tightening torque of torque
wrenches available on the market
N•m (kgf•m)
16 (1.6), 18 (1.8) 3/8 1/2 5/8
9.5
12.7
15.9
33 to 42 (3.3 to 4.2) 50 to 62 (5.0 to 6.2) 63 to 77 (6.3 to 7.7)
– 54 –
42 (4.2) 55 (5.5) 65 (6.5)
Page 55
7-3. Tools
7-3-1. Required T ools
Refer to the “4. Tools” (Page 8)
7-4. Recharging of Refrigerant
When it is necessary to recharge refrigerant, charge the specified amount of new refrigerant according to the following steps .
Recover the refrigerant, and check no refrigerant remains in the equipment.
Connect the charge hose to packed valve service port at the outdoor units gas side.
When the compound gauge’s pointer has indicated –0.1 Mpa (–76 cmHg), place the handle Low in the fully closed position, and turn off the vacuum pump’s power switch.
Connect the charge hose of the vacuum pump adapter.
Open fully both packed valves at liquid and gas sides.
Place the handle of the gauge manifold Low in the fully opened position, and turn on the vacuum pumps power switch. Then, evacuating the refrigerant in the cycle.
Keep the status as it is for 1 to 2 minutes, and ensure that the compound gauges pointer does not return.
Set the refrigerant cylinder to the electronic balance, connect the connecting hose to the cylinder and the connecting port of the electronic balance, and charge
liquid refrigerant.
(For refrigerant charging, see the figure below.)
1) Never charge refrigerant exceeding the specified amount.
2) If the specified amount of refrigerant cannot be charged, charge refrigerant bit by bit in COOL mode.
3) Do not carry out additional charging. When additional charging is carried out if refrigerant leaks, the refrigerant composition changes in the refrigeration cycle, that is characteristics of the air conditioner changes, refrigerant exceeding the specified amount is charged, and working pressure in the refrigeration cycle becomes abnormally high pressure, and may cause a rupture or personal injury.
(INDOOR unit)
Refrigerant cylinder
(With siphon pipe)
Check valve
Open/Close valve
for charging
Electronic balance for refrigerant charging
Fig. 7-4-1 Configuration of refrigerant charging
(Liquid side)
(Gas side)
– 55 –
(OUTDOOR unit)
Opened
Closed
Service port
Page 56
1) Be sure to make setting so that liquid can be charged.
2) When using a cylinder equipped with a siphon, liquid can be charged without turning it upside down.
It is necessary for charging refrigerant under condition of liquid because R410A is mixed type of refrigerant. Accordingly, when charging refrigerant from the refrigerant cylinder to the equipment, charge it turning the cylinder upside down if cylinder is not equipped with siphon.
[ Cylinder with siphon ] [ Cylinder without siphon ]
Refrigerant
cylinder
Gauge manifold
OUTDOOR unit
cylinder
Refrigerant
Gauge manifold
OUTDOOR unit
Electronic
balance
R410A refrigerant is HFC mixed refrigerant. Therefore, if it is charged with gas, the composi­tion of the charged refrigerant changes and the characteristics of the equipment varies.
7-5. Brazing of Pipes
7-5-1. Materials for Brazing
1. Silver brazing filler
Silver brazing filler is an allo y mainly composed of silver and copper. It is used to join iron, copper or copper alloy, and is relatively expensive though it excels in solderability.
2. Phosphor bronze brazing filler
Phosphor bronze brazing filler is generally used to join copper or copper alloy.
Fig. 7-4-2
Electronic
balance
Siphon
1) Phosphor bronze brazing filler tends to react with sulfur and produce a fragile compound water solution, which may cause a gas leakage. Therefore, use any other type of brazing filler at a hot spring resort, etc., and coat the surface with a paint.
2) When performing brazing again at time of servicing, use the same type of brazing filler.
7-5-2. Flux
3. Low temperature brazing filler
Low temperature brazing filler is generally called solder, and is an alloy of tin and lead. Since it is weak in adhesive strength, do not use it for refrigerant pipes.
1. Reason why flux is necessary
• By removing the oxide film and any foreign matter on the metal surface, it assists the flow of brazing filler.
• In the brazing process, it prevents the metal surface from being oxidized.
• By reducing the brazing filler's surface tension, the brazing filler adheres better to the treated metal.
– 56 –
Page 57
2. Characteristics required for flux
• Activated temperature of flux coincides with the brazing temperature.
• Due to a wide effective temperature range, flux is hard to carbonize.
• It is easy to remove slag after brazing.
• The corrosive action to the treated metal and brazing filler is minimum.
• It excels in coating performance and is harm­less to the human body.
As the flux works in a complicated manner as described above, it is necessary to select an adequate type of flux according to the type and shape of treated metal, type of brazing filler and brazing method, etc.
3. Types of flux
• Noncorrosive flux
Generally, it is a compound of borax and boric acid. It is effective in case where the brazing tem­perature is higher than 800°C.
• Activated flux
Most of fluxes generally used for silver brazing are this type. It features an increased o xide film removing capability due to the addition of compounds such as potassium fluoride, potassium chloride and sodium fluoride to the borax-boric acid compound.
7-5-3. Brazing
As brazing work requires sophisticated techniques, experiences based upon a theoretical knowledge, it must be performed by a person qualified.
In order to prev ent the oxide film from occurring in the pipe interior during brazing, it is effective to proceed with brazing while letting dry Nitrogen gas flow.
Never use gas other than Nitrogen gas.
1. Brazing method to prevent oxidation
1) Attach a reducing valve and a flow-meter to the Nitrogen gas cylinder.
2) Use a copper pipe to direct the piping mate­rial, and attach a flow-meter to the cylinder.
3) Apply a seal onto the clearance between the piping material and inserted copper pipe for Nitrogen in order to prevent backflow of the Nitrogen gas.
4) When the Nitrogen gas is flowing, be sure to keep the piping end open.
5) Adjust the flow rate of Nitrogen gas so that it is lower than 0.05 m³/Hr or 0.02 MPa (0.2kgf/cm²) by means of the reducing valve.
6) After performing the steps above, keep the Nitrogen gas flowing until the pipe cools down to a certain extent (temperature at which pipes are touchable with hands).
7) Remove the flux completely after brazing.
4. Piping materials for brazing and used brazing filler/flux
Piping
material
Copper - Copper
Copper - Iron
Iron - Iron
1) Do not enter flux into the refrigeration cycle.
2) When chlorine contained in the flux remains within the pipe, the lubricating oil deteriorates. Therefore, use a flux which does not contain chlorine.
3) When adding water to the flux, use water which does not contain chlorine (e.g. distilled water or ion-exchange water).
4) Remove the flux after brazing.
Used brazing
filler
Phosphor copper
Silver Silver
Used
flux
Do not use
Paste flux V apor flux
M
Flow meter
Stop valve
Nitrogen gas
cylinder
From Nitrogen cylinder
Pipe
Nitrogen gas
Rubber plug
Fig. 7-5-1 Pre vention of oxidation during brazing
– 57 –
Page 58
7-6. Instructions for Re-use Piping of R22 or R407C
Instruction of Works: The existing R22 and R407C piping can be reused for our digital inverter R410A products installations.
NOTE)
Confirmation of existence of scratch or dent of the former pipes to be applied and also confirmation of reliability of the pipe strength are conventionally referred to the local site.
If the definite conditions can be cleared, it is possible to update the existing R22 and R407C pipes to those for R410A models.
7-6-1. Basic conditions need to reuse the
existing pipe
Check and observe three conditions of the refrigerant piping works.
1. Dry (There is no moisture inside of the pipes.)
2. Clean (There is no dust inside of the pipes.)
3. Tight (There is no refrigerant leak.)
7-6-2. Restricted items to use the existing pipes
In the following cases, the existing pipes cannot be reused as they are. Clean the existing pipes or ex­change them with new pipes.
1. When a scratch or dent is heavy, be sure to use the new pipes for the works.
2. When the thickness of the existing pipe is thinner than the specified “Pipe diameter and thickness” be sure to use the new pipes for the works.
• The operating pressure of R410A is high
(1.6 times of R22 and R407C). If there is a scratch or dent on the pipe or thinner pipe is used, the pressure strength is poor and may cause break­age of the pipe at the worst.
* Pipe diameter and thickness (mm)
Pipe outer diameter
R410A
Thickness
• In case that the pipe diameter is Ø12.7 mm or less
and the thickness is less than 0.7 mm, be sure to use the new pipes for works.
3. The pipes are left as coming out or gas leaks. (Poor refrigerant)
• There is possibility that rain water or air including
moisture enters in the pipe.
4. Refrigerant recovery is impossible. (Refrigerant recovery by the pump-down operation on the existing air conditioner)
R22
(R407C)
Ø6.4 Ø9.5 Ø12.7 Ø15.9 Ø19.0
0.8 0.8 0.8 1.0 1.0
• There is possibility that a large quantity of poor
oil or moisture remains inside of the pipe.
5. A dryer on the market is attached to the existing pipes.
• There is possibility that copper green rust gener-
ated.
6. Check the oil when the existing air conditioner was removed after refrigerant had been recovered. In this case, if the oil is judged as clearly different compared with normal oil
• The refrigerator oil is copper rust green :
There is possibility that moisture is mixed with the oil and rust generates inside of the pipe.
• There is discolored oil, a large quantity of the
remains, or bad smell.
• A large quantity of sparkle remained wear-out
powder is observed in the refrigerator oil.
7. The air conditioner which compressor was ex­changed due to a faulty compressor. When the discolored oil, a large quantity of the remains, mixture of foreign matter, or a large quantity of sparkle remained wear-out powder is observed, the cause of trouble will occur.
8. Installation and removal of the air conditioner are repeated with temporary installation by lease and etc.
9. In case that type of the refrigerator oil of the existing air conditioner is other than the following oil (Mineral oil), Suniso, Freol-S, MS (Synthetic oil), alkyl benzene (HAB, Barrel-freeze), ester series, PVE only of ether series.
• Winding-insulation of the compressor may
become inferior.
NOTE)
The above descriptions are results of confirmation by our company and they are views on our air condition­ers, but they do not guarantee the use of the existing pipes of the air conditioner that adopted R410A in other companies.
7-6-3. Branching pipe for simultaneous
operation system
• In the concurrent twin system, when TOSHIBA-
specified branching pipe is used, it can be reused. Branching pipe model name: RBC-TWP30E-2, RBC-TWP50E-2 On the existing air conditioner for simultaneous operation system (twin system), there is a case of using branch pipe that has insufficient compressive strength. In this case please change it to the branch pipe for R410A.
7-6-4. Curing of pipes
When removing and opening the indoor unit or outdoor unit for a long time, cure the pipes as follows:
• Otherwise rust may generate when moisture or
foreign matter due to dewing enters in the pipes.
• The rust cannot be removed by cleaning, and a new
piping work is necessary.
Place position
Outdoors
Indoors
Term
1 month or more
Less than 1 month
Every time
Curing manner
Pinching
Pinching or taping
– 58 –
Page 59
7-6-5. Final Installation Checks
Is there no scratch or dent on the existing pipes?
Is it possible to operate the existing air conditioner?
YES
* After the existing air conditioner operated in cooling mode
for approx. 30 minutes or longer*, recover the refrigerant.
* For cooling the pipes and recovering of oil
Refrigerant recovery: Pump down method
* Remove the existing air conditioner from the piping and
carry out flashing (nitrogen pressure 0.5 Mpa) to remove the remains inside of the pipe.
Note] In case of twin, also be sure to flash the
branching pipe.
Was not largely discolored oil or
a large quantity of remains discharged?
(When the oil deteriorates, the color of the
oil changes to muddy and black color.)
YES
Existing pipe: NO * Use a new pipes.
NO
Nitrogen gas pressure 0.5 Mpa
(If there is discharge of remains, it is judged that there is a large quantity of remains.)
NO
Clean the pipes or use the new pipes.
If you are in trouble of pipe cleaning, please contact us.
n
Connect the indoor/outdoor units to the existing pipe.
Use a flare nut attached to the main unit for the indoor/outdoor units. (Do not use the flare nut of the existing pipe.)
Re-machine the flare machining size to size for R410A.
n
In case that the gas pipe Ø19 mm is used for the outdoor unit of SM803 (3 HP) or higher: (Gas pipe size of our R410A model 3 to 5 HP is Ø15.9 mm)
Turn the existing pipe switch on the cycle control
P.C board of the outdoor unit to ON side. At shipment from factory OFF ON for existing pipe (Refer to the table below.) (Be sure to set the contents in the table below in order to restrict the refrigerating cycle pressure of the equipment in the pipe standard.)
Existing pipe SW
Switch
3 HP
4, 5 HP
Bit 3 of SW801 Bit 5 of SW801
* (Airtight test), Vacuum dry, Refrigerant charge,
Gas leak check
Piping necessary to change the flare nut/ machining size due to pipe compression.
1) Flare nut width: H
H
Copper pipe outer dia.
For R410A
For R22
Ø6.4
17
Same as above
Ø9.5
22
Ø12.7
26
2) Flare machining size: A
Copper pipe outer dia.
A
For R410A
For R22
Becomes large a little for R410A
Do not apply the refrigerator oil to the flare surface.
Ø6.4
9.1
Ø9.5
13.2
Ø12.7
16.6
Ø15.9
29
2724
Ø15.9
19.7
(mm)
Ø19.0
36
Same
as above
(mm)
Ø19.0
24.0
23.319.416.213.09.0
Trial run
– 59 –
Page 60
7-6-6. Recovery method of refrigerant for RAV-SM563AT-E, SM803AT-E
• When recovering refrigerant in case of reinstalla­tion of the indoor or outdoor unit, etc., use the refrigerant recovery switch on the terminal block of the outdoor unit.
Work procedure
1. Turn on the power supply.
2. Using the remote controller, set FAN operation to
the indoor unit.
Existing pipe switch SW801
3. Pushing the refr igerant recovery switch on the
terminal block of the outdoor unit starts the forced cooling operation. (Max. 10 minutes), and then the refrigerant is recovered by operation of
123LN
the valve.
4. After recovery of the refrigerant, push the
refrigerant recovery switch together with closing the valve. The operation stops.
5. Turn off the power supply.
DANGER
Only when the existing gas pipe Ø19 mm is used on RAV-SM803AT-E model, change the setting of SW801 No. 3.
ON
Refrigerant
ON
recovery switch
2 31
Take care for an electric shock because the control P.C. board is electrified.
123
7-6-7. Recovery method of refrigerant for RAV-SM1103AT-E, SM1403AT-E
• When recovering refrigerant in case of reinstalla­tion of the indoor or outdoor unit, etc., use the refrigerant recovery switch SW802 on the cycle control P.C. board of the outdoor unit.
Refrigerant recovery switch SW802
Work procedure
1. Turn on the power supply.
2. Using the remote controller, set FAN operation to
the indoor unit.
3. Pushing the refr igerant recovery switch SW802
SW802
SW801
on the cycle control P.C. board of the outdoor unit starts the forced cooling operation. (Max. 10 minutes), and then the refrigerant is recovered by operation of the valve.
MCC-1531
4. After recovery of the refrigerant, push the
refrigerant recovery switch SW802 together with closing the valve. The operation stops.
5. Turn off the power supply.
Existing pipe switch SW801
3
2
1
L
N
– 60 –
Only when the existing gas pipe Ø19 mm is used on RAV-SM1103AT-E model, change the setting of SW801 No. 5.
ON
12345
6
ON
12345
6
Page 61
8. CONTROL BLOCK DIAGRAM
8-1. Indoor Control Circuit
*1 Connection Interface is attached to
master unit. (In case of group control operation)
*2 Weekly timer is not connectable to
the sub remote controller.
Central control remote controller
(Option)
Indoor unit
#1
Connection Interfase
(Option)
U4
U3
P.C. board
(MCC-1440)
TCC-LINK
communication
circuit
Duct type nothing
Louver
motor
Drain
pump
Separately sold parts
for Ceiling type
DC20V
Main (Sub) master remote controller
Display
LCD
CPU
Display
LED
Remote controller
communication
circuit
Option Option
AB
Function setup
Key switch
DC5V
Power
circuit
CN2
*
CN1
2
LCD
driver
Display
LCD
Weekly timer
Function setup
CPU
DC5V
Power circuit
#2
AB
Key switch
Secondary
battery
#3
AB
Indoor control P.C. board
(MCC-1402)
Remote controller
communication
DC5V
DC12V
circuit
CPU
Driver
EEPROM
TA sensor
TC sensor
TCJ sensor
Float input
Same as
the left
1
*
Same as
the left
Separately sold parts
Outside output
Warning Ready
Thermo. ON
Cool/Heat Fan
Run
for Ceiling type
1
*
Indoor
fan
motor
DC280V
Power circuit
123
123
Outdoor unit
Optional only for 4-way Air Discharge Cassette and Under Ceiling type models
CPU
Fan motor
control
circuit
AC
synchronous
signal input circuit
send/receive
Wireless remote controller kit
Receiver P.C. board
Remote controller
communication circuit
Power
circuit
DC5V
Buzzer
Receive circuit Display LED
CPU
Serial circuit
Temporary
operation SW
Function
setup SW
123
Outdoor
unit
123
Outdoor
unit
– 61 –
Page 62
8-2. Control Specifications
No.
1
When power supply is reset
2
Operation mode selection
Item
Outline of specifications
1) Distinction of outdoor units When the power supply is reset, the outdoors are
distinguished, and control is exchanged according to the distinguished result.
2) Setting of speed of the indoor fan/setting whether to adjust air direction or not. (Only 4-way models)
Based on EEPROM data, speed of the indoor fan or setting whether to adjust air direction or not is selected.
1) Based on the operation mode selecting command from the remote controller, the operation mode is selected.
Remote controller
command
STOP
FAN
COOL
DRY
HEAT
AUTO
Ta (˚C)
+1.5
Tsc
or Tsh
-1.5
COOL
Outline of control
Air conditioner stops. Fan operation Cooling operation Dry operation Heating operation
• COOL/HEAT operation mode is automatically selected by Ta and Ts for operation.
(COOL ON)
(COOL OFF)
HEAT
Remarks
Air speed/ Air direction adjustment
Ta : Room temperature Ts : Setup temperature Tsc : Setup temperature in
cooling operation
Tsh:Setup temperature
+ Room temperature control temperature compensation
1) Judge the selection of COOL/HEAT mode as shown in the figure above.
When 10 minutes passed after thermostat had been turned off, the heating operation (Thermo OFF) is exchanged to cooling operation if Tsh exceeds +1.5 or more.
(COOL OFF) and (COOL ON) in the figure indicate an example.
When 10 minutes passed after thermostat had been turned off, the cooling operation (Thermo OFF) is exchanged to heating operation if Tsc exceeds –1.5 or less.
2) For the automatic capacity control after judgment of COOL/HEAT, refer to item 4.
3) For the temperature correction of room temperature control in automatic heating operation, refer to item 3.
– 62 –
Page 63
No.
3
Item
Room temperature control
Outline of specifications
1) Adjustment range Remote controller setup tem­perature (°C)
COOL/
DRY
Wired type Wireless type
: Only for 4-way air discharge cassette type and
*
Under ceiling type
*
18 to 29 18 to 30
Heating
operation
18 to 29 16 to 30
Auto
operation
18 to 29 17 to 27
Remarks
4
Automatic capacity control (GA control)
5
Air speed selection
2) Using the item code 06, the setup temperature in heating operation can be compensated.
Setup data Setup temp.
compensation
0246
+0°C+2°C+4°C+6°C
Setting at shipment
Setup data 2
1) Based on the difference between Ta and Ts, the operation frequency is instructed to the outdoor unit.
1) Operation with (HH), (H), (L), or [AUTO] mode is performed by the command from the remote control­ler.
2) When the air speed mode [AUT O] is selected, the air speed varies by the diff erence between Ta and Ts.
<COOL>
Ta (˚C) +3.0
+2.5 +2.0 +1.5 +1.0
+0.5
Tsc
-0.5
HH (HH)
H (HH) H (HH)
L(H) L(H)
L(H) L(L)
A B C
D
E
F
G
Shift of suction tempera­ture in heating operation
HH > H > L > LL
• Controlling operation in case when thermo of remote
controller works is same as a case when thermo of the body works.
• If the air speed has been changed once, it is not
changed for 3 minutes. However when the air volume is exchanged, the air speed changes.
• When cooling operation has started, the air speed
selects a downward slope, that is, the high position.
• If the temperature is just on the difference boundary,
the air speed does not change.
• Mode in the parentheses indicates one in automatic
cooling operation.
– 63 –
Page 64
No.
5
Item
Air speed selection (Continued)
Outline of specifications
<HEAT>
Ta (˚C)
L(L)
(-0.5)
(0)
(+0.5)
–1.0
Tsh
+1.0
L(H) H(H)
H
E
D
(HH)
(+1.0) (+1.5)
(+2.0)
+2.0 +3.0
+4.0
HH
(HH)
C
B A
Value in the parentheses indicates one when thermostat of the remote controller works.
Value without parentheses indicates one when thermostat of the body works.
• If the air speed has been changed once, it is not changed for 1 minute. However when the air speed is exchanged, the air speed changes.
• When heating operation has started, the air speed selects a upward slope, that is, the high position.
• If the temperature is just on the difference boundary, the air speed does not change.
• Mode in the parentheses indicates one in automatic heating operation.
• In Tc 60°C, the air speed increases by 1 step.
• In heating operation, the mode changes to [LL] if thermo­stat is turned off.
• If Ta 25°C when heating operation has started and when defrost operation has been cleared, it operates with HIGH (H) mode or (HH) for 1 minute from when Tc has entered in E zone of cool air discharge preventive control (Item 6).
• In automatic cooling/heating operation, the revolution frequency of [HH] is set larger than that in the standard cooling/heating operation. However the revolution fre­quency is restricted in the automatic heating operation as shown in the following figure.
Remarks
Tc: Indoor heat exchanger sensor temperature
[PRE-HEAT] display
Tc (˚C)
47
42
F5 F4
F5
6
Cool air discharge preventive control
1) In heating operation, the indoor fan is controlled based
on the detected temperature of Tc sensor or Tcj sensor. As shown below, the upper limit of the revolution fre­quency is determined.
Tc
(˚C)
Tcj
32 30 28 26
20 16
HH
H
UL
OFF
L
E zone D zone
C zone B zone
A zone
– 64 –
Page 65
No.
7
Item
Freeze preventive control (Low temperature release)
Outline of specifications
1) The cooling operation (including Dry operation) is performed as follows based on the detected tempera­ture of Tc sensor or Tcj sensor.
When [J] zone is detected for 6 minutes (Following figure), the commanded frequency is decreased from the real operation frequency. After then the com­manded frequency changes every 30 seconds while operation is performed in [J] zone.
In [K] zone, time counting is interrupted and the operation is held.
When [I] zone is detected, the timer is cleared and the operation returns to the normal operation.
If the commanded frequency becomes S0 because the operation continues in [J] zone, the return temperature A is raised from 5°C to 12°C until [I] zone is detected and the indoor fan operates with [M] mode.
(˚C)
5
I
A
K
Remarks
Tcj :Indoor heat ex-
changer sensor temperature
8
High-temp release control
2
J
In heating operation, the freeze-preventive control works if 4-way valve is not exchanged and the condi­tion is satisfied. (However the temperature for J zone dashing control is changed from 2°C to –5°C.)
1) The heating operation is performed as follows based on the detected temperature of Tc sensor or Tcj sensor.
• When [M] zone is detected, the commanded fre-
quency is decreased from the real operation fre­quency. After then the commanded frequency changes every 30 seconds while operation is per­formed in [M] zone.
• In [N] zone, the commanded frequency is held.
• When [L] zone is detected, the commanded fre-
quency is returned to the original value by approx. 6Hz every 60 seconds.
Setup at shipment
Control temp (°C)
AB
56 (54) 52 (52)
Tcj
(˚C)Tc
A
B
L
M N
NOTE :
When the operation has started or when Tc or Tcj became lower than 30°C after start of the operation, temperature is controlled between values in parentheses of A and B.
– 65 –
Same when thermostat is turned off.
Page 66
No.
9
Drain pump control
10
After-heat elimination
11
Louver control (For 4-way air
discharge cassette type only)
Item
Outline of specifications
1) In cooling operation (including Dry operation), the drain pump is usually operated.
2) If the float switch operates while drain pump operates, the compressor stops, the drain pump continues the operation, and a check code is output.
3) If the float switch operates while drain pump stops, the compressor stops and the drain pump oper­ates. If the float switch keeps operating for approx. 4 minutes, a check code is output.
When heating operation stops, the indoor fan oper­ates with LOW mode for approx. 30 seconds.
1) Louver position setup
• When the louver position is changed, the
position moves necessarily to downward dis­charge position once to return to the set posi­tion.
• The louver position can be set up in the follow-
ing operation range.
In cooling/dry operation In heating/fan operation
Remarks
Check code [P10]
• In group twin/triple operation, the louver posi-
tions can be set up collectively or individually.
2) Swing setup
• The swinging position can be moved in the
following operation range.
All modes
• In group twin/triple operation, the swinging
positions can be set up collectively or individu­ally.
3) When the unit stops or when a warning is output, the louver automatically moves downward.
4) While the heating operation is ready, the louver automatically moves upward.
W arning :
A check code is displayed on the remote controller, and the indoor unit stops. (Excluding [F08] and [L31])
– 66 –
Page 67
No.
12
Frequency fixed operation (Test run)
Item
Outline of specifications
<In case of wired remote controller>
1. When pushing [CHECK] button for 4 seconds or more, [TEST] is displayed on the display screen and the mode enters in Test run mode.
2. Push [ON/OFF] button.
3. Using [MODE] button, change the mode from [COOL] to [HEAT].
• Do not use other mode than [COOL]/[HEAT] mode.
• During test run operation, the temperature cannot be
adjusted.
• An error is detected as usual.
• A frequency fixed operation is performed.
4. After the test r un, push [ON/OFF] button to stop the operation. (Display in the display part is same as the procedure in item 1).)
5. Push [CHECK] button to clear the test run mode. ([TEST] display in the display part disappears and the status returns to the normal stop status.)
<In case of wireless remote controller> (Option for 4-way air discharge cassette type only)
1. Turn off the power of the set. Remove the adjuster with sensors from the ceiling
panel.
2. Turn Bit [1: TEST] of sensor P.C. board switch [S003] from OFF to ON.
Attach the sensor P.C. board cover and mount the adjuster with sensors to the ceiling panel.
Turn on the power of the set.
3. Push [ON/OFF] button of the wireless remote control­ler and set the operation mode to [COOL] or [HEAT] using [MODE] button. (During test run operation, all the display lamps of wireless remote controller sensors flash.)
• Do not use other mode than [COOL]/[HEAT] mode.
• An error is detected as usual.
• A frequency fixed operation is performed.
4. After the test r un, push [ON/OFF] button to stop the operation.
5. Turn off the power of the set. Turn Bit [1: TEST] of sensor P.C. board switch [S003]
from ON to OFF. Mount the adjuster with sensors to the ceiling panel.
Remarks
13
Filter sign display (Except wireless type)
1) The operation time of the indoor fan is calculated, the filter reset signal is sent to the remote controller when the specified time (2500H) has passed, and it is displayed on LCD.
2) When the filter reset signal has been received from the remote controller, time of the calculation timer is cleared. In this case, the measurement time is reset if the specified time has passed, and display on LCD disappears.
– 67 –
[FILTER] goes on.
Page 68
No.
14
Central control mode selection
15
Energy-save control (By connected outdoor unit)
Item
Outline of specifications
1) Setting at the central controller side enables to select the contents which can be operated on the remote controller at indoor unit side.
2) RBC-AMT31E
[Last push priority] :
The operation contents can be selected from both remote controller and central controller of the indoor unit side, and the operation is performed with the contents selected at the last.
[Center] :
Start/Stop operation only can be handled on the remote controller at indoor unit side.
[Operation Prohibited] :
It cannot be operated on the remote controller at indoor unit side. (Stop status is held.)
1) Selecting [AUTO] mode enables an energy-saving to be operated.
2) The setup temperature is shifted (corrected) in the range not to lose the comfort ability according to input values of various sensors.
3) Data (Input value room temp. Ta, Outside temp. To, Air volume, Indoor heat exchanger sensor temp. Tc) for 20 minutes are taken the average to calculate correction value of the setup temperature.
4) The setup temperature is shifted every 20 minutes, and the shifted range is as follows. In cooling time : +1.5 to –1.0K In heating time : –1.5 to +1.0K
Remarks
(No display)
[CENTER] goes on.
[CENTER] goes on.
In a case of wireless type, the display lamp does not change. However, contents which can be operated are same. The status set in [CENTER]/ [Operation Prohibited] mode is notified with the receiving sound “Pi, Pi, Pi, Pi, Pi” (5 times).
16
Louver control
1) Louver position
2) Air direction adjustment (Swing operation)
The louver angle is displayed setting 0° as “Full close”.
Full close
1) In the initial operation after power-ON, the position is automatically controlled according to the operating status (COOL/HEAT).
Cooling Heating
45˚ 103˚
0˚
2) After then a louver position is stored in the microcomputer every time when position is operated on the remote controller, and the louver operates at the position stored in memory in the next operation and after.
* If the operation mode has been changed from COOL to HEAT, from HEAT to
COOL, or the power has turned off, the stored louver position is cleared and the status returns to one in item 1).
1) When pushing [LOUVER] button during operation, the louver starts swinging.
2) When the louver has arrived at the desired position, push [LOUVER] again. The louver stops at that position.
– 68 –
Page 69
No.
17
Max. frequency cut control
Item
Outline of specifications
1) This control is operated by selecting [AUTO] operation mode.
2) COOL operation mode: the frequency is controlled according to the following figure if To < 28°C.
Remarks
18
DC motor
Ta(˚C)
Normal control
+4 +3
Max. frequency is restricted to approximately the rated cooling frequency
Tsc
3) HEAT operation mode: the frequency is controlled according to the following figure if To > 15°C. It cannot be operated on the remote controller at indoor unit side. (Stop status is held.)
Ta(˚C)
Tsh
34
Normal control
Max. frequency is restricted to approximately the rated heating frequency
1) When the fan operation has started, positioning of the stator and the rotor are performed. (Moves slightly with tap sound)
2) The motor operates according to the command from the indoor controller.
NOTES :
• When the fan rotates while the air conditioner stops due to entering of outside air, etc, the air conditioner may oper­ated while the fan motor stops.
• When a fan locking is found, the air conditioner stops, and an error is displayed.
Check code [P12]
– 69 –
Page 70
8-3. Indoor Print Circuit Board
8-3-1. 4-W ay Air Discharge Cassette Type / Concealed Duct Type / Under Ceiling Type
<MCC-1402>
Microcomputer operation LED
DC fan output
Filter/Option error input EEPROM Connection interface
Indoor/Outdoor inter-unit cable
Optional power supply
– 70 –
Remote controller power supply LED
DC fan return
*1
Drain pump output
Float SW
Fan output
Optional output TC sensor
Louver (Used only for 4-way Air Discharge Cassette Type,Under ceiling type)
TCJ sensor
DISP
CHK
EXCT
Used for servicing
HA (T10)
TA sensor Remote controller inter-unit cable
Page 71
9. CIRCUIT CONFIGURATION AND CONTROL SPECIFICATIONS
9-1. Indoor Control Circuit
9-1-1. Indoor P.C. Board Optional Connector Specifications
Revised : Mar. 2007
Function
Option output
Outside error input
Filter option error
CHK Operation check
DISP display mode
EXCT demand
Connector
No.
CN60
CN80
CN70
CN71
CN72
CN73
Pin No.
1 2 3 4
5
6
1 2 3 1
2
1 2 1 2 1
Specifications
DC12V (COM) Defrost output Thermo. ON output Cooling output
Heating output
Fan output
DC12V (COM) DC12V (COM) Outside error input Filter/Option/Humidifier
setup input 0V
Check mode input 0V Display mode input 0V Demand input
Remarks
ON during defrost operation of outdoor unit ON during Real thermo-ON (Comp ON) ON when operation mode is in cooling system
(COOL, DRY, COOL in AUTO cooling/heating) ON when operation mode is in heating system
(HEAT, HEAT in AUTO cooling/heating) ON during indoor fan ON
(Air purifier is used/Interlock cable) (When continued for 1 minute)
Check code “L30” is output and forced operation stops.
Option error input is controlled. (Protective operation for device attached to outside is displayed.)
* Setting of option error input is performed from remote
controller. (DN=2A)
Used for operation check of indoor unit. (Communication with outdoor unit or remote controller is not performed, but the specified operation such as indoor fan “H” or drain pump ON is output.)
Display mode enables indoor unit and remote controller to communicate. (When power is turned on)
2
0V
9-2. Outdoor Controls
9-2-1. Print Circuit Board P.C. Board Comparison Table for Digital Inverter
P.C. board
Main MCC-5009 Sub MCC-1530
CDB MCC-1531
IPDU MCC-1438
1: Applied
Part No.
563AT -E/803AT-E 1103AT-E/1403AT-E
4316V284 4316V293 4316V283 4316V282 4316V291 4316V278
Model name RAV -SM
1 1
Forced thermo-OFF operation in indoor unit
Model name RAV -SP
562AT -E/802AT-E 1102AT-E/1402AT-E
1
11
1
1
1
– 71 –
Page 72
<V iewed from parts of P.C board>
RAV -SM563AT-E, RAV -SM803AT-E
<MCC-5009>
F01, 02, 25A fuse P.C. board earth lead
L-phase power supply lead (Black)
N-phase power supply lead (White)
Serial lead (Orange) Reactor lead connector
(White) CN701:
– 72 –
4-way valve connector RY701:
4-way valve relay CN300:
Fan motor connector CN602:
Outdoor temperature (TO) sensor connector
CN806: Optional connector
(Black)
C12, 13, 14
C12, 13, 14
electrolytic capacitor
electrolytic capacitor
12V12V
GNDGND
DB02: High power factor diode
Q404: High power factor circuit IGBT
5V5V
F03: 3.15A fuse
F03: 3.15A fuse
DB01:
DB01: Single-phase rectifier diode
Single-phase rectifier diode
Comp. lead (Red) (White) (Black)
CN600: Heat exchange temperature (TE) sensor connector
CN603: Suction temperature (TS) sensor connector
CN601: Discharge temperature (TD) sensor connector
CN700: PMV connector
CN500: Case thermo connector
CN605: Sub SW board connector
Fan drive circuit Q300 to Q305: FET (QTY: 6P)
IC800: MCU
IC800: MCU
J800 to 803, 806 Model switch jumper line
Revised : Mar. 2007
Comp. drive circuit Q200 to Q205: IGBT (QTY: 6P) IC200: Drive IG (QTY: 1P)
Page 73
RAV -SM1103AT-E, RAV -SM1403AT-E / RAV -SP562AT-E, RAV -SP802AT-E
<MCC-1531>
Refrigerant recovery Switch SW802
Dip switch
EEPROM-IC IC801
Serial signal (To terminal block) CN02
AC input (To MCC-1438) CN01
SW801 P.M.V. CN702
– 73 –
4-way valve CN700
Model selection jumpers (Available only service P.C. board) J800 to J803
Case thermo. switch CN500
Communication signal (To MCC-1438) CN800
TD sensor CN600
TO sensor CN601
TE sensor CN604
TS sensor CN605
Optional connector CN804
Fan motor revolution CN300
DC15V input (To MCC-1438) CN04
DC320V input (To MCC-1438) CN03
Fan motor output CN301
Revised : Mar. 2007
Page 74
Serial signal (To terminal block) CN02
AC input (To MCC-1438) CN01
Model selection jumpers Refrigerant recovery Switch SW802
EEPROM-IC IC801 P.M.V. CN702
Dip switch for service SW801
(Available only service P.C. board)
J800 to J803
Case thermo. switch CN500
Communication signal (To MCC-1438) CN800
TD sensor CN600
TO sensor CN601
TE sensor CN604
TS sensor CN605
RAV -SP1102AT-E, RAV -SP1402AT-E
<MCC-1531>
– 74 –
4-way valve CN700
Fan motor 2 (Lower) revolution CN302
Fan motor 2 (Lower) output CN303
DC15V input (To MCC-1438) CN04
Not use CN804
Fan motor 1 (Upper) revolution CN300
Fan motor 1 (Upper) output CN301
DC320V input (To MCC-1438) CN03
Page 75
RAV -SM1103AT-E, RAV -SM1403AT-E /
RAV -SP562AT-E, RAV -SP802AT-E, RAV -SP1102A T-E, RAV -SP1402AT-E
<IPDU : MCC-1438>
Reactor connector DC15V output
IGBT (Compressor drive device)
Compressor output
– 75 –
CN09, CN10, CN11
Rectifier
(To MCC-1531) CN05
Communication signal (To MCC-1531) CN06
AC output (To MCC-1531) CN13
TH sensor CN600
Earth ground CN03
DC320V output (To MCC-1531) CN04
Mains (Neutral) input CN02
Mains (Live) input CN01
Rectifier connectors P29 (Red), P28 (Black), P21 (Orange), P24 (Brown)
Revised : Mar. 2007
Reactor Connector Capacitor
Page 76
9-2-2. Outline of Main Controls
1. Pulse Modulating V alve (PMV ) control
1) For PMV with 50 to 500 pulses during operation, respectively.
2) In cooling operation, PMV is controlled with the temperature difference between TS sensor and TC sensor.
3) In heating operation, PMV is controlled with the temperature difference between TS sensor and TE sensor.
4) For the temperature difference in items 2) and 3), 1 to 5K is aimed as the target in both cooling and heating operations.
5) When the cycle excessively rose in both cooling and heating operations, PMV is controlled by TD sensor. The aimed value is usually 103°C for SM56, SM80 and 100°C for SM110, SM140 in both cooling and heating operations.
REQUIREMENT
A sensor trouble may cause a liquid back-flow or abnormal overheat resulting in excessive shortening of the compressor life. In a case of trouble on the compressor, be sure to check there is no error in the resistance value an the refrigerating cycle of each sensor after repair and then start the operation.
2. Discharge temperature release control
1) This function controls the operation frequency, that is, lowers the operation frequency when the discharge temperature has not lower or the discharge temperature has rapidly risen during PMV control. It subdivides the frequency control up to a unit of 0.6 Hz to stabilize the cycle.
2) When the discharge temperature is detected in an abnormal stop zone, the unit stops the compres­sor and restarts after 2 minutes 30 seconds. The error counter is cleared when it has continued the operation for 10 minutes. If the abnormal stop zone has been detected by 4 times without clearing of counter, an error “P03” is displayed.
* The cause is considered as excessively little
amount of refrigerant, defective PMV, or clogging of cycle.
[°C]
TD [˚C]
Error stop ("P03" display with 4 times of error counts)
a
Frequency down
b
c
Frequency holding
d
Frequency slow-up (Up to command)
e
As command is
abcde
SM56, SM80
SM110, SM140
117 107 103 100 93 111 106 100 95 90
3. Current release control
The output frequency and the output voltage are controlled by AC current value detected by T02 on the outdoor P.C. board so that input current of the inverter does not exceed the specified value.
Objective model
I1 value [A]
SM56 SM80 SM110 SM140
COOL HEAT COOL HEAT COOL HEAT COOL HEAT
10.1 12.0 12.2 14.0 18.9 19.7 19.7 19.7
– 76 –
Current [A]
I1
I1–0.5
Frequency down
Hold
Hold
Normal operation
Page 77
4. Outdoor fan control
W1 W2 W3 W4 W5 W6 W7 W8 W9 WA WB WC WD WE WF
Allocations of fan tap revolutions [rpm]
SM56
SM80 SM110 SM140
200 300 350 410 480 500 530 560 640 670 700 750 800 840 840 200 300 350 410 480 500 530 560 640 670 700 750 840 940 980 250 280 320 360 410 460 520 580 640 700 760 860 860 900 930 250 280 320 360 410 460 520 580 640 700 760 860 860 900 970
1) Cooling fan control The outdoor fan is controlled by TE, TD, and TO sensors and also revolution frequency of the opera-
Q
tion. The outdoor is controlled by every 1 tap of DC fan control (15 taps). Only during 60 seconds after the operation has started, the fan is fixed with the maximum fan tap
R
which corresponds to the zone in the following table. After then the fan is controlled by TE sensor temperature.
Considering a case that TE sensor has come out of the holder, the fan is controlled so that revolution
S
frequency of the fan increases regardless of TE if temperature of TD sensor has risen.
ab
SM56, SM80
SM110, SM110
36 32 29 26
Operation with WE
TE [˚C]
+1 tap/20 seconds
a
rpm hold
b
–1 tap/20 seconds
(The operation frequency differs according to the model type.)
Temp. range
<
29°C
<
TO < 29°C
15
<
TO < 15°C
5
TO
Below 30Hz Above 30 Hz below 45 Hz Above 45 Hz
Min. Max. Min. Max. Min. Max.
W5 WA W7 WC W9 WF W3 W7 W5 W9 W7 WB W2 W5 W4 W7 W6 W9
TD [˚C]
85
80
75
65
Operation with
maximum tap in
each zone
Usual fan control
<
TO < 5°C
0
TO < 0°C
TO error
W1 W3 W3 W5 W4 W7 W1 W2 W2 W4 W3 W5 W1 WF W1 WF W1 WF
– 77 –
Page 78
2) Heating fan control
2 tap/20 seconds1 tap/20 seconds
rpm hold
+1 tap/20 seconds
–2 tap/20 seconds
STOP timer count
24 21 18 15
TE [˚C]
The outdoor fan is controlled by TE sensor, TO sensor and the operation frequency.
Q
(From Min. W1 to Max. are controlled according to the following table.) During 3 minutes after start-up, the fan is fixed
R
with the maximum fan tap corresponding to zone in the following table. After then the fan is controlled by temperature of TE sensor.
If status, TE > 24°C continues for 5 minutes, the
S
operation stops. This status is same to the usual Thermo-OFF which has no alarm display, and the fan restarts after 2 minutes and 30 seconds. This intermittent operation is not abnormal.
When the above status R occurs frequently, it
T
is considered that the filter of suction part of the indoor unit is stain. Clean the filter and then restart the operation.
(The operation frequency differs according to the model type. The case of SM110 is shown in the table below.)
Maximum
Temp. range
<
TO
10°C <
TO < 10°C
5
TO < 5°C
TO error
Below 33 Hz
W7 WA WF WF
Above 33 Hz below 51 Hz
W8
WB
WF WF
Above 51 Hz
W9 WF WF WF
5. Coil heating control
1) This control function heats the compressor by turning on the stopped compressor instead of a case
heater. It purposes to prevent slackness of the refrigerant inside of the compressor.
2) As usual, turn on power of the compressor for the specified time before a test run after installation,
otherwise a trouble of the compressor may be caused. As same as a test run, it is recommended to turn on power of the compressor beforehand when starting operation after power of the compressor has been interrupted for a long time.
3) A judgment for electricity is performed by TD and TO sensors. If TO sensor is defective, a backup control
is automatically performed by TE sensor. For a case of defective TO sensor, judge it with the outdoor LED display.
4) Coil heating is controlled by TD and TE sensor.
5) For every model, the power is turned off when TD is 30°C or more.
(In trouble of TE sensor)
TO [˚C] TE [˚C]
20 18 12 10
No power-ON
Continuous ON (L)
Continuous ON (M)
Power-ON condition TD < 30˚C
18 15 10
No power-ON
Continuous ON (L)
8
Continuous ON (M)
* TD sensor is read in once per 15 minutes * TO sensor is read in once per 15 minutes.
TE [˚C]
0
167
(Object: SM56, SM80)
No power-ON
Continuous ON (L)
Continuous ON (H)
– 78 –
SM110, SM140
L
M
L
H
20W and equivalent 40W and equivalent
SM56, SM80
10W and equivalent 30W and equivalent
Page 79
6. Defrost control
A z
one
B z
one
C z
one
D z
one
In heating operation, defrost operation is performed when TE sensor temperature satisfies any condition
Q
in A zone to D zone. The defrost operation is immediately finished if TE sensor temperature has become 12°C or more, or it
R
also is finished when condition of 7°C < TE < 12°C has continued for 1 minute. The defrost operation is also finished when defrost operation has continued for 10 minutes even if TE sensor temperature has become 7°C or lower.
After defrost operation has finished, the compressor and the outdoor fan start heating operation after
S
stopped for approx. 50 seconds.
Start of heating operation
0 10 15 c b a d [min.]
TE [ºC]
–4 (–5)
A z
one
6 (10)
10 (13)25 (18)
B zone
B z
one
C zone
C z
*
one
A zone
D zone
D z
one
Numerals enclosed with parentheses represent numeral values of SM110 and SM140.
* The minimum TE value between 10 and 15 minutes after heating operation has started is stored in memory as TE0.
>
A zone B zone C zone D zone
a b c d T
Defrost operation is performed in this zone when TE0-TE Defrost operation is performed in this zone when TE0-TE Defrost operation is performed when this zone continued for T seconds. Defrost operation is performed when this zone continued for T seconds.
SM56, SM80 SM110, SM140
35 50 29 35 29 30 90 90 20 20
3 continued for T seconds.
>
3 continued for T seconds.
– 79 –
Page 80
10. TROUBLESHOOTING
10-1. Summary of Troubleshooting
<W ired remote controller type>
1. Before troubleshooting
1) Required tools/instruments
• + and – screwdrivers, spanners, radio cutting pliers, nippers, push pins for reset switch
• Tester, thermometer, pressure gauge, etc.
2) Confirmation points before check
a) The following operations are normal.
1. Compressor does not operate.
• Is not 3-minutes delay (3 minutes after compressor OFF)?
• Does not thermostat turn off?
• Does not timer operate during fan operation?
• Is not outside high-temperature operation controlled in heating operation?
2. Indoor fan does not rotate.
• Does not cool air discharge preventive control work in heating operation?
3. Outdoor fan does not rotate or air volume changes.
• Does not high-temperature release operation control work in heating operation?
• Does not outside low-temperature operation control work in cooling operation?
• Is not defrost operation performed?
4. ON/OFF operation cannot be performed from remote controller.
• Is not the control operation performed from outside/remote side?
• Is not automatic address being set up? (When the power is turned on at the first time or when indoor unit address setting is changed, the operation cannot be performed for maximum approx. 5 minutes after power-ON.)
b) Did you return the cabling to the initial positions? c) Are connecting cables of indoor unit and remote controller correct?
2. Troubleshooting procedure
When a trouble occurred, check the parts along with the following procedure.
Trouble Confirmation of check code display Check defective position and parts.
NOTE :
For cause of a trouble, power conditions or malfunction/erroneous diagnosis of microcomputer due to outer noise is considered except the items to be checked. If there is any noise source, change the cables of the remote controller to shield cables.
→→
– 80 –
Page 81
<W ireless remote controller type> (For 4-way air discharge cassette type only models)
1. Before troubleshooting
1) Required tools/instruments
+
and – screwdrivers, spanners, radio cutting pliers, nippers, etc.
• Tester, thermometer, pressure gauge, etc.
2) Confirmation points before check a) The following operations are normal.
1. Compressor does not operate.
• Is not 3-minutes delay (3 minutes after compressor OFF)?
• Does not thermostat turn off?
• Does not timer operate during fan operation?
• Is not outside high-temperature operation controlled in heating operation?
2. Indoor fan does not rotate.
• Does not cool air discharge preventive control work in heating operation?
3) Outdoor fan does not rotate or air volume changes.
• Does not high-temperature release operation control work in heating operation?
• Does not outside low-temperature operation control work in cooling operation?
• Is not defrost operation performed?
4) ON/OFF operation cannot be performed from remote controller.
• Is not forced operation performed?
• Is not the control operation performed from outside/remote side?
• Is not automatic address being set up? a) Did you return the cabling to the initial positions? b) Are connecting cables between indoor unit and receiving unit correct?
2. Troubleshooting procedure
(When the power is turned on at the first time or when indoor unit address setting is changed, the operation cannot be performed for maximum approx. 5 minutes after power-ON.)
When a trouble occurred, check the parts along with the following procedure .
Confirmation of lamp display
Trouble
1) Outline of judgment The primary judgment to check where a trouble occurred in indoor unit or outdoor unit is performed with
the following method.
Method to judge the erroneous position by flashing indication on the display part of indoor unit (sensors of the receiving unit)
The indoor unit monitors operating status of the air conditioner, and the blocked contents of self-diagnosis are displayed restricted to the f ollowing cases if a protective circuit works.
→→
(When 4-way air discharge cassette type wireless remote controller is connected)
Check defective position and parts.
– 81 –
Page 82
10-2. Check Code List
– 82 –
Wireless sensor
lamp display
Operation
Timer Ready
¥
ll
ll
¥
¥
¥
¥¥
¥¥
ll
ll
ll
¥
l l
¥¥¡
¥¥¡
¥¥¡
¥¥
¥¥
¥
l
l
¥
¥
¥
l l
ll
¥
l
¥
l
¥
l
¥
l
¥
l
Wired remote
controller
Check code
E03
E04
E08
E10
E18
F01
F02
F04
F06
F08
F10
F29
H01
H02
H03
L03
L07
L08
Error mode detected by indoor and outdoor units
Diagnostic function
Cause of operation
No communication from remote controller (including wireless) and communication adapters
The serial signal is not output from outdoor unit to indoor unit.
• Miscabling of inter-unit cables
• Defective serial sensing circuit on outdoor P.C. board
• Defective serial receiving circuit on indoor P.C. board
Duplicated indoor unit addresses
Communication error between indoor MCU
• Communication error between fan driving MCU and main MCU
Regular communication error between master and sub indoor units or between main and sub indoor units
Coming-off, disconnection or short of indoor heat exchanger sensor (TCJ)
Coming-off, disconnection or short of indoor heat exchanger sensor (TC)
Coming-off, disconnection or short of outdoor temperature sensor (TD)
Coming-off, disconnection or short of outdoor temperature sensor (TE/TS)
Coming-off, disconnection or short of outdoor temperature sensor (TO)
Coming-off, disconnection or short of indoor heat exchanger sensor (TA)
Indoor EEPROM error
• EEPROM access error
Breakdown of compressor
• Displayed when error is detected
Compressor does not rotate.
• Over-current protective circuit operates after specified time passed when compressor had been activated.
Current detection circuit error
• Current value at AC side is high even during compressor-OFF.
• Phase of power supply is missed.
Duplicated indoor master units
There is group line in individual indoor units.
Unsetting of indoor group address
Status of air
conditioner
Stop
(Automatic reset)
S top
(Automatic reset)
Stop
Stop
(Automatic reset)
Stop
(Automatic reset)
Stop
(Automatic reset)
Stop
(Automatic reset)
Stop
Stop
Operation
continues.
Stop
(Automatic reset)
Stop
(Automatic reset)
Stop
Stop
Stop
Stop
Stop
Stop
Condition
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
: Flash, ¡: Go on, l: Go off
¥
Judgment and measures
1. Check cables of remote controller and communication adapters.
• Handy remote controller LCD display OFF (Disconnection)
• Central remote controller [97] check code
1. Outdoor unit does not completely operate.
• Inter-unit cable check, correction of miscabling, case thermo operation
• Outdoor P.C. board check, P.C. board cables check
2. In normal operation P.C. board (Indoor receiving/Outdoor sending) check
1. Check whether there is modification of remote controller connection (Group/ Individual) or not after power has been turned on (finish of group configuration/ address check). * If group configuration and address are not normal when the power has been turned
on, the mode automatically shifts to address setup mode. (Resetting of address)
1. Check cables of remote controller.
2. Check power cables of indoor unit.
3. Check indoor P.C. board.
1. Check cables of remote controller.
2. Check indoor power cable.
3. Check indoor P.C. board.
1. Check indoor heat exchanger temperature sensor (TCJ).
2. Check indoor P.C. board.
1. Check indoor heat exchanger temperature sensor (TC).
2. Check indoor P.C. board.
1. Check outdoor temperature sensor (TD).
2. Check outdoor CDB P.C. board.
1. Check outdoor temperature sensor (TE/TS).
2. Check outdoor CDB P.C. board.
1. Check outdoor temperature sensor (TO).
2. Check outdoor CDB P.C. board.
1. Check indoor heat exchanger temperature sensor (TA).
2. Check indoor P.C. board.
1. Check indoor EEPROM. (including socket insertion)
2. Check indoor P.C. board.
1. Check power voltage. AC230V ±20V
2. Overload operation of refrigerating cycle
3. Check current detection circuit at AC side.
1. Trouble of compressor (Compressor lock, etc.) : Replace compressor.
2. Defective cabling of compressor (Phase missing)
3. Phase-missing operation of power supply (3-phase model)
1. Compressor immediately stops even if restarted. : Check IPDU.
2. Phase-missing operation of power supply Check 3-phase power voltage and cables.
1. Check whether there is modification of remote controller connection (Group/ Individual) or not after power has been turned on (finish of group configuration/ address check). * If group configuration and address are not normal when the power has been turned
on, the mode automatically shifts to address setup mode. (Resetting of address)
Page 83
: Flash, ¡: Go on, l: Go off
¥
Wireless sensor
lamp display
Operation
¥
l
Timer Ready
l
¥
¥¡¥
¥¡¥
No check code is displayed.
¥
¥
– 83 –
l
l
¥
¥
¥
¥
¥
For an error mode detected in outdoor unit, the fan operates because sub unit of a group operation does not communicate with the outdoor unit.
l
l
¥¥
¥¥
l
l
l l l
¥
l
¥
¥
¥
¥
¥
¥
¥
Wired remote
controller
Check code
L09
L29
L30
L31
P03
P04
P10
P12
P19
P22
P26
P29
P31
Cause of operation
Unset indoor capacity
Outdoor unit and other errors
• Communication error between CDB and IPDU (Coming-off of connector)
• Heat sink temperature error (Detection of temperature over specified value)
Abnormal outside interlock input
Phase detection protective circuit operates. (Normal models)
Fan motor thermal protection
Discharge temperature error
• Discharge temperature over specified value was detected.
High-pressure protection error by TE sensor (Temperature over specified value was detected.)
Float switch operation
• Disconnection, coming-off, defective float switch contactor of float circuit
Indoor DC fan error
Error in 4-way valve system
• Indoor heat exchanger temperature lowered after start of heating operation.
Outdoor DC fan error
Inverter over-current protective circuit operates. (For a short time) Short voltage of main circuit operates.
IPDU position detection circuit error
Own unit stops while warning is output to other indoor units.
Diagnostic function
Status of air
conditioner
Stop
Stop
Stop
Operation continues. (Compressor stops.)
Stop
Stop
Stop
Stop
Stop
Stop
(Automatic reset)
Stop
Stop
Stop
Stop (Sub unit)
(Automatic reset)
Condition
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Judgment and measures
1. Set the indoor capacity. (DN=I1)
1. Check cables of CDB and IPDU.
2. Abnormal overload operation of refrigerating cycle
1. Check outside devices.
2. Check indoor P.C. board.
1. Check power phase order (Reversed phase)/phase missing.
2. Check outdoor P.C. board.
1. Check thermal relay of fan motor.
2. Check indoor P.C. board.
1. Check refrigerating cycle. (Gas leak)
2. Trouble of PMV
3. Check Td sensor.
1. Overload operation of refrigerating cycle
2. Check outdoor temperature sensor (TE).
3. Check outdoor CDB P.C. board.
1. Defect of drain pump
2. Clogging of drain pump
3. Check float switch.
4. Check indoor P.C. board.
1. Defective detection of position
2. Over-current protective circuit of indoor fan driving unit operates.
3. Lock of indoor fan
4. Check indoor P.C. board.
1. Check 4-way valve.
2. Check indoor heat exchanger (TC/TCJ) sensor.
3. Check indoor P.C. board.
1. Defective detection of position
2. Over-current protective circuit of outdoor fan driving unit operates.
3. Lock of outdoor fan
4. Check outdoor CDB P.C. board.
1. Inverter immediately stops even if restarted. : Compressor motor rare short
2. Check IPDU. : Cabling error
1. Position detection circuit operates even if operating compressor by removing 3P connector. : Replace IPDU.
1. Judge sub unit while master unit is in [E03], [L03], [L07], [L08].
2. Check indoor P.C. board.
Page 84
Error mode detected by remote controller
Wireless sensor
lamp display
Operation
Timer Ready
———
¥
¥
¥
ll
ll
ll
¥¡¥
– 84 –
Wired remote controller
Check code
No check code is displayed. (Remote controller does not operate.)
E01*2
E02
E09
L20
Cause of operation
No communication with master indoor unit
• Remote controller cable is not correctly connected.
• Power of indoor unit is not turned on.
• Automatic address cannot be completed.
No communication with indoor master unit
• Disconnection of inter-unit cable between remote controller and master indoor unit (Detected at remote controller side)
Signal sending error to indoor unit (Detected at remote controller side)
Multiple master remote controllers are recognized. (Detected at remote controller side)
Duplicated indoor central addresses on communication of central control system (Detected by central controller side)
Diagnostic function
* When there is center,
operation continues
* When there is center,
operation continues.
(Sub unit continues operation.)
Status of
air conditioner
Stop
Stop
(Automatic restart)
Stop
(Automatic restart)
Stop
Stop
(Automatic restart)
Condition
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
Judgment and measures
Remote controller power error, Defective indoor EEPROM
1. Check remote controller inter-unit cables.
2. Check remote controller.
3. Check indoor power cables.
4. Check indoor P.C. board.
5. Check indoor EEPROM. (including socket insertion) : Phenomenon of automatic address repetition occurred.
Signal receiving of remote controller is defective.
1. Check remote controller inter-unit cables.
2. Check remote controller.
3. Check indoor power cables.
4. Check indoor P.C. board.
Signal sending of remote controller is defective.
1. Check sending circuit inside of remote controller. : Replace remote controller.
1. Check there are multiple master units for 2 remote controllers (including wireless). : Master unit is one and others are sub units.
1. Check address setup of central control system network. (DN = 03)
: Flash, ¡: Go on, l: Go off
¥
*2 Check code is not displayed by wired remote controller. (Usual operation of air conditioner is disabled.)
For wireless type models, E01 is notified by the display lamp.
Wireless sensor
lamp display
Operation
Timer Ready
———
———
———
Wired remote controller
Check code
C05
C06
P30
Error mode detected by central remote controller
Diagnostic function
Cause of operation
Sending error central remote controller
Receiving error in central remote controller
Differs according to error contents of unit with occurrence of alarm.
Status of
air conditioner
Operation continues
Operation continues
Continuation/Stop
(Based on a case)
Condition
Displayed when
error is detected
Displayed when
error is detected
Displayed when
error is detected
: Flash, ¡: Go on, l: Go off
¥
Judgment and measures
1. Check communication line/miscabling/ Check power of indoor unit.
2. Check communication. (U3, U4 terminals)
3. Check network adapter P.C. board.
4. Check central controller (such as central control remote controller, etc.).
5. Terminal resistance check (connection interface SW01)
Check the check code of corresponding unit by remote controller
Page 85
Revised : Mar. 2007
10-3. Error Mode Detected by LED on Outdoor P.C. Board
RAV-SM1103AT-E, RAV-SM1403AT-E / RAV-SP562AT-E, RAV-SP802AT-E, RAV-SP1102AT-E, RAV-SP1402AT-E
<SW801: LED display in bit 1, bit 2 OFF>
• When multiple errors are detected, the latest error is displayed.
• When LED display is ¡ (Go on), there is the main cause of trouble on the objective part of control at CDB side and the unit stops.
• When LED display is ¥ (Flash), there is the main cause of trouble on the objective part of control at IPDU side and the unit stops.
• When case thermostat operates, the communication is interrupted on the serial circuit. If continuing the case thermostat operation, a serial communication error occurs because serial sending to the indoor unit is interrupted.
CDB side
IPDU side
No.
1
TE sensor error
2
TD sensor error
3
TS sensor error
4
TO sensor error
5
Discharge temp. error
6
DC outdoor fan error Communication error
between IPDU
7
(Abnormal stop) High-pressure release
8
operation
9
EEPROM error Communication error
between IPDU
10
(No abnormal stop) IGBT short-circuit
11
protection
12
Detection circuit error
13
Current sensor error
14
Comp. lock error
15
Comp. breakdown
Item
Check code
Type A Type B
F06 18 F04 19 F06 18
F08 1B P03 1E P22 1A
L29 1C
P04
——
——
P26 14 P29 16
H03 17 H02 1D H01 1F
21
LED display
D800 D801 D802 D803
(Red) (Yellow) (Yellow) (Yellow)
¡ ¡¡
ll l l
¡¡¡
¡
l
¡¡
ll
¥
l
¥¥
ll
¥
lll
ll
¡
¡
ll
¡¡
l
l l
ll
¡
l
l
¡¡
¡
¡
¡
lll
¥
ll ll
l
¥ ¥
l l
: Go on l : Go off ¥ : Flash (5Hz)
¡
<<Check code>>
The check codes are classified into Type A and Type B according to the used remote controller. Be sure to check the remote controller which you use.
Type A :
Neutral 2-cores type wired remote controller such as RBC-AMT31E, RBC-AS21E2, and wireless remote controller kit such as TCB-AX21U (W)-E2.
Type B :
Polarized 3-cores type wired remote controller such as RBC-SR1-PE2, RBC-SR2-PE2, and central control remote controller such as RBC-CR64-PE2.
– 85 –
Page 86
10-4. Troubleshooting Procedure for Each Check Code
10-4-1. Check Code
[E01 error]
Is inter-unit cable of A and B normal?
YES
Is there no disconnection
or contact error of connector on harness
from terminal block of indoor unit?
NO
NO
Is group control operation?
YES
Is power of all indoor units turned on?
YES
Is power supplied to remote controller?
AB terminal: Approx. DC18V
YES
Are two remote controllers
set without master unit?
NO
NO
YES
NO
NO
YES
Correct inter-unit cable of remote controller.
Correct connection of connector. Check circuit cables.
Check power connection of indoor unit. (Turn on power again.)
Check indoor P.C. board (MCC-1402). Defect Replace
Correct as a master unit/a sub unit (Remote controller address connector)
[E09 error]
Are two remote controllers
set without master unit?
NO
YES
Check remote controller P.C. board. Defect Replace
Correct as a master unit/a sub unit (Remote controller address connector)
Check remote controller P.C. board. Defect Replace
– 86 –
Page 87
[E04 error]
Revised : Mar. 2007
Does outdoor unit operate?
YES
NO
Is setup of group address correct?
YES
Are 1, 2, 3 inter-unit cables normal?
YES
Are connections from connectors
of inter-terminal blocks (1, 2, 3)
of indoor/outdoor units normal?
YES
2 and 3 of inter-terminal blocks (1, 2, 3)
Does voltage between
of indoor unit vary?*
YES
As shown in the following figure, perform measurement
*
within 20 seconds after power ON.
NO
NO
NO
NO
Black
White
Inter-terminal block
Check item code [14].
Correct inter-unit cable.
Correct connection of connector.
Check indoor P.C. board (MCC-1402). Defect ® Replace
S5277G
3 2
1
Check indoor P.C. board (MCC-1402). Defect ® Replace
MCC-5009
Check outdoor P.C. board Defect ® Replace
MCC-1531 and MCC-1438
Does case thermo. operate?
NO
YES
RAV-SM563AT-E RAV-SM803AT-E
RAV-SM1103AT-E RAV-SM1403AT-E RAV-SP562AT-E RAV-SP802AT-E RAV-SP1102AT-E RAV-SP1402AT-E
Check/Correct charged refrigerant amount.
– 87 –
Page 88
[E10 error]
Check indoor control P.C. board (MCC-1402). Defect Replace
[E18 error]
Is inter-unit cable of A and B normal?
YES
Is there no disconnection
or contact error of connector on harness
from terminal block of indoor unit?
NO
Is group control operation?
NO
Check indoor P.C. board (MCC-1402). Defect Replace
NO
YES
YES
Is power of all indoor units turned on?
[E08, L03, L07, L08 error]
E08 : Duplicated indoor unit numbers L03 : Two or more master units in a group control L07 : One or more group addresses of [Individual] in a group control L08 : Unset indoor g roup address (99)
Correct inter-unit cable of remote controller.
Correct connection of connector. Check circuit cables.
NO
Check power connection of indoor unit. (Turn on power again.)
If the above is detected when power has been turned on, the mode automatically enters in automatic ad­dress setup mode. (Check code is not displayed.)
Howe ver, if the above is detected during automatic address setup mode, the check code may be displayed.
[L09 error]
Is capacity of indoor unit unset?
YES
NO
Set capacity data of indoor unit. (Setup item code (DN) = 11)
Check indoor P.C. board (MCC-1402). Defect Replace
– 88 –
Page 89
[L20 error]
Are cable connections to communication line U3, U4 normal?
YES
Are not multiple same central
control network addresses connected?
NO
Check central controller (including connection interface) indoor P.C. board. Defect Replace.
NO
YES
[L30 error]
Are outside devices of connector CN80 connected?
YES
Do outside devices normally operate?
YES
Check operation cause.
NO
NO
Correct cable connection
Correct central control network address.
Check indoor P.C. board (MCC-1402). Defect Replace
Check outside devices. Defect Replace
[P10 error]
Is connection of float switch connector
(Indoor control P.C. board CN34) normal?
YES
Does float switch
operate?
YES
Does drain pump
operate?
YES
Check drain pipe, etc.
[F10 error]
Is connection of TA sensor connector
(indoor P.C. board CN104) normal?
NO
Is circuit
cabling normal?
YES
Is power of drain
pump turned on?
YES
NO
Correct connection of connector.
NONO
NONO
Check and correct cabling/wiring.
Check indoor P.C. board (MCC-1402). Defect Replace
Check indoor P.C. board (MCC-1402). Defect Replace
Replace drain pump. Check cabling.
Correct connection of connector.
YES
Are characteristics of TA sensor resistance value normal?
YES
* Refer to Characteristics-1.
– 89 –
NO
Replace T A sensor.
Check indoor P.C. board (MCC-1402). Defect Replace
Page 90
[P12 error] <Only for 4-way air discharge cassette type models>
Turn off the power.
Revised : Mar. 2007
Are not there connections errors or
disconnection on connectors CN333 and CN334
of indoor unit P.C. board (MCC-1402)?
NO
Remove connectors CN333 and CN334 of indoor unit P.C. board (MCC-1402).
Does the fan rotate without trouble
when handling the fan with hands?
YES
Are resistance values between phases
at fan motor connector CN333 motor side of
indoor P.C. board (MCC-1402) correct? *1
YES
YES
Correct connection of connector.
NO
Replace indoor fan motor.
NO
Replace indoor fan motor.
1
*
• Are not coil windings between between
5
(Black lead) and (Red lead) opened or shorted?
®
3 5
(White lead) and (Black lead), between
1
For resistance, see the following values.
1 3
(Red lead) and (White lead),
RAV-SM56, SM80, SM1102, SP56, SP80
®
Approx. 70 to 100
W
RAV-SM1103, SM1403, SP110, SP140 ® Approx. 35 to 50
• Is not earthed between cabinet and 1, 3, 5 ® 10MW or more
W
Is resistance value of fan motor connector
CN333 at motor side of indoor P.C. board
(MCC-1402) correct? *2
YES
Is signal output of indoor fan motor
position detection correct? *3
YES
Check indoor P.C. board (MCC-1402). Defect ® Replace
NO
2
*
Check resistance of fan motor position detection circuit. Is not coil winding between (Yellow lead) and (Pink lead)
1
opened or shorted? ® Resistance: Approx. 5 to 20k
NO
3
*
Check fan motor position detection signal.
• Using a tester, measure the voltage between CN334 and of
Replace indoor fan motor.
4
W
Replace indoor fan motor.
1 5
indoor P.C. board (MCC-1402) under condition that CN333 and CN334 are mounted and the power is turned on.
®
Rotate the fan slowly with hands, and check the pin voltage swings between 0 to 5V voltage.
• Between and : 5V
4 5
CN333
– 90 –
CN334
Page 91
[P22 error]
Revised : Mar. 2007
Are connections of CN301 and
CN300 of P.C. board correct?
YES
Does the fan rotate without trouble
when handling the fan with hands under condition
of removing CN301 and CN300 from P.C. board?
YES
The status that the resistance values
between leads below are 50 to 80
for 40W motor (ICF-140-40) and 25 to 55
for 60W motor (ICF-140-60-1) is normal.
Between (Red lead) and (White lead)
Between (White lead) and (Black lead)
Between (Black lead) and (Red lead)
of motor winding of connector (CN301)
5k to 20k resistance values between
1 2
2 3
3 1
YES
The status that there is
(Yellow lead) and (Pink lead)
1 4
of motor position detection of
connector (CN300) is normal.
YES
Normal fan motor (Control or CDB P.C. board)
W
W
NO
NO
NO
Defective fan motor
CN301, * CN303
CN300
CN300 : Motor coil winding CN301 : Motor position detection
*
CN301, CN303 : Motor coil winding CN300, CN302 : Motor position detection
SM110, SM140, SP56, SP80, SP110, SP140
(Control P.C. board or CDB P.C. board)
NOTE :
However, GND circuit error inside of the motor is rarely detected even if the above check is carried out. When the circuit does not become normal even if P.C. board has been replaced, replace outdoor fan motor.
Single phase
Objective P.C. board Fan motor winding Motor position detection
RAV-SM563AT-E RAV-SP562AT-E, SP802AT-E RAV-SM803AT-E RAV-SM1103AT-E, SM1403AT-E
Control P.C. board CDB P.C. board CDB P.C. board
CN300 CN301 CN301/CN303 CN301 CN300 CN300/CN302
RAV-SP1102AT-E, SP1402AT-E
– 91 –
Page 92
[P19 error]
Revised : Mar. 2007
Check and replace electron expansion valve.
* Refer to Characteristics-2.
Replace TC sensor.
Is operation of
4-way valve normal?
NO
NO
Is flow of refrigerant
by electron expansion
valve normal?
Are characteristics
of TC sensor resistance
value normal?
YES
YES
YES
NO
Is voltage applied
to 4-way valve coil terminal
in heating operation?
YES
Is circuit cable normal?
YES
Check CDB P.C. board.
YES
NO
Check 4-way valve Defect ® Replace
NO
Check and correct circuit.
NO
Check indoor P.C. board. Defect ® Replace
* For RAV-SM563AT-E, SM803AT-E, check control P.C. board.
Check CDB P.C. board. Defect ® Replace
• In cooling operation, if high pressure is abnormally raised, [P19 error] / [08 error] may be displayed. In this case, remove cause of pressure up and then check again referring to the item [P04 error] / [21 error].
[F02 error]
Is connection of TC sensor connector
(Indoor P.C. board CN101) normal?
YES
Are characteristics of
TC sensor resistance value normal?
YES
NO
Correct connection of connector.
NO
Replace TC sensor.
* Refer to Characteristics-2.
Check indoor P.C. board (MCC-1402). Defect ® Replace
– 92 –
Page 93
[F01 error]
Revised : Mar. 2007
Is connection of TCJ sensor connector
(Indoor P.C. board CN102) normal?
YES
Are characteristics of
TCJ sensor resistance value normal?
YES
Check indoor P.C. board (MCC-1402). Defect ® Replace
[P26 error]
Is power voltage normal?
NO
Correct connection of connector.
NO
Replace TCJ sensor.
* Refer to Characteristics-2.
NO
Improve the power supply line.
Are connections of
cabling/connector normal?
Does RY01 relay of
IPDU operate?
YES
Is not AC fuse fused?
Replace IPDU.
* Replace control P.C. board
of RAV-SM563AT-E, SM803AT-E.
YES
NO
YES
* For RAV-SM563AT-E, SM803AT-E,
check RY01 on the control P.C. board.
YES
NO
* Single-phase type is not provided to
RAV-SM563AT-E, SM803AT-E.
NO
Check and correct circuit cables. Correct connection of connector. Check and correct reactor connection.
Are not “P26” and “14” errors output
when an operation is performed by
removing 3P connector of compressor?
YES
* Replace control P.C. board of
RAV-SM563AT-E, SM803AT-E.
NO
Is compressor normal?
YES
NO
Replace IPDU.
Check IPDU. Defect ® Replace
Check rare short of compressor trouble. Defect ® Replace
– 93 –
Page 94
[P29 error]
Revised : Mar. 2007
Are connections of
cable/connector normal?
YES
Is compressor normal?
YES
NO
NO
Is not earthed?
NO
Is not winding shorted?
(Is resistance between windings 0.6 to 1.2W?)
NO
Is not winding opened?
NO
Check IPDU P.C. board. Defect ® Replace
YES
YES
* For RAV-SM563AT-E, SM803AT-E,
Check and correct circuit cabling such as cabling to compressor.
Compressor error ® Replace
YES
replace control P.C. board.
Compressor error ® Replace
Compressor error ® Replace
[H03 error]
Are cablings of power and
current sensor normal?
Check IPDU. Defect ® Replace
YES
NO
* For RAV-SM563AT-E, SM803AT-E, replace control P.C. board.
Check and correct circuit cables.
– 94 –
Page 95
[F06 error]
Revised : Mar. 2007
Are connections of
TE/TS sensor connectors of
CDB CN604/CN605 normal?
YES
Are characteristics of TE/TS sensor
resistance values normal?
YES
Check CDB. Defect ® Replace
[F04 error]
Is connection of TD sensor connector
of CDB CN600 normal?
NO
* (For RAV-SM563AT-E, SM803AT-E, CN600 TE sensor and CN603 TS sensor)
NO
* Refer to Characteristics-3.
NO
Correct connection of connector.
Replace TE and TS sensors.
Correct connection of connector.
YES
Are characteristics of TD sensor
resistance value normal?
YES
Check control P.C. board. Defect ® Replace
[F08 error]
Is connection of TO sensor connector
of CDB CN601 normal?
YES
Are characteristics of TO sensor
resistance value normal?
* (For RAV-SM563AT-E, SM803AT-E, CN601 TD sensor)
NO
* Refer to Characteristics-4.
NO
* (For RAV-SM563AT-E, SM803AT-E, CN602 TO sensor)
NO
Replace TD sensor.
Correct connection of connector.
Replace TO sensor.
YES
Check CDB. Defect ® Replace
* Refer to Characteristics-5.
– 95 –
Page 96
[L29 error]
Revised : Mar. 2007
CDB CN800 and CDB IPDU CN06
Are connections of
connectors normal?
YES
Was the error just after power ON determined?
NO
Is there no abnormal overload?
NO
Is IPDU P.C. board come to
closely contact with heat sink?
YES
NO
YES
YES
NO
Are cabling/connector normal?
YES
NO
Correct connection of connector.
Check cabling between IPDU and CDB and connector.
IPDU P.C. board error Defect ® Replace
Improve and eliminate the cause.
Correct mounting.
IPDU P.C. board error Defect ® Replace
[H02 error]
Is power voltage normal?
YES
Are connections of
cable/connector normal?
YES
Is compressor normal?
YES
NO
NO
NO NO
Is there no
slackened refrigerant?
YES
Does electron expansion
valve normally operate?
YES
Check IPDU and CDB. Defect ® Replace
NO
* For RAV-SM563AT-E, SM803AT-E,
Improve power line.
Check and correct circuit cabling such as cabling to compressor (phase missing) and connector.
Compressor lock ® Replace
Check TE and TS sensors. ® Replace Check electron expansion valve. ® Replace
replace control P.C. board.
– 96 –
Page 97
[P03 error]
Revised : Mar. 2007
Is protective control such as
discharge temprelease control normal?
YES YES
Is charged refrigerant amount normal?
YES
Is not abnormal overload?
NO
Are characteristics of
TD sensor resistance value normal?
YES
NO
NO
YES
NO
* Refer to Characteristics-4.
Are connections of
cable/connector normal?
NO
Correct the cabling and connection of connector.
Check parts. Defect ® Replace
Check and correct the charged refrigerant amount.
Improve and delete the cause
Replace TD sensor.
Check CDB. Defect ® Replace
[H01 error]
Is power voltage normal?
Is not abnormal overload?
Is the circuit detected by
current sensor normal?
YES
NO
YES
NO
YES
NO
* For RAV-SM563AT-E, SM803AT-E, replace control P.C. board.
Improve power line.
Improve and delete the cause.
Check and correct circuit cables.
Check IPDU. Defect ® Replace
* For RAV-SM563AT-E, SM803AT-E, replace control P.C. board.
– 97 –
Page 98
[P04 error]
Revised : Mar. 2007
Is high-voltage
protective operation by
TE sensor normal?
YES
Does cooling outdoor fan
normally operate?
YES
NO
Is connection of cabling
connector normal?
YES
NO
Is connection of
connector normal?
YES
Is fan motor normal?
YES
NO
NO
NO
Correct connection of cabling connector.
Check TE sensor. Defect ® Replace
Correct connection of connector.
Replace fan motor.
NO
Does PMV normally operate?
Check TE, TC, TS sensors. Replace electron expansion valve.
Check charged refrigerant amount. Check liquid/gas valves. Check abnormal overload.
YES
Do not TD and TO sensors
come off the detection part?
YES
Are characteristics of
TD, T O , TC sensor resistance
values normal?
YES
Check CDB. Defect ® Replace
* For RAV-SM563AT-E, SM803AT-E, replace control P.C. board.
NO
NO
* Refer to Characteristics-3 and 4.
Correct coming-off.
Replace TD, T O , and TC sensors.
– 98 –
Page 99
[C06 error] (Central controller)
Is U3, U4 communication line normal?
YES
Are connections between connectors
CN51 of connection interface P.C. board
and connectors CN51 of indoor P.C. board
normal?
YES
Is A, B communication line normal?
YES
Is there no connection error of power line?
NO
Is not power of source power supply turned on?
NO
Did a power failure occur?
NO
NO
NO
YES
YES
YES
Correct communication line.
Correct connection of connector.
Check connections of A, B terminal blocks. Correct communication line of remote controller.
Correct power cable.
Turn on the source power supply.
Clear the check code.
NO
Is there no noise source, etc.?
NO
Can central remote controller
control normally other indoor units?
Is handling of central remote controller reflected
on the operation status of indoor unit?
YES
Can handy remote controller control
normally other indoor units?
YES
Check connection interface P.C. board. Defect Replace
YES
NO (Same as others)
NO
Eliminate noise, etc.
Check central controller. Defect Replace
Check indoor P.C. board (MCC-1402). Defect Replace
– 99 –
Page 100
[E03 error] (Master indoor unit)
[E03 error] is detected when the indoor unit cannot receive a signal sent from the main remote controller (and central controller).
In this case, check the communication cables of the remote controllers A and B, the central control system X and Y. As communication is disab led, [E03] is not displayed on the main remote controller and the central controller. [E01] is displayed on the main remote controller and [97 error] on the central controller, respectively.
If [E03] occurs during an operation, the air conditioner stops.
[F29 error] / [12 error]
[F29 error] or [12 error] indicates detection of trouble which occurred on IC10 non-volatile memory (EEPROM) on the indoor unit P.C. board during operation of the air conditioner. Replace the service P.C. board.
* If EEPROM has not been inserted when the power was turned on or if EEPROM data never be read/written,
the automatic address mode is repeated. In this time, the central controller displays [97 error].
(Power ON)
(Approx. 3 minutes)
[SET] is displayed on
main remote controller.
(Approx. 1 minute)
[SET] goes off.
(Repetition)
indoor unit P.C. board flashes
with 1Hz for approx. 10 seconds.
LED (D02) on
Reboot
(Reset)
[P31 error] (Sub indoor unit)
When the master unit of a group operation has detected [E03], [L03], [L07], or [L08] error, the sub unit of the group operation detects [P31 error] and then it stops. There is no display of the check code or alarm history of the main remote controller.
(In this model, the mode enters in automatic address set mode when the master unit has detected [E03], [L03], [L07], or [L08] error.)
– 100 –
Loading...