Service Handbook AIR CONDITIONERS CITY MULTI

Transcription

1 AIR CONDITIONERS CITY MULTI Models PUHY-00YMF-C, 0YMF-C PUHY-P00YMF-C, P0YMF-C PUY-00YMF-C, 0YMF-C PUY-P00YMF-C, P0YMF-C PURY-00YMF-C, 0YMF-C PURY-P00YMF-C, P0YMF-C CMB-P0, P0, P06, P08, P00, P0, P06V-E Service Handbook

2 Contents PRECAUTIONS FOR DEVICES THAT USE R0C REFRIGERANT... [] Storage of Piping Material... [] Piping Machining... [] Necessary Apparatus and Materials and Notes on Their Handling.. 6 [] Brazing... [] Airtightness Test... 8 [6] Vacuuming... 8 [] Charging of Refrigerant... 9 [8] Dryer... 9 COMPONENT OF EQUIPMENT... 0 [] Appearance of Components... 0 [] Refrigerant Circuit Diagram and Thermal Sensor... 8 [] Electrical Wiring Diagram... [] Standard Operation Data... [] Function of Dip SW and Rotary SW... TEST RUN... [] Before Test Run... [] Test Run Method... GROUPING REGISTRATION OF INDOOR UNITS WITH REMOTE CONTROLLER... CONTROL... 8 [] Control of Outdoor... 8 [] Control of BC Controller... 6 [] Operation Flow Chart... 6 [] List of Major Component Functions... 0 [] Resistance of Sensor... 6 REFRIGERANT AMOUNT ADJUSTMENT... [] Refrigerant Amount and Operating Characteristics... [] Adjustment and Judgement of Refrigerant Amount... TROUBLESHOOTING... 8 [] Principal Parts... 8 [] BC Controller Disassembly Procedure... [] Self-diagnosis and Countermeasures Depending on the Check Code Displayed... 9 [] LED Monitor Display... 8 PREPARATION, REPAIRS AND REFRIGERANT REFILLING WHEN REPAIRING LEAKS... 6 [] Location of leaks: Extension piping or indoor units (when cooling) 6 [] Location of leaks: Outdoor unit (when heating) CHECK THE COMPOSITION OF THE REFRIGERANT (PURY-P00 0YMF-C only)... 6

3 Safety precautions Before installation and electric work Before installing the unit, make sure you read all the Safety precautions. The Safety precautions provide very important points regarding safety. Make sure you follow them. This equipment may not be applicable to EN6000--: 99 and EN6000--: 99. This equipment may have an adverse effect on equipment on the same electrical supply system. Please report to or take consent by the supply authority before connection to the system. Symbols used in the text Warning: Describes precautions that should be observed to prevent danger of injury or death to the user. Caution: Describes precautions that should be observed to prevent damage to the unit. Symbols used in the illustrations : Indicates an action that must be avoided. : Indicates that important instructions must be followed. : Indicates a part which must be grounded. : Beware of electric shock (This symbol is displayed on the main unit label.) <Color: Yellow> Warning: Carefully read the labels affixed to the main unit. Warning: Use the specified cables for wiring. Make the connections securely so that the outside force of the cable is not applied to the terminals. - Inadequate connection and fastening may generate heat and cause a fire. Have all electric work done by a licensed electrician according to Electric Facility Engineering Standard and Interior Wire Regulations and the instructions given in this manual and always use a special circuit. - If the power source capacity is inadequate or electric work is performed improperly, electric shock and fire may result. Securely install the cover of control box and the panel. - If the cover and panel are not installed properly, dust or water may enter the outdoor unit and fire or electric shock may result. After completing service work, make sure that refrigerant gas is not leaking. - If the refrigerant gas leaks and is exposed to a fan heater, stove, oven, or other heat source, it may generate noxious gases. Do not reconstruct or change the settings of the protection devices. - If the pressure switch, thermal switch, or other protection device is shorted and operated forcibly, or parts other than those specified by Mitsubishi Electric are used, fire or explosion may result.

4 PRECAUTIONS FOR DEVICES THAT USE R0C REFRIGERANT Caution Do not use the existing refrigerant piping. The old refrigerant and refrigerator oil in the existing piping contains a large amount of chlorine which may cause the refrigerator oil of the new unit to deteriorate. Use refrigerant piping made of phosphorus deoxidized copper and copper alloy seamless pipes and tubes. In addition, be sure that the inner and outer surfaces of the pipes are clean and free of hazardous sulphur, oxides, dust/dirt, shaving particles, oils, moisture, or any other contaminant. Contaminants on the inside of the refrigerant piping may cause the refrigerant residual oil to deteriorate. Store the piping to be used during installation indoors and keep both ends of the piping sealed until just before brazing. (Store elbows and other joints in a plastic bag.) If dust, dirt, or water enters the refrigerant cycle, deterioration of the oil and compressor trouble may result. Use ester oil, ether oil or alkylbenzene (small amount) as the refrigerator oil to coat flares and flange connections. The refrigerator oil will degrade if it is mixed with a large amount of mineral oil. Use liquid refrigerant to seal the system. If gas refrigerant is used to seal the system, the composition of the refrigerant in the cylinder will change and performance may drop. Use a vacuum pump with a reverse flow check valve. The vacuum pump oil may flow back into the refrigerant cycle and cause the refrigerator oil to deteriorate. Do not use the following tools that have been used with conventional refrigerants. (Gauge manifold, charge hose, gas leak detector, reverse flow check valve, refrigerant charge base, vacuum gauge, refrigerant recovery equipment) If the conventional refrigerant and refrigerator oil are mixed in the R0C, the refrigerant may deteriorated. If water is mixed in the R0C, the refrigerator oil may deteriorate. Since R0C does not contain any chlorine, gas leak detectors for conventional refrigerants will not react to it. Do not use a charging cylinder. Using a charging cylinder may cause the refrigerant to deteriorate. Be especially careful when managing the tools. If dust, dirt, or water gets in the refrigerant cycle, the refrigerant may deteriorate. If the refrigerant leaks, recover the refrigerant in the refrigerant cycle, then recharge the cycle with the specified amount of the liquid refrigerant indicated on the air conditioner. Since R0C is a nonazeotropic refrigerant, if additionally charged when the refrigerant leaked, the composition of the refrigerant in the refrigerant cycle will change and result in a drop in performance or abnormal stopping. Do not use a refrigerant other than R0C. If another refrigerant (R, etc.) is used, the chlorine in the refrigerant may cause the refrigerator oil to deteriorate.

5 [] Storage of Piping Material () Storage location Store the pipes to be used indoors. (Warehouse at site or owner s warehouse) Storing them outdoors may cause dirt, waste, or water to infiltrate. () Pipe sealing before storage Both ends of the pipes should be sealed until immediately before brazing. Wrap elbows and T s in plastic bags for storage. * The new refrigerator oil is 0 times more hygroscopic than the conventional refrigerator oil (such as Suniso). Water infiltration in the refrigerant circuit may deteriorate the oil or cause a compressor failure. Piping materials must be stored with more care than with the conventional refrigerant pipes.

6 [] Piping Machining Use ester oil, ether oil or alkylbenzene (small amount) as the refrigerator oil to coat flares and flange connections. Use only the necessary minimum quantity of oil! Reason :. The refrigerator oil used for the equipment is highly hygroscopic and may introduce water inside. Notes : Introducing a great quantity of mineral oil into the refrigerant circuit may also cause a compressor failure. Do not use oils other than ester oil, ether oil or alkylbenzene.

7 [] Necessary Apparatus and Materials and Notes on Their Handling The following tools should be marked as dedicated tools for R0C. <<Comparison of apparatus and materials used for R0C and for R>> Apparatus Used Use R R0C Gauge manifold Evacuating, refrigerant filling Current product Charging hose Operation check Current product Charging cylinder Refrigerant charging Current product Do not use. Gas leakage detector Gas leakage check Current product Shared with Ra Refrigerant collector Refrigerant collection R For R0C use only Refrigerant cylinder Refrigerant filling R Identification of dedicated use for R0C : Record refrigerant name and put brown belt on upper part of cylinder. Vacuum pump Vacuum drying Current product Vacuum pump with a check valve Current product Flare tool Flaring of pipes Current product Bender Bending of pipes Current product Application oil Applied to flared parts Current product Torque wrench Tightening of flare nuts Current product Pipe cutter Cutting of pipes Current product Welder and nitrogen cylinder Welding of pipes Current product Refrigerant charging meter Refrigerant charging Current product Vacuum gauge Checking the vacuum degree Current product Can be used by attaching an adapter with a check valve. Ester oil or Ether oil or Alkybenzene (Small amount) Symbols : To be used for R0C only. Can also be used for conventional refrigerants. Tools for R0C must be handled with more care than those for conventional refrigerants. They must not come into contact with any water or dirt. 6

8 [] Brazing No changes from the conventional method, but special care is required so that foreign matter (ie. oxide scale, water, dirt, etc.) does not enter the refrigerant circuit. Example : Inner state of brazed section When non-oxide brazing was not used When non-oxide brazing was used Items to be strictly observed :. Do not conduct refrigerant piping work outdoors on a rainy day.. Apply non-oxide brazing.. Use a brazing material (Bcup-) which requires no flux when brazing between copper pipes or between a copper pipe and copper coupling.. If installed refrigerant pipes are not immediately connected to the equipment, then braze and seal both ends of them. Reasons :. The new refrigerant oil is 0 times more hygroscopic than the conventional oil. The probability of a machine failure if water infiltrates is higher than with conventional refrigerant oil.. A flux generally contains chlorine. A residual flux in the refrigerant circuit may generate sludge. Note : Commercially available antioxidants may have adverse effects on the equipment due to its residue, etc. When applying non-oxide brazing, use nitrogen.

9 [] Airtightness Test No changes from the conventional method. Note that a refrigerant leakage detector for R cannot detect R0C leakage. Halide torch R leakage detector Items to be strictly observed :. Pressurize the equipment with nitrogen up to the design pressure and then judge the equipment s airtightness, taking temperature variations into account.. When investigating leakage locations using a refrigerant, be sure to use R0C.. Ensure that R0C is in a liquid state when charging. Reasons :. Use of oxygen as the pressurized gas may cause an explosion.. Charging with R0C gas will lead the composition of the remaining refrigerant in the cylinder to change and this refrigerant can then not be used. Note : A leakage detector for R0C is sold commercially and it should be purchased. [6] Vacuuming. Vacuum pump with check valve A vacuum pump with a check valve is required to prevent the vacuum pump oil from flowing back into the refrigerant circuit when the vacuum pump power is turned off (power failure). It is also possible to attach a check valve to the actual vacuum pump afterwards.. Standard degree of vacuum for the vacuum pump Use a pump which reaches 0. Torr (00 MICRON) or below after minutes of operation. In addition, be sure to use a vacuum pump that has been properly maintained and oiled using the specified oil. If the vacuum pump is not properly maintained, the degree of vacuum may be too low.. Required accuracy of the vacuum gauge Use a vacuum gauge that can measure up to Torr. Do not use a general gauge manifold since it cannot measure a vacuum of Torr.. Evacuating time Evacuate the equipment for hour after mmhg ( Torr) has been reached. After envacuating, leave the equipment for hour and make sure the that vacuum is not lost.. Operating procedure when the vacuum pump is stopped In order to prevent a backflow of the vacuum pump oil, open the relief valve on the vacuum pump side or loosen the charge hose to drawn in air before stopping operation. The same operating procedure should be used when using a vacuum pump with a check valve. 8

10 [] Charging of Refrigerant R0C must be in a liquid state when charging, because it is a non-azeotropic refrigerant. For a cylinder with a syphon attached For a cylinder without a syphon attached Cylinder Cylinder Cylinder color identification R0C-Gray Charged with liquid refrigerant R0A-Pink Valve Valve Liquid Liquid Reasons :. R0C is a mixture of refrigerants, each with a different evaporation temperature. Therefore, if the equipment is charged with R0C gas, then the refrigerant whose evaporation temperature is closest to the outside temperature is charged first while the rest of refrigerants remain in the cylinder. Note : In the case of a cylinder with a syphon, liquid R0C is charged without turning the cylinder up side down. Check the type of cylinder before charging. [8] Dryer. Replace the dryer when the refrigerant circuit is opened (Ex. Change the compressor, full gas leakage). Be sure to replace the dryer with a CITY MULTI Series Y (For use with R0C). If any other product is used, the unit will be damaged.. Opening the refrigerant circuit after changing to a new dryer is less than hour. The replacement of the dryer should be the last operation performed. 9

11 COMPONENT OF EQUIPMENT [] Appearance of Components Outdoor unit PU(H)Y-(P)00, 0YMF-C Propeller fan Fan motor Heatexchanger(rear) Heatexchanger(front) Control Box Compressor PUHY-YMF-C PUY-P-YMF-C way valve SCC Accumulator SCC Accumulator Drier Compressor Compressor 0

12 PURY-P00 0YMF-C Propeller fan Fan motor Heat exchanger(rear) Heat exchanger(front) Control box Compressor PURY-YMF-C PURY-P-YMF-C way valve SV block Accumulator way valve SV block CS circuit Accumulator SV SV SV SV6 SVSV SV SV6 CV block Drier CV block Compressor Compressor

13 Controller Box FANCON board INV board MAIN board Noise filter Choke coil (L) Terminal block TBA Power Source Terminal block TB Transmission (Centralized control) Terminal block TB Transmission Inteligent Power Module (IPM) G/A board Capacitor (C, C) (Smoothing capacitor) Diode stack (DS) Magnetic contactor (C)

14 MAIN board PUHY / PURY CNTR CNFC CNVCC Power source for control(v) CNS CNS CN0 CN CNVCC Power Source for control - 0V - 0V -6 V -6 V CN Indication distance - Compressor ON/OFF - Trouble CNRS Serial transmission to INV board CND CNS CNN LD Service LED CN0 Power supply L N SW SW SW SWU SWU SW

15 INV board CNVDC - DC-60V CNV Power supply for IPM control CNVCC Power supply (V) CNR CNC Control for C CNL Choke coil CNVCC Power supply - 0V, - 0V -6 V, -6 V CNDR Out put to G/A board CNFAN Control for MF CNTH CNAC Power source L N G SW CNRS Serial transmission to MAIN board CNACCT

16 FANCON board CNFAN CNPOW CNFC G/A board CNE CNDC CNV CNIPM CNDR

17 BC controller CNTR CN0 M-NET transmission CN Power supply EARTH N L CN0 SW SW SW 6

18 RELAY 0 board RELAY board

19 [] Refrigerant Circuit Diagram and Thermal Sensor PUHY-00YMF-C, 0YMF-C SP ACC : Solenoid valve : Orifice : Capillary : Check valve : Thermal sensor : Strainer : Service port : Accumulator TH6 HEX HEX TH TH8 CV 6H SCC O/S ST TH Comp CJ 6HS CP SV SV LEV ST TH MA CJ SLEV SA ST TH CP ST BV Indoor unit BV 8

20 PUY-00YMF-C, 0YMF-C SP ACC : Solenoid valve : Orifice : Capillary : Check valve : Thermal sensor : Strainer : Service port : Accumulator TH6 HEX HEX TH TH8 6H SCC O/S ST Comp CJ 6HS CP SV SV LEV ST TH MA CJ SLEV SA ST TH CP ST BV BV 9

21 PUHY-P00YMF-C, P0YMF-C SP ACC : Solenoid valve : Orifice : Capillary : Check valve : Thermal sensor : Strainer : Service port : Accumulator TH6 SV HEX HEX ST8 SV ST9 TH ST O/S ST TH CV Comp 6H TH0 Drier CP SCC CJ 6HS CP SV SV TH9 TH CP TH8 LEV ST TH CJ 6LS MA SA SLEV ST BV Indoor units ST BV 0

22 PUY-P00YMF-C, 0YMF-C SP ACC : Solenoid valve : Orifice : Capillary : Check valve : Thermal sensor : Strainer : Service port : Accumulator TH6 HEX CV TH SV HEX ST CV 6H CP SCC O/S ST TH Comp TH0 Drier CJ 6HS CP SV SV TH9 TH TH8 LEV ST TH CJ 6LS MA SA SLEV ST BV Indoor units ST BV

23 PURY-00YMF-C, 0YMF-C SP ACC : Solenoid valve : Orifice : Capillary : Check valve : Thermal sensor : Strainer : Service port : Accumulator CJ Solenoid Valves Block Distributor 6HS CJ SV SV SV SV6 CV O/S TH ST6 CP SV SV TH6 HEXb TH HEXf CV 6H 6LS ACC HEXf Comp MA SA HEXf TH0 SLEV CV8 CV9 CV0 CV CV CV CV ST BV CV6 TH BV Check Valves Block SVC SVA SVB Gas/liquid separator TH TH TH TH TH Indoor units 6HS LEV 6HS LEV TH LEV TH6 BC controller CMB-P0V-E

24 6PURY-P00YMF-C, P0YMF-C SP ACC : Solenoid valve : Orifice : Capillary : Check valve : Thermal sensor : Strainer : Service port : Accumulator ST SJ Solenoid Valves Block Distributor 6HS CJ SV SV SV SV6 O/S CP HEXb ST6 TH CV TH SV SV TH6 HEXf CV 6H 6LS ACC HEXf Comp MA SA HEXf TH0 SLEV TH CV8 CV9 CV0 CV CV CV CV ST BV CP TH9 Drier CV6 TH BV CS(Composition Sensing) circuit Check Valves Block SVC SVA SVB Gas/liquid separator TH TH TH TH TH Indoor units 6HS LEV 6HS LEV TH LEV TH6 BC controller CMB-P0V-E

25 [] Electrical Wiring Diagram PU(H)Y-(P)00 0YMF-C SV Solenoid valve (Heat exchanger capacity control) Solenoid valve *, * (Heat exchanger capacity control) TH0 * THHS LD X~0 FB~ MC W U Motor (Compressor) Diode stack Noise Terminal Filter Block TH0 TH9 TH6 TH TH8 TH TH TH LD 6HS 6LS * * Inverter Controller Box BOX BODY Crank case heater (Compressor) SV SV N CN6 X06 (6P) X0 detection circuit Terminal Block SV S NF L L L L L L N TBB L Red L Red L White L White L Black L Black N Blue N Blue BOX BODY CN X0 (6P) X0 Control circuit board (MAIN board) CN8 (P) X0 CN09 (P) CN06 (P) CN0 (P) SLEV LEV ACCT -W CNE (P) BOX BODY BOX BODY BOX BODY CNFC (6P) CNFC (6P) FB N <Difference of appliance> Appliance Name All exists PUHY-P00/0YMF-C PUY -P00/0YMF-C PUHY- 00/0YMF-C PUY - 00/0YMF-C * are not existed * are not existed Green Blue White Red Black Brown Red L Red White Black Blue PE Green/ Yellow TB M M TB CNTR T0 CN (P) CN0 (P) CN0 (8P) CN0 (P) CNH (P) CNL (P) F 0VAC A F CNLV (P) DS CNLV (P) Red White Black R R ZNR C C DCL C C + + R R CNRS (P) CNRS (P) CNVCC (P) CNVCC (6P) X0 CNVCC (6P) Power circuit board (INV board) C CNC (P) X0 CNTH CNR CNL X0 (P) (P) (P) CNFAN (P) CN0V (P) :Compressor ON/OFF :Trouble MF THHS R L R6 6 * and * are not existed 6 <Symbol explanation> Symbol Name 6 DCL ACCT-U, W ~ + ~ ~ V Red White Black Red White Black TBA L L L L L N N PE M M CH SV CN0 (P) CNS CNS CNTR (P) (P) F (P) 0VAC A F X0 CN (P) X0 Refer to the service handbook about the switch operations. ACCT -U IPM P N U V W Gate amp board (G/A board) CNDC (P) CNDR (9P) CNV (P) FB CNVCC (P) CNAC (P) F0 0VAC A F CNVDC (P) CNDR CNV (9P) (P) 0 CNX0 (P) V CN (P) CND (P) CNS (P) CNN (P) S 6 8 ZNR 6 V Yellow Orange Purple Black White Gray FB FB U W N Orange Brown CNACCT (P) DEMAND NIGHT MODE CND Mode - - ON ON Auto HEAT OFF changeover COOL ON OFF Normal OFF * L L L CNPOW (P) F0 0VAC 6.AF F0 0VAC 6.AF F0 0VAC 6.AF C Fan control board (Fancon board) CNFAN (P) CN0 * MF S * SV, SV SV * LEV Electronic expansion valve (Sub-cool coil bypass) SLEV 6HS 6LS * L IPM TH TH TH TH6 TH * DC reactor High pressure switch (Power factor improvement) Current Sensor Varistor Magnetic contactor (Inverter main circuit) Fan motor(radiator panel) -way valve Solenoid valve(discharge-suction bypass) Electronic expansion valve(oil return) High pressure sensor Low pressure sensor Choke coil(transmission) Intelligent power module Discharge pipe temp. detect Thermistor Saturation evapo. temp. detect Pipe temp. detect OA temp. detect liquid outlet temp. detect at Sub-cool coil TH8 bypass outlet temp. detect TH9 * at Sub-cool coil High pressure liquid temp. Compressor shell temp. Radiator panel temp. detect Accumulator liquid level detect Aux. relay Ferrite core Earth terminal MF Fan motor (Heat exchanger) Red White Black 0A 0A * 6H no fuse breaker PU(H)Y-(P)00YMF-C PU(H)Y-(P)0YMF-C Power source N~ 80/00/V 0/60Hz Connect to Indoor and remote controller

26 PURY-(P)00 0YMF-C <Difference of appliance> Appliance Name PURY-P00/0YMF-C All exists PURY- 00/0YMF-C * are not existed <Symbol explanation> Symbol DCL S -way valve SV, SV Solenoid valve(discharge-suction bypass) SV~6 SLEV 6HS 6LS Name DC reactor (Power factor improvement) ACCT-U, W Current Sensor ZNR C MF L IPM TH TH * TH TH6 MC IPM P N U V Gate amp board (G/A board) W TH6 TH TH TH TH LD 6HS 6LS CNE CNDC CNDR CNV (P) (P) (9P) (P) 0 FB FB Black White Red Green Blue White CNACCT (P) CND DEMAND (P) NIGHT MODE CNFAN (P) CN0 Brown Orange FB L L L Fan control board (Fancon board) FB U W N V 8 9 Orange Yellow Black Purple Gray White CNDR (9P) 0 MF Fan motor (Heat exchanger) Refer to the service handbook about the switch operations. * no fuse breaker PURY-(P)00YMF-C PURY-(P)0YMF-C 0A 0A TBA L L Red L L Red Power source N~ 80/00/V 0/60Hz N N Blue N N Blue BOX BODY PE BOX BODY TB M M TB CNS CNS (P) (P) X0 CN X0 (P) CN0 (P) F 0VAC A F Control circuit board (MAIN board) CH SV 6 CNVCC (P) CNAC (P) F0 0VAC A F CNVDC (P) C CNX0 (P) CNC CNTH CNR X0 (P) (P) (P) V : Compressor ON/OFF : Trouble MF CN (P) THHS R L R6 S Black White Red Black White Red PE Green/ Yellow Connect to Indoor and remote controller M M CN (P) L L L N TBB DS ~ F 0VAC A F CNTR T0 CNTR (P) SLEV U V W Motor (Compressor) Red White Black R R ZNR C C C + C DCL R R BOX BODY CNRS (P) CNRS (P) CNVCC (P) 8 CNV (P) CNVCC (6P) X0 CNVCC (6P) Power circuit board (INV board) X0 CNFAN (P) CNL CN0V (P) (P) ~ ~ Red Black Red Brown Inverter Controller Box NF L L White L L White L L Black L L Black SV S CN X0 (6P) X0 SV SV CN6 X06 (6P) X0 SV6 SV CN X08 (6P) X09 6H CN8 (P) X0 detection circuit CN09 (P) CN06 (P) TH0 TH9 L Red L White L Black N Blue CN0 CN0 CN0 CN0 CNH CNL CNLV (P) (P) (8P) (P) (P) (P) (P) ACCT -W ACCT -U BOX BODY BOX BODY CNPOW (P) F0 0VAC 6.AF CNFC (6P) CNFC (6P) Varistor Magnetic contactor (Inverter main circuit) Fan motor(radiator panel) Solenoid valve (Heat exchanger capacity control) Electronic expansion valve(oil return) High pressure sensor Low pressure sensor Choke coil(transmission) Intelligent power module Discharge pipe temp. detect Thermistor Saturation evapo. temp. detect Pipe temp. detect OA temp. detect TH liquid outlet temp. detect at Sub-cool coil TH9 * TH0 * THHS F0 0VAC 6.AF F0 0VAC 6.AF LD Accumulator liquid level detect X,, ~0 Aux. relay FB~ Ferrite core Earth terminal N High pressure liquid temp. Compressor shell temp. Radiator panel temp. detect Terminal Diode Block stack * Terminal Block Noise Filter Crank case heater (Compressor) High pressure switch

27 Symbol explanation Transmission line Shield wire } DC 0V Symbol TR TH 6 LEV, Name Transformer Thermister sensor Expansion valve PS, Pressure sensor TB0 Terminal block (for power source) TB0 Terminal block (for Transmission) Symbol SV A SV B SV C SVM Name Solenoid valve Solenoid valve Solenoid valve Solenoid valve SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVM Note:.TB0 is terminal block for transmission. Never connect power line to it.. :SVM is not built in depending on models. 6 6 TB0 L N PE } /N 0V 0V 0Hz Power source EARTH TR 0 V 0 0V TB0 M M CN0 CN0 CNTR X X X0 CN6 X X X CN X6 X X CN8 X8 X X CN9 X CN0 CN0 6 6 CN CN6 LEV LEV CMB-P0V-E PS BC Board CNP PS CNP CN TH TH CN0 6 8 TH CN TH6 6

28 Symbol explanation Transmission line Shield wire } DC 0V Symbol TR TH 6 LEV, Name Transformer Thermister sensor Expansion valve PS, Pressure sensor TB0 Terminal block (for power source) TB0 Terminal block (for Transmission) Symbol SV A SV B SV C SVM Name Solenoid valve Solenoid valve Solenoid valve Solenoid valve SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC Note:.TB0 is terminal block for transmission. Never connect power line to it.. :SVM is not built in depending on models. SVM TB0 L N PE } /N 0V 0V 0Hz Power source EARTH TR 0 V 0 0V TB0 M M CN0 CN0 CNTR X X X0 CN6 X X X CN X6 X X CN8 X8 X X CN9 X0 X9 X CN0 X CN0 CN0 6 6 CN CN6 LEV LEV BC Board CNP CNP CN CN0 6 8 CN CMB-P0V-E PS PS TH TH TH TH6

29 Symbol explanation Transmission line Shield wire } DC 0V Symbol TR TH 6 LEV, Name Transformer Thermister sensor Expansion valve Symbol SV 6A SV 6B SV 6C SVM PS, Pressure sensor TB0 Terminal block (for power source) TB0 Terminal block (for Transmission) Name Solenoid valve Solenoid valve Solenoid valve Solenoid valve SVM SV6C SV6A SV6B SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC Note:.TB0 is terminal block for transmission. Never connect power line to it.. :SVM is not built in depending on models. TB0 L N PE } /N 0V 0V 0Hz Power source EARTH TR 0 V 0 0V TB0 M M 6 6 CNVCC CN0 CN0 CN CN0 CNOUT CN8 CNTR X X X0 CN6 X X X CN X6 X X CN8 CNOUT X8 X X CN9 X0 X9 X CN0 X X X CN X CN0 CN0 6 6 CN CN6 LEV LEV CMB-P06V-E PS BC Board CNP PS CNP CN TH TH CN0 6 8 TH CN TH6 8

30 Symbol explanation Symbol TR TH 6 LEV, Name Transformer Thermister sensor Expansion valve PS, Pressure sensor TB0 Terminal block (for power source) TB0 Terminal block (for Transmission) Symbol SV 8A SV 8B SV 8C SVM Name Solenoid valve Solenoid valve Solenoid valve Solenoid valve Note:.TB0 is terminal block for transmission. Never connect power line to it.. :SVM is not built in depending on models. SVM SV8C SV8A SV8B SVC SVA SVB SV6B SV6A SV6C RELAY Board CN X6 X X CN X X X6 CN9 6 CN Transmission line Shield wire } DC 0V SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC TB0 L N PE } Power source /N 0V 0V 0Hz EARTH TB0 M M CN0 CNOUT CNTR CN8 X X X0 CN6 X X X CN X6 X X CN8 CNOUT X8 X X CN9 X0 X9 X CN0 X X X CN X CN CN V TR 0 0V CNVCC CN0 CN0 CN CN0 CN0 6 6 LEV LEV 6 CMB-P08V-E PS BC Board CNP PS CNP CN TH TH CN0 6 8 TH CN TH6 9

31 Symbol explanation Symbol TR TH 6 LEV, Name Transformer Thermister sensor Expansion valve PS, Pressure sensor TB0 Terminal block (for power source) TB0 Terminal block (for Transmission) Symbol SV 0A SV 0B SV 0C SVM Name Solenoid valve Solenoid valve Solenoid valve Solenoid valve Note:.TB0 is terminal block for transmission. Never connect power line to it.. :SVM is not built in depending on models. SV0B SV0A SV0C SVM SV9B SV9A SV9C SV8C SV8A SV8B SVC SVA SVB SV6B SV6A SV6C RELAY Board CN X0 X9 X9 CN X8 X X8 CN X6 X X CN X X X6 CN9 CN 6 6 CN Transmission line Shield wire } DC 0V SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC TB0 L N PE } Power source /N 0V 0V 0Hz EARTH TB0 M M CN0 CNTR CN8 X X X0 CN6 CNOUT X X X CN X6 X X CN8 CNOUT X8 X X CN9 X0 X9 X CN0 X X X CN X CN CN V TR 0 0V CNVCC CN0 CN0 CN CN0 CN0 6 6 LEV LEV CMB-P00V-E PS BC Board CNP PS CNP CN TH TH CN0 6 8 TH CN TH6 0

32 Symbol TR TH~6 LEV, PS, Name Transformer Thermister sensor Expansion valve Pressure sensor Symbol TB0 TB0 SV~A SV~B SV~C SVM Name Terminal block (for power source) Terminal block (for Transmission) Solenoid valve Solenoid valve Solenoid valve Solenoid valve CN9 CNVCC CN0 X X0 X CN X X X CN X X6 X8 RELAY0 Board CN CN X0 X9 X9 CN X8 X X8 CN X6 X X X X X6 CNOUT CNOUT TB0 M M Shield wire Transmission line } DC 0V SVB SVA SVC SVB SVA SVC SVB Note :. TB0 is transmission terminal block. Never connect power line to it.. :SVM is not built in depending on models. SVA SVC SVM SV0C SV0A SV0B SV9C SV9A SV9B SV8C SV8A SV8B SVC SVB SVA SV6C SV6A SV6B SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC TB0 L N PE } Power source ~/N 0V~0V 0Hz EARTH CN6 CN CN8 CN9 CN0 CN X CN6 CNTR X X X0 X X X X6 X X X8 X X X0 X9 X X X X 8 CMB-P0V-E TR 0 V 0 0V BC Board PS CNP CNVCC CN0 CN0 6 CN CN0 CN8 PS CNP CNOUT CN TH TH CN0 TH TH6 CN CNOUT CN0 CN0 CN 6 LEV LEV

33 Symbol TR TH~6 LEV, PS, Name Transformer Thermister sensor Expansion valve Pressure sensor Symbol TB0 TB0 SV~6A SV~6B SV~6C SVM Name Terminal block (for power source) Terminal block (for Transmission) Solenoid valve Solenoid valve Solenoid valve Solenoid valve CN9 CNVCC CN0 X X0 X CN X X X CN X X6 X8 CN CN X0 X9 X9 CN X8 X X8 CN X6 X X X X X6 CNOUT CNOUT TB0 M M Shield wire Transmission line } DC 0V Note :. TB0 is transmission terminal block. Never connect power line to it.. :SVM is not built in depending on models. CN X0 X9 X CN X X X CN X6 X X RELAY0 Board SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SV6B SV6A SV6C SVM SV0C SV0A SV0B SV9C SV9A SV9B SV8C SV8A SV8B SVC SVB SVA SV6C SV6A SV6B SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC SVB SVA SVC TB0 L N PE } Power source ~/N 0V~0V 0Hz EARTH CN6 CN CN8 CN9 CN0 CN X CN6 CNTR X X X0 X X X X6 X X X8 X X X0 X9 X X X X TR 0 V 0 0V 6 CNVCC CN0 CN0 CN CN0 CN8 CNOUT CNOUT CN0 CN0 CN 6 LEV LEV 9 CMB-P06V-E BC Board PS CNP PS CNP CN TH TH CN0 TH TH6 CN

34 [] Standard Operation Data () Cooling operation PU(H)Y-00 0YMF-C Items Outdoor unit PUHY-00YMF-C PUY-00YMF-C PUHY-0YMF-C PUY-0YMF-C Ambient temp. Indoor Outdoor DB/WB.0/9.0.0/9.0.0/.0.0/.0 Indoor unit Quantity Quantity in operation Set Condition Model Main pipe Piping Branch pipe m Total piping length Indoor unit fan notch Hi Hi Hi Hi Hi Hi Hi Hi Refrigerant volume kg.. Sectional temperature LEV opening Outdoor unit Pressure Total current Volts/Frequency Indoor unit SC (LEV) Oil return (SLEV) High pressure/low pressure (after O/S) (before MA) Outdoor unit Discharge (TH) Heat exchanger outlet (TH) Accumulator Suction (Comp) TH Shell bottom (Comp) SCC outlet (TH) Inlet Outlet A V V/Hz Pulse kg/cm G (MPa) C / 0/ 0/9 0/ /.80 0./. (.6/0.) (.99/0.6) Bypass outlet (TH8) 8 6 Indoor unit LEV inlet Heat exchanger outlet