航空 发表于 2010-5-9 08:44:41

Bombardier-Challenger_01-Air_Cond_and_Press庞巴迪挑战者空调和增压

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<P>OPERATING MANUAL<BR>PSP 601A-6<BR>SECTION 2<BR>AIR CQNPITIONING/PRESSURIZATION<BR>TABLE OF CONTENTS<BR>1. AIR CONDITIONING<BR>Page<BR>A. General 1<BR>B. Bleed Air Control System 1<BR>C. Air Conditioning Units (ACU) 1<BR>D. Distribution Ducting 3<BR>E. Temperature Control Systems 3<BR>F. Footwarmer and Demister System (Aircraft 5001 to 5134) 4<BR>G. Footwarmer and Demister System (Aircraft 5135 and subsequent) 4<BR>H. Ram Air Ventilation System 5<BR>PRESSURIZATION 5<BR>A. General 5<BR>B. Cabin Pressurization Controller 5<BR>C. Outflow Valves 5<BR>(1) Primary Outflow Valve 5<BR>(2) Secondary Outflow Valve 5<BR>(3) Positive Differential Pressure Control 6<BR>(4) Negative Differential Pressure Control 6<BR>(5) Cabin Altitude Limiter 6<BR>D. Emergency Depressurization System 6<BR>E. Emergency Pressurization System (Aircraft 5001 to 5134) 6<BR>F. Cabin Pressurization Control Panel 6<BR>(1) Automatic Mode 6<BR>(2) Manual Mode 8<BR>(3) Emergency Depressurization 8<BR>(4) Emergency Pressurization (Aircraft 5001 to 5134) 8<BR>LIST OF ILLUSTRATIONS<BR>Figure Title Page<BR>Number<BR>1 Air Conditioning System - Schematic (2 Sheets) 9/10<BR>2 Air Conditioning Unit (ACU) - Schematic 13/14<BR>3 Air Conditioning and Footwarmer/Demister Controls (2 Sheets) 15<BR>2 - CONTENTS<BR>Page 1<BR>Apr 10/95<BR>cnSBSrtQUtr<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>Figure Title<BR>Number<BR>4 Temperature Control Panel (2 Sheets)<BR>5 Pressurization System - Schematic<BR>6 Cabin Pressurization Control Panel (2 Sheets)<BR>7 Cabin Altitude, Rate and Differential Pressure Indicator<BR>8 Cockpit Heater<BR>2 - CONTENTS<BR>Page 2<BR>Apr 10/95<BR>Page<BR>17<BR>19<BR>20<BR>22<BR>23<BR>cacnhaaduaeirn cjer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>SECTION 2<BR>AIR CONDITIONING/PRESSURIZATION<BR>1. AIR CONDITIONING (Figures 1 and 2)<BR>A. General<BR>The air conditioning/pressurization system uses conditioned air from two<BR>identical air conditioning units (ACU) to provide complete environmental<BR>control for the cabin and flight compartment. The system also provides air<BR>for instrument cooling, windshield demister and flight compartment<BR>footwarmers. Flight compartment exhaust air is routed to the underfloor<BR>area for avionics cooling.<BR>The ACUs are normally supplied by 10th stage bleed air from the engines,<BR>but can also be supplied by bleed air from the auxiliary power unit (APU)<BR>or from a high pressure ground air source (refer to Section 17),<BR>The cabin and flight compartment temperatures are controlled either<BR>automatically or manually and may be selected from 16 to 32°C (60 to 90°F).<BR>A ram air ventilation system is also available should both ACUs fail.<BR>B. Bleed Air Control System (Figures 1 and 2)<BR>The 10th stage bleed air manifold supplies the ACUs via left and right<BR>pressure regulating/shutoff valves. Each valve delivers bleed air to the<BR>associated ACU at a regulated pressure of either 39.5 or 24.0 psi. The<BR>higher pressure improves ACU cooling on the ground and ensures an adequate<BR>air supply during single ACU operation. The lower pressure reduces bleed<BR>air requirements and conserves fuel. The high or low pressure operation is<BR>a function of the weight-on-wheels signal (WOW system) and of whether one<BR>or two ACUs are being used. (For complete description of the bleed air<BR>system, refer to Section 17.)<BR>C. Air Conditioning Units (ACU) (Figures 2 and 3)<BR>The left and right air conditioning units (ACU) are located in the rear<BR>equipment bay. Each ACU includes a precooler, primary and secondary heat<BR>exchangers, and a cold air unit. A ram air intake, located in the base of<BR>the vertical stabilizer leading edge, directs ram air into each ACU heat<BR>exchanger and precooler. The expended ram air is ducted overboard.<BR>SECTION 2<BR>Page 1<BR>Apr 02/87<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>The following describes the left ACU only (right ACU identical):<BR>10th stage bleed air is fed to the ACU and is passed through the<BR>precooler. The precooled air is split into two paths. One path feeds a<BR>temperature control valve which regulates the temperature of the cold air<BR>to provide conditioned air. The other path is passed to the primary heat<BR>exchanger for further cooling.<BR>The cooled air from the primary heat exchanger is passed to the cold air<BR>unit compressor to be compressed and heated. Compression heat is removed<BR>by the secondary heat exchanger. The air is then passed to the cold air<BR>unit turbine where it expands and cools as it drives the turbine. Before<BR>entering the distribution ducting, the air is routed to a water separator<BR>to remove condensation produced in the turbine. The removed condensation<BR>is sprayed across the secondary heat exchanger to improve system cooling.<BR>To prevent ice build-up in the water separator and to provide for maximum<BR>system cooling, the temperature of the air discharged from the cold air<BR>unit is maintained at 2*C {35*F) by a low-limit temperature control<BR>system. The system allows bleed air from the ACU precooler to enter the<BR>cold air unit turbine to maintain the cold air at the desired<BR>temperature.<BR>An ejector in the ram air duct induces a cooling air flow across the heat<BR>exchangers. The ejector operates whenever the ACU is selected on and the<BR>aircraft is on the ground or when an overheat anticipator switch, located<BR>between the cold air unit and the secondary heat exchanger, senses a near<BR>overheat condition, i.e., high transient temperatures associated with<BR>single ACU operation at high engine power settings (high engine bleed<BR>temperatures).<BR>An overpressure switch and an overtemperature switch protect the ACU<BR>against excessive pressure and temperature. Excessive pressure puts on<BR>an ACU FAIL light and closes the ACU pressure regulating/shutoff valve,<BR>the associated 10th stage bleed air shutoff valve and (if open) the 10th<BR>stage bleed air isolator valve. The system must be electrically<BR>de-energized before attempting to open the affected valves and reselect<BR>the ACU on. Excessive temperature puts on the ACU FAIL light and closes<BR>the ACU pressure regulating/shutoff valve. The 10th stage bleed air<BR>shutoff valve and the 10th stage bleed air isolator valve are not<BR>affected. Pressure is maintained in the 10th stage bleed air manifold<BR>and the ACU can be reselected on after the ACU FAIL light goes out.<BR>A thermal switch downstream of the cold air unit also puts on the ACU<BR>FAIL light if bleed air continues to enter the ACU (ACU pressure<BR>regulating/shutoff valve fails open) when the ACU is selected off.<BR>Controls and indicators for the ACUs are located on the BLEED AIR control<BR>panel.<BR>On aircraft 5135 thru 5299 with Canadair Service Bulletin 601-0437, the<BR>ACUs normally require AC power to operate, however if both IDGs have<BR>failed, the left-hand ACU is operable through the 28VDC ESS BUS.<BR>SECTION 2<BR>Page 2<BR>Apr 10/95<BR>cmcrrSmmammntrQ sr<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>D. Distribution Ducting (Figure 1)<BR>The distribution ducting consists of two conditioned air ducts and two<BR>cold air ducts. The conditioned air ducts supply the overall air<BR>conditioning while the cold air ducts supply the individual eyeball-type<BR>air vents (gaspers), both in the flight compartment and in the cabin.<BR>The left conditioned and cold air ducts are supplied by the left ACU.<BR>The right conditioned and cold air ducts are supplied by the right ACU.<BR>During normal operation, approximately 60% of the left conditioned air<BR>duct output is directed to the flight compartment while the remaining<BR>output is directed to the cabin. All of the right conditioned air duct<BR>output is directed to the cabin.<BR>Crossover ducts between the left ducts and the right ducts cater to<BR>possible asymmetric supplies, while balancing valves in the conditioned<BR>air ducts ensure even distribution of conditioned air.<BR>E. Temperature Control Systems (Figures 2 and 4)<BR>The flight compartment and the cabin have identical but independently<BR>operated temperature control systems. The flight compartment system<BR>monitors and controls the left ACU, and the cabin system monitors and<BR>controls the right ACU.<BR>NOTE: The following describes the flight compartment (COCKPIT) system<BR>only. The CABIN system is identical.<BR>The temperature of the conditioned air is regulated by mixing the cold<BR>and the warm air outputs of the ACU. This is accomplished by varying the<BR>position of a temperature control valve to regulate the amount of the ACU<BR>warm air output introduced into the ACU cold air output, before delivery<BR>into the conditioned air supply duct.<BR>The conditioned air supply duct is protected against excessive<BR>temperatures by a temperature limiter. Should the duct temperature<BR>exceed 88#C (190#F), the temperature limiter pneumatically signals the<BR>temperature control valve to close. When the duct temperature drops<BR>below 88*C (190#F), the system returns to normal operation.<BR>Controls for the temperature systems are provided by the TEMPERATURE<BR>CONTROL panel. Three modes of operation are available: NORMAL, STANDBY<BR>and MAN (manual). Depending on the mode selected, the system responds to<BR>all, some or none of the signals supplied by an electronic temperature<BR>control unit, a supply duct temperature sensor and a fan sensor. (The<BR>COCKPIT system fan sensor is located under the copilot's console. The<BR>CABIN system fan sensor is located above the mid-cabin ceiling.)<BR>The NORMAL mode provides a fine temperature control to within ±1.6"C<BR>(±3T) of the desired temperature. The STANDBY mode, in addition to<BR>being a backup mode to the NORMAL mode, provides a coarser and faster<BR>temperature control than the NORMAL mode. The MAN (manual) mode provides<BR>a direct and independent electrical control to the temperature control<BR>valve (backup operation for electrically disabled NORMAL and STANDBY<BR>modes).<BR>SECTION 2<BR>Page 3<BR>Apr 10/95<BR>cSSSKb&laquo;r<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>| F. Footwarmer and Demister System (Aircraft 5001 to 5134) (Figures 1 and 3)<BR>The footwarmer and demister system is independent of the normal air<BR>conditioning/pressurization system. It is used to supplement flight<BR>compartment heating and to provide windshield demisting. This system<BR>also provides emergency pressurization (refer to paragraph 2.E.).<BR>The air supply for the foortwarmer and demister system is taken from the<BR>10th stage bleed air manifold through one of the two pressure<BR>regulating/shutoff valves (LH footwarmer/demister valve and RH<BR>footwarmer/demister valve). During normal operation, bleed air is taken<BR>from the RH footwarmer/demister valve. A similar supply is available<BR>from the LH footwarmer/demister valve for standby/emergency use.<BR>A footwarmer/demister heat exchanger cools the bleed air to a temperature<BR>j of 66*C-77*C (150#F-170#F) using ram air as the cooling medium. When the<BR>aircraft is on the ground (sensed by the WOW system), ram air cooling is<BR>assisted by an electric fan which operates whenever the system is<BR>operating.<BR>An overtemperature switch located downstream of the heat exchanger<BR>protects the system against excessive temperature by closing whichever<BR>(RH or LH) footwarmer/demister valve is open. If excessive temperature<BR>i s detected while emergency pressurization is in operation, this<BR>automatic shutdown feature is overridden and the emergency pressurization<BR>i s maintained.<BR>Controls for the footwarmer and demister system are provided by the CKPT<BR>HEAT switch on the BLEED AIR panel and by the FOOTWARMER and DEMIST pull<BR>knobs on the copilot's facia panel.<BR>J 6. Footwarmer and Demister System (Aircraft 5135 and subsequent)<BR>I (Figures 1 and 3)<BR>J The footwarmer and demist system is connected to the conditioned air<BR>I system. The footwarmer and demist system supplements the flight<BR>J compartment heating and provides demisting to the inside surface of the<BR>j windshield. A diverter valve assembly in the flight compartment directs<BR>J the flow of air to the footwarmer and/or the windshield demist outlets.<BR>! The valve is controlled by a push-pull cable connected to selector<BR>located on the co-pilot's fascia panel.<BR>j On aircraft 5142, 5160 and subsequent and aircraft incorporating Canadair<BR>Service Bulletin 601-0419 (Figures 4 and 8),<BR>J air from the flight compartment flows through a fan and a heater to the<BR>diverter valve. The system is operated by a COCKPIT HEAT switch on the<BR>TEMPERATURE CONTROL panel. When the COCKPIT HEAT switch is set to ON<BR>I position, both the fan and the heater come on.<BR>I If an overtemperature condition occurs, the temperature switch, which is<BR>j positioned immediately upstream of the diverter valve, removes power to<BR>the heater. The fan keeps operating to remove the heat in the system .<BR>J When the temperature reaches a safe level, the temperature switch will<BR>I reset and power will be supplied to the heater again. If the fan<BR>J operates below 60% of the correct operating speed, power to the heater<BR>I and the fan will be removed and latched.<BR>SECTION 2<BR>Page 4<BR>Apr 10/95<BR>cacnhaadiiaeinr Qer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>| H. Ram Air Ventilation System (Figures 1 and 6)<BR>The ram air ventilation system permits entry of ram air into the left<BR>conditioned air duct by opening the normally closed ram air vent shutoff<BR>valve. This system should only be used if both ACUs fail, to provide<BR>ambient air to both the cabin and the flight compartment.<BR>Control for this system is provided by the RAM AIR VENT switch/light on<BR>the CABIN PRESSURIZATION control panel.<BR>2. PRESSURIZATION (Figures 1, 5, 6 and 7)<BR>A. General<BR>The pressurized area of the aircraft extends from the pressure bulkhead<BR>immediately forward of the windshield to the pressure bulkhead at the<BR>rear of the cabin, and includes the underfloor area. The pressurized<BR>area of the aircraft is automatically maintained to a maximum cabin<BR>altitude of 8000 feet, and the cabin differential pressure is maintained<BR>between +9.5 ±0.1 and -0.5 psi. A manual backup control is provided.<BR>An emergency depressurization system provides a means of rapidly<BR>| depressurizing the cabin. On aircraft 5001 to 5134, an emergency<BR>pressurization system is also available should both air conditioning<BR>units (ACU) fail.<BR>B. Cabin Pressurization Controller<BR>The cabin pressurization controller receives signals from the CABIN<BR>PRESSURIZATION control panel, cabin and ambient pressure sensors and the<BR>WOW system. The controller converts those signals into commands to open<BR>or close the outflow valves in accordance with instructions in the memory<BR>of the controller.<BR>C. Outflow Valves<BR>Two outflow valves, designated primary and secondary outflow valves, are<BR>located in the rear pressure bulkhead. The valves are pneumatically<BR>interconnected to operate together. Their purpose is to maintain the<BR>cabin pressure by governing the rate of outflow of cabin air exhausted to<BR>atmosphere.<BR>(1) Primary Outflow Valve<BR>This valve is an electro-pneumatic valve. It responds to electrical<BR>signals from the cabin pressurization controller and pneumatically<BR>modulates to increase or decrease cabin pressure. This valve can<BR>also operate using only pneumatic inputs from the secondary outflow<BR>valve.<BR>(2) Secondary Outflow Valve<BR>This valve is a pneumatic valve only. It operates in a similar<BR>manner to the primary outflow valve except it uses pneumatic inputs<BR>only, either from the primary outflow valve or the manual regulator<BR>on the cabin pressurization control panel.<BR>SECTION 2<BR>Page 5<BR>Apr 10/95<BR>cacnhaadiiaeinr Qer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>(3) Positive Differential Pressure Control<BR>A pneumatic circuit within each outflow valve opens the outflow valve<BR>to vent excessive cabin pressure. The primary and secondary outflow<BR>valves are preset to open at a differential pressure of 9.1 ±0.10 and<BR>9.3 ±0.10 psi respectively.<BR>(4) Negative Differential Pressure Control<BR>A diaphragm assembly within each outflow valve opens the outflow<BR>valve sufficiently to prevent negative differential pressure from<BR>exceeding -0.5 psi.<BR>(5) Cabin Altitude Limiter<BR>A bellow-operated assembly within each outflow valve closes the<BR>outflow valve to prevent the cabin altitude from being exceeded.<BR>This limiter overrides any valve or controller selections or<BR>malfunctions that could cause this cabin altitude limit to be<BR>exceeded.<BR>D. Emergency Depressurization System<BR>The emergency depressurization system provides a separate circuit to open<BR>both outflow valves while using the cabin altitude limiter to prevent the<BR>cabin altitude from being exceeded.<BR>E. Emergency Pressurization System (Aircraft 5001 to 5134)<BR>The emergency pressurization system uses the footwarmer/demister ducting<BR>as an alternate path for 10th stage bleed air to provide a pressure and<BR>temperature regulated air supply for pressurization. When activated, the<BR>emergency pressurization system ensures 10th stage bleed air is available<BR>to the footwarmer/demister ducting and the conditioned air ducting by<BR>opening the LH footwarmer/demister valve and the emergency pressurization<BR>shutoff valve.<BR>F. Cabin Pressurization Control Panel (Figure 6)<BR>The CABIN PRESSURIZATION control panel has two modes of operation. It<BR>also provides controls for emergency depressurization and on aircraft<BR>5001 to 5134, emergency pressurization.<BR>(1) Automatic Mode<BR>In this mode, the cabin pressurization controller provides automatic<BR>pressurization control as dictated by the phase of flight. An<BR>example follows:<BR>(a) Ground Sub-Mode<BR>When electrical power is supplied to the system, the outflow<BR>valves are commanded fully open to ensure minimum differential<BR>pressure.<BR>SECTION 2<BR>Page 6<BR>Jan 16/04<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>(b) Take-Off Sub-Mode<BR>When the throttle levers are advanced, the outflow valves are<BR>commanded closed until the cabin altitude is 200 feet below the<BR>existing airport altitude. This provides sufficient cabin<BR>pressure to eliminate pressure surges at lift off.<BR>If take-off is aborted, as the throttle levers are pulled back,<BR>the cabin is returned at a controlled rate to the ground sub-mode<BR>of operation.<BR>(c) Flight Sub-Mode<BR>In flight, a fixed schedule of cabin altitude verses aircraft<BR>altitude is used to automatically regulate cabin pressure and<BR>maintain the appropriate cabin altitude. With the landing<BR>altitude and the barometric pressure set by the cabin pressure<BR>selector A and B knobs respectively, the set landing altitude and<BR>the automatically scheduled cabin altitude are compared and the<BR>higher of the two altitudes is used as a control altitude. If<BR>the control altitude is higher than the take-off altitude, the<BR>cabin altitude is increased until it equals the control<BR>altitude. If the set landing field altitude and the control<BR>altitude are both lower than the take-off altitude, the cabin<BR>altitude is maintained at the take-off altitude for 60 seconds<BR>after the aircraft has achieved level flight. Following this<BR>delay, the cabin altitude is lowered to the control altitude.<BR>The rate of change of cabin altitude is proportional to the<BR>aircraft vertical speed up to the maximum rate set on the R knob<BR>of the cabin pressure selector.<BR>(d) Landing Sub-Mode<BR>As the aircraft descends, the cabin altitude decreases<BR>proportionately to the aircraft vertical speed (up to the maximum<BR>rate set on the R knob of the cabin pressure selector) until the<BR>cabin altitude equals the set landing altitude. After touch<BR>down, any residual cabin pressure is released at the selected<BR>rate for a maximum of 60 seconds or until the cabin becomes<BR>unpressurized. At the end of the 60-second interval, the system<BR>returns to the ground sub-mode.<BR>SECTION 2<BR>Page 7<BR>Apr 02/87<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>(2) Manual Mode<BR>Loss of electrical power automatically reverts the system to the<BR>manual mode. The manual mode can also be selected with the MODE<BR>switch.<BR>Following an electrical power loss, or a manual mode selection, an<BR>isobaric hold device maintains the existing cabin altitude. The<BR>cabin altitude is thereafter controller manually by setting the<BR>manual regulator UP/DN selector to the appropriate position and by<BR>using the RATE knob (a needle valve type pneumatic control) to<BR>regulate rate of change of cabin altitude.<BR>(3) Emergency Depressurization<BR>When activated, the cabin is depressurized until the maximum cabin<BR>altitude is reached.<BR>(4) Emergency Pressurization (Aircraft 5001 to 5134)<BR>When activated (both ACUs not available), the cabin pressurization is<BR>maintained by the footwarmer/demister system. The CABIN<BR>PRESSURIZATION control panel continues to function in automatic (or<BR>manual) mode. Emergency depressurization is still available.<BR>Opening the footwarmer/demist diverter valve, via the FOOTWARMER and<BR>DEMIST pull knobs, increases airflow and heating in the flight<BR>compartment.<BR>If an overheat condition occurs in the footwarmer/demister system<BR>while emergency pressurization is in operation, the automatic<BR>shutdown feature of the system is overridden and emergency<BR>pressurization is maintained.<BR>SECTION 2<BR>Page 8<BR>Jan 16/04<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>FLIGHT COMPARTMENT REAR<BR>PRESSURE<BR>BULKHEAD<BR>WINDSHI&amp;D<BR>OEM1STSI<BR>• &lt; ^ I J H * 9 )&laquo;<BR>- ^<BR>KZ7<BR>&lt;3-<BR>LEGEND<BR>10TH STAGE BLEED AIR<BR>WARM (PRECOOLED) AIR<BR>COLD AIR<BR>CONDITIONS* AIR<BR>FOOTWARMBl/DEMISTER AIR<BR>ELECTRICAL SIGNAL<BR>CHECK VALVE<BR>SHUTOFF VALVE<BR>REGULATING/SHUTOFF VALVE<BR>CONDITIONED AIR VBIT<BR>COLD AIR VENT (GAS PER)<BR>EFFECT!VTTY: A/C 5001 TO 5134<BR>W<BR>4&gt;<BR>X CLOSE<BR>CKPTHEA1<BR>^ - * &gt; STBY —'<BR>O O F F<BR>^—^NORM —n<BR>- . CLOSE<BR>LHENG<BR>FIRE<BR>I PUSH<BR>RHENGi<BR>I HRE II<BR>PUSH<BR>Air Conditioning System - Schematic<BR>Figure 1 (Sheet 1) SECTION 2<BR>Page 9/10<BR>Apr 10/95<BR>OPBUT1NG MANUAL<BR>PSP 601A-6<BR>FLIGHT COMPARTMBtfT BULKHEAD CABIN REAR<BR>PRESSURE<BR>BULKHEAD<BR>PRESSURES) | UNPRESSURIZHD<BR>FROM<BR>BfGlNE<BR>LRK3fTBLffi)AIR<BR>SHUTOFF VALVE<BR>S N ^ &lt;4&gt;"^<BR>WINDSHiaD<BR>DBYUSTB* FOOTWARMER 1-<BR>X / W A* 6fcr / ^ W w N<BR>* *<BR>A A n BALANCING<BR>U VALVE<BR>S S I I 7<BR>91 ?<BR>AOJ<BR>PRESSURE<BR>REGULATING/<BR>SHUTOFF<BR>VALVE<BR>RAM<BR>AIR<BR>OUT<BR>•<BR>•<BR>A TBMPBtATURE<BR>(XjCOVHAmLOVEL<BR>/ X X / A X / / / / ^<BR>RIGHT<BR>AIR<BR>KCONOmONING<BR>(SSFIG.2)<BR>10* STAGE<BR>&pound; = : BLSDAIR v—/ ISOLATOR VALVE<BR>10th STAGE<BR>BLEED AIR *<BR>MANIFOLD<BR>FROM^ST<BR>APU ™<BR>LEGEND<BR>&reg;<BR>(2<BR>1QTH STAGE BLSD AIR<BR>WARM (PRECOOLED) AIR<BR>COLD AIR<BR>CONDITION&copy; AIR<BR>OECTRICAL SIGNAL<BR>CHECK VALVE<BR>SHUTOFF VALVE<BR>RS3ULATING/SHUT0FF VALVE<BR>CONDITIONS) AIR VBtfT<BR>COLD AIR VBJT (GAS PER)<BR>:<BR>$ I — * — r ~ ; —&amp;<BR>51 * $ T<BR>I_JJ<BR>\*******jr**jrjr+*+**+**jrjr***s.<BR>RAM<BR>AIR<BR>IN<BR>E&raquo;3?9<BR>t^s:y^si?^^-%^^a<BR>• ^ RAMAIRVBfT<BR>| *Z7 SHUTOFF VALVE<BR>/ / / / / / / / ; i ;^<BR>GROUND<BR>AIR<BR>SUPPLY<BR>I jy, TOAPBIATURE<BR>CONTROL<BR>^ f VALVE<BR>^-T^ LEFTBLS)<BR>(\ \ \ AIR SHUTDTF<BR>VJL/VALVE<BR>LMH@&laquo;<BR>LBT<BR>AIR<BR>CONDITIONING<BR>UNIT<BR>(SEE FK3.2)<BR>FROM<BR>LEFT<BR>CH13UVC<BR>AjOJ<BR>PRESSURE<BR>REGULATING/<BR>SHUTOFF<BR>VALVE<BR>wr<BR>RAM<BR>AIR<BR>OUT<BR>RAM<BR>EFFECTIVITY: A/C 5135 AND SUBS<BR>•W<BR>Air Conditioning System - Schematic<BR>Figure 1 (Sheet 2) SECTION 2<BR>Page 11/12<BR>Apr 10/95<BR>OPB*ATiNG MANUAL<BR>PSP 601A—6<BR>NOTE<BR>ON A/C 5135 TO 5299 POST SB601-0437<BR>THE LEFT-HAND TEMPERATURE CONTROLLER<BR>IS POWERED BY THE DC ECS BUS.<BR>W<BR>LEGEND<BR>nam<BR>1QTH STAGE BLEED AIR<BR>WARM (PRECOOLED) AIR<BR>COOL AIR<BR>ZZZZZZZ COLD AIR<BR>/ / / / / / CONOmONS&gt;AIR<BR>WATER DRAIN<BR>* — aECTRICAL SIGNAL<BR>RAM AIR<BR>IN<BR>TO COLD AIR<BR>SUPPLY DUCT<BR>TO CONDITIONED ,<BR>AIR SUPPLY 4 / X / / |<BR>DUCT JL B<BR>DUCTTaflP<BR>SBISOR<BR>r<BR>ASPIRATOR<BR>z\n\m\m\m\m\m\<BR>WATER • s~ S<BR>SEPARATOR—/^ •<BR>• TUH8INE ^COMPRESSOR<BR>/ /<BR>8B°C •<BR>(ISPF) 5<BR>TEMP •<BR>UMITER •<BR>SS<BR>TBWP<BR>CONTROL<BR>VALVE<BR>% L_3 I COLD AW UNIT II<BR>2*C (3S°F) LOW LIMIT<BR>TEMPS*ATURE CONTROL<BR>oo<BR>PAN<BR>SBISOR<BR>OVERPRESS<BR>CLOSE<BR>10TH STAGE BIFEO AIR SHUTOFF<BR>MANIFOLD AND<BR>10TH STAGE BLEED AIR<BR>ISOLATOR VALVE (IF OP&amp;I)<BR>1<BR>ELECTRONIC<BR>TBrtPBIATURE<BR>CONTROL UNIT<BR>D<BR>r !&gt;. (SB&gt;ARATE POWSl<BR>SOURCES)<BR>TEMVHtATUIIE CONTROL<BR>D<BR>"0<BR>•&lt;9f<BR>Q • VALVE<BR>CLOSE<BR>ARMS<BR>TBMP<BR>SWITCH<BR>ACUPRESSURE<BR>REGULATING/<BR>SHUTOFF VALVE<BR>A f\<BR>EJECTOR<BR>SHUTOFF<BR>VALVE<BR>CLOSE<BR>QPB4/CL0SE<BR>FROM10TH<BR>STAGE BLEED AIR<BR>MANIFOLD<BR>( L f fT ACU ILLUSTRATH))<BR>A i r Conditioning Unit (ACU) - Schematic<BR>Figure 2 SECTION 2<BR>Page 13/14<BR>Apr 10/95</P>
<P>OPERATING MANUAL<BR>PSP 601A-6<BR>FOOTWARMER AND DEMIST<BR>PULL KNOBS<BR>When putted, associated diverter<BR>valvals) opente) to direct<BR>footwarmer/demist air to tha<BR>appropriate outtetb).<BR>COPILOTS FACIA PANEL<BR>BLEED AIR PRESSURE GAUGE<BR>indicates bleed air pressure in left<BR>and right sides of *Oth stage bleed<BR>air manifold.<BR>OCPT HEAT SWITCH<BR>Three position switch controls supply of engine bleed<BR>air to footwarmer/demist system.<BR>NORM - RH footwarmer valve is open.<BR>STBY - LH footwarmer valve is open.<BR>OFF - Both the RH and the LH footwarmer valves are<BR>SFFECTIVnY: Afc 5001 TO 5134 OVERHEAD PANEL<BR>L AND R ACU SWITCH/LIGHTS<BR>Control operation of the air conditioning units.<BR>When pressed in, associated ACU pressure<BR>regulating/shutoff verve opens and white OFF<BR>light goes out.<BR>When pressed out. associated ACU pressure<BR>regulating/shutoff valve closes and OFF light<BR>comes on.<BR>Amber FAIL light comes on:<BR>When overpressure occurs between<BR>primary heat exchanger and compressor<BR>section of cold air unit.<BR>- When overtemperature occurs in air<BR>supply from cold air unit.<BR>- When switch/tight is pressed out (ACU<BR>off) and ACU pressure regulating/shutoff<BR>varve farts open.<BR>Air Conditioning and<BR>Footwarmer/Demister Controls<BR>Figure 3 (Sheet 1)<BR>SECTION 2<BR>Page 15<BR>Apr 10/95<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>FOOTWARMS* AND DEMIST PULL KNOB<BR>vWtmn pUHQ, aSSUGBBSe Olmwi VWifl;<BR>coon(s) to csreot<BR>v eie apprapnasi WDII(I|.<BR>ID-I<BR>MQ — roooesinner em wmnwo w s<BR>rvny out — vnnoKWM * IB onjy.<BR>COPILOTS FACIA PANEL<BR>BJLffD AIR PRESSURE GAUGE<BR>|no*stss bleed air pressumm left<BR>•no nght siaes of 10th stage bleed<BR>* r manifold. ^^<BR>OVERHEAD PANEL<BR>B=FECTIVrrY:A/C 5136 AND SUBS<BR>L AND R ACU SWTTCH/UGHTS<BR>Control operation of the air condfuorung units.<BR>When pnmrl in, sseodstedACU prseaure<BR>rsgulsting/shiJtDff valve opens and white OFF<BR>fight goes out.<BR>When pressed out ssforiiterl ACU pressure<BR>fsgulstsig/ihutoff verve doses and OFF light<BR>comes on.<BR>Amber FAIL fight comes on:<BR>When overpressure &lt;#***&laquo;•• M<BR>pnmery heat exchanger and &lt;<BR>section of cold air unit.<BR>When ovarternpOEBtiUw *~*<BR>supply from cold air unit.<BR>- When aefftth/aflht ia pressed put &lt;ACU<BR>off) and ACU pressure tsguaning/shutoff<BR>valve fast open.<BR>Air Conditioning and<BR>Footwarmer/Demister Controls<BR>Figure 3 (Sheet 2)<BR>SECTION 2<BR>Page 16<BR>Apr 10/95<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>COCKPIT AND CABIN TEMPERATURE MODE SELECTOR SWITCHES<BR>Three-position selector switches selects mode of operation of the<BR>temperature control verves.<BR>NORMAL - Temperature control valve is automatically controBed by<BR>electronic temperature control unit with reference to fan sensor, duct<BR>temperature sensor and temperature control switch.<BR>STANDBY - Temperature control verve is automatically controlled by<BR>electronic temperature control unit with reference to duct temperature<BR>sensor and temperature control switch.<BR>MAN * Temperature control valve is manually controlled by temperature<BR>control switch. This mode requires periodic adjustments of TEMP control<BR>switch to maintain desired temperature.<BR>TEMPERATURE V/<BR>COCKPIT<BR>STANDBY<BR>NORMAL - v l y MAN<BR>COLD<BR>CABIN TBAPEBATURE INDICATOR<BR>Indicate* temperature sensed by<BR>a bulb in the cabin.<BR>COCKPIT AND CABIN TEMP CONTROL SWITCHES<BR>Rotary switches used to select desired cabin or flight compartment<BR>temperature.<BR>COPILOTS CONSOLE<BR>EFFECTTVTTY: A/C 5001 TO 5134 AND<BR>A/C 5135 TO 5141,5143<BR>TO 5159 WITHOUT SB 001-0419<BR>Temperature Control Panel<BR>Figure 4 (Sheet 1)<BR>SECTION 2<BR>Page 17<BR>Apr 10/95<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>COCKPIT AND CABIN TEMPERATURE MODE SELECTOR SWITCHES<BR>i modo of opofstxm of ths<BR>NORMAL - Tacnpanuuni control VMVO • auiofnaticatty controiisd by<BR>sJsctrorsc tarnpofstunt control unit with IBPMWIOO to ten sensor, duct<BR>tarnpsratufs asnsor and tsropsratufs control switch.<BR>STANDBY * Tacnpstatufs control WJIVS is autornaiicalry controflad by<BR>sJsctronsc tampuislurs control unit with isfaraiiGa to duct axnparaturs<BR>r snd tsmporatuni control switch.<BR>MAN * Tarnpsratufs control vahw is rninustly controaad by tatnporsturs<BR>control switch. This roods raquifBs psriodc adjsjstnamii of TEMP control<BR>switch to msmtsm t<BR>CABIN TSUPERATURE INDICATOR<BR>by<BR>a bulb in ths cabin.<BR>COCKPIT AND CABIN TEMP CONTROL SWITCHES<BR>Rotary switchss usad to aalact osairad csbm or Hight coropanrnsnt<BR>COPILOTS CONSOLE<BR>BFFECTIVnY: A/C 6142,6160 AND SUBS AND<BR>A/C 8135 TO 5141, 514S TO 6159<BR>WITH8B601-M19<BR>Temperature Control Panel<BR>Figure 4 (Sheet 2)<BR>SECTION 2<BR>Page 18<BR>Apr 10/95<BR>cacnhaadiiaeinr Qer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>Pressurization System - Schematic<BR>Figure 5<BR>SECTION 2<BR>Page 19<BR>Apr 10/95<BR>cacnhaadnaeinr qer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>Cabin Pressurization Control Panel SECTION 2<BR>Figure 6 (Sheet 1) Page 20<BR>Jan 16/04<BR>cacnhaadnaeinr qer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>Cabin Pressurization Control Panel SECTION 2<BR>Figure 6 (Sheet 2) Page 21<BR>Jan 16/04<BR>cacnhaadiiaeinr Qer<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>Cabin Altitude, Rate and<BR>Differential Pressure Indicator<BR>Figure 7<BR>SECTION 2<BR>Page 22<BR>Apr 10/95<BR>OPERATING MANUAL<BR>PSP 601A-6<BR>WINDSHIELD<BR>VENT<BR>4*<BR>FOOTWARMER<BR>TEMPERATURE S *<BR>CONTROLr<BR>SWITCH<BR>&gt;LI r—<BR>• (g^WiB^BlBiaiMS<BR>• *<BR>i<BR>• *<BR>FAN SENSOR<BR>I B I H I B I B i a i B I l if<BR>f<BR>l l f l l l<BR>FAN<BR>O<BR>700W<BR>W-FOOTWARUe*<BR>OUT-WWD8H1ELDVBTT<BR>UiBiaiB<BR>INTAKE<BR>HEATER<BR>COCKPIT HEAT<BR>ON<BR>OFF<BR>!!•!!<BR>LEGEND<BR>FOQTWARMER/DEM1STER AIR<BR>ELECTRICAL SIGNAL<BR>REGULAT1N6/SHUT0FF VALVE<BR>EFFECTTVTTY: A/C 5142,51*0 AND SUBS AND<BR>A/C 5135 TO 5141,5143 TO 5150<BR>WITH SB 601-0419<BR>Cockpit Heater<BR>Figure 8 SECTION 2<BR>Page 23<BR>Apr 10/95</P>

f214216709 发表于 2010-5-18 11:52:32

庞巴迪挑战者空调和增压

guomai127 发表于 2010-9-11 09:16:45

:lol :lol :lol

dul 发表于 2011-2-11 13:32:27

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bocome 发表于 2011-7-31 11:16:13

空调和增压

autofannuaa 发表于 2011-12-7 14:15:11

偶然经过,学习一下
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