Руководство по ремонту mitsubishi fuso canter скачать бесплатно

Руководство по монтажу кузовов/оборудования Mitsubishi Canter.

Руководство на английском языке по монтажу кузовов/надстроек для автомобилей Mitsubishi Canter серий FE/FG.

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Руководство по ремонту и ТО Mitsubishi Canter 1993-2002 г.

Руководство по техническому обслуживанию и ремонту автомобиля Mitsubishi Canter 1993-2002 годов выпуска с дизельными двигателями

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Руководство по ремонту и ТО Mitsubishi Fuso Canter с 2010 г.

Руководство по эксплуатации, техническому обслуживанию и ремонту автомобиля Mitsubishi Fuso Canter с 2010 года выпуска с дизельным двигателем модели 4M50 (4,9 л).

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Руководство по ремонту и эксплуатации Mitsubishi Fuso Canter с 2010 г.

Руководство по эксплуатации и ремонту автомобиля Mitsubishi Fuso Canter с 2010 года выпуска с дизельным двигателем объемом 4,9 л.

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Спецификация Mitsubishi Canter.

Спецификации на английском языке автомобилей Mitsubishi Canter серий FB/FE/FG.

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For Colombia              

For Colombia

Shop Manual

Shop Manual

4M5 diesel engine

4M5 diesel engine

( EURO 4 )

Pub.No.00ELT0085, MARCH 2015

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Summary of Contents for Mitsubishi Fuso CANTER FE85DE6SLGP

  • Page 1
    ( EURO 4 ) For Colombia For Colombia                              Pub.No.00ELT0085, MARCH 2015 Shop Manual Shop Manual 4M5 diesel engine 4M5 diesel engine…
  • Page 2
    MARCH 2015 Applicable models (engine) 4M50T5 ©2015 Mitsubishi Fuso Truck & Bus Corporation Printed in Japan…
  • Page 3
    This Shop Manual contains the information classified into the following groups. If any system or equipment has two or more variations with significantly different construction, the variations are handled as different groups. These groups are identified by different alphabets preceded by the same number. 1.
  • Page 4
    GROUP 00 GENERAL VEHICLE MODEL CODING SYSTEM ……….00-2 EQUIPMENT TYPE CODES LIST …………00-3 POWER TRAIN TABLE …………..00-4 HOW TO READ THIS MANUAL …………00-6 CHASSIS NUMBER, ENGINE NUMBER AND VEHICLE IDENTIFICATION NUMBER……….00-14 PRECAUTIONS FOR MAINTENANCE OPERATION …………..
  • Page 5
    VEHICLE MODEL CODING SYSTEM 10 11 F E 8 5 D E Basic vehicle type Cab-over engine truck 2 ton class and over, 4 × 2 Load capacity, drive system Cab type Wide cab Rigid axle Vehicle variations, Suspension Light duty vehicle (G.V.M. 7000 kg or more) Engine 4M50T 3350 mm…
  • Page 6
    EQUIPMENT TYPE CODES LIST Component Name plate marking Code description Engine 4M50T5 Power version number Turbocharged Order of development within same series Order of development among different series Diesel engine No. of cylinders (4) Clutch C5W33 Disc OD Facing material (W: Woven) Load capacity (in tonnes) of main model Initial letter of the clutch Transmission…
  • Page 7
    POWER TRAIN TABLE Reduction & Vehicle model Engine Clutch Transmission Propeller shaft Rear axle Differential FE85DE6SLGP 4M50T5 C5W33 M036S6 R035T D035H FE85DG6SLGP 4M50T5 C5W33 M036S6 R035T D035H FE85DHZSLGP 4M50T5 C5W33 M036S6 R035T D035H 00-4…
  • Page 8
    M E M O 00-5…
  • Page 9
    HOW TO READ THIS MANUAL This manual consists of the following parts: • Specifications • Structure and Operation • Troubleshooting • Circuits • Electrical Equipment Installation Positions • Inspection of Electrical Equipment • On-vehicle Inspection and Adjustment • Service procedures •…
  • Page 10
    Tightening torque • Values are directly specified for out-of-standard tightening torques for bolts and nuts. • Where there is no specified figure for tightening torque, follow the table covering standard tightening torques. (Values for standard tightening torques are based on thread size and material.) •…
  • Page 11
    HOW TO READ THIS MANUAL Illustrated Parts Breakdown and Service Procedures Symbol Denotation Application Remarks Specified values shown in table Parts not tightened to standard torques See Table of Standard Tightening Torques for Tightening torque (standard torques specified where neces- parts for which no tightening torques are speci- sary for servicing) fied.
  • Page 12
    00-9…
  • Page 13
    HOW TO READ THIS MANUAL How to Read Circuits (Electrical) 00-10…
  • Page 14
    1.1 Index number: • Index numbers are used as reference numbers for electrical circuits. Each electrical circuit has been assigned its own index number. 1.2 Key number: A01 to Z99 • Key numbers indicate electrical equipment installation locations. The installation location of an electrical equip- ment can be easily found using its key number shown in a circuit diagram.
  • Page 15
    HOW TO READ THIS MANUAL Wire color Wire color Base color + tracer Black/ Black/ Black/ Black/ Black/ Black/red BG white yellow green blue orange Black Black/ Black/ Black/ B Br pink violet brown Brown/ Brown/ Brown/ Brown/ Brown/ Brown/ white black yellow…
  • Page 16
    M E M O 00-13…
  • Page 17
    CHASSIS NUMBER, ENGINE NUMBER AND VIHICLE IDENTIFICATION NUMBER • Serial chassis and engine numbers are assigned to the vehicles and engines in manufacturing sequence. Every vehicle and engine has its own number. These numbers are required for registration and related inspection of the vehicle.
  • Page 18
    (12) (1) Geographic area J: Asia (Japan) (2) Country L: Japan (3) Manufacture C: Mitsubishi Fuso Truck & Bus (4) GVW & Brake type B: 3.5 t < GVW ≦ 12 t/Hydraulic (5) Model C: FE84P D: FE85P 1: FE85D (6) Series (wheel base) E: 3.2 to 3.49 m…
  • Page 19
    PRECAUTIONS FOR MAINTENANCE OPERATION 1. General Precautions • Before performing service operations, inquire into the customer’s complaints and ascertain the condition by checking the total distance traveled, the conditions under which the vehicle is operated, and other relevant factors on the vehicle. And note the necessary information. This information will help you to service the vehicle efficiently. •…
  • Page 20
    • If lifting eyes are not provided on the item being lifted, tie a ca- ble around the item taking into account the item’s center of gravity. • Do not allow anyone to pass or stay under a lifted item which may possibly fall.
  • Page 21
    • Oil seals, packings, O-rings and other rubber parts, gaskets, and split pins must be replaced with new ones after removal. Use only genuine MITSUBISHI replacement parts. • When disassembling parts, visually check them for wear, cracks, damage, deformation, deterioration, rust, corrosion, defective ro- tation, fatigue, clogging and any other possible defect.
  • Page 22
    2. Handling of Battery 2.1 Handling of battery cable • Before working on the electrical system, disconnect the (–) bat- tery cable to prevent short circuits. CAUTION • Make sure that the starter switch and lighting switches are OFF before disconnecting or connecting battery cable. (Semiconductor components may otherwise be damaged.) •…
  • Page 23
    PRECAUTIONS FOR MAINTENANCE OPERATION • When applying a voltage to a part for inspection purposes, check that the (+) and (–) cables are connected properly then gradually increase the voltage from zero. Do not exceed the specified voltage. Remember that control units and sensors do not necessarily op- erate on the battery voltage.
  • Page 24
    (2.2) Inspections on male terminals • Perform the inspection by applying test probes directly to the pins. CAUTION • Be careful not to short-circuit pins together with the test probes. With control unit connectors, short-circuiting of pins can cause damage to the control unit’s internal circuit- •…
  • Page 25
    PRECAUTIONS FOR MAINTENANCE OPERATION • Check for defective connections caused by loose terminals, by rust on terminals, or by contamination of terminals by foreign substances. (2) Checking for loose terminals • If connector terminal retainers become damaged, male and fe- male terminals may not mate with each other when the connec- tor bodies are fitted together.
  • Page 26
    5. Service Precautions for Alternators • When servicing alternators, observe the following precautions: • Never reverse the polarity of battery connections. If the polarity of the battery connections were to be reversed, a large current would flow from the battery to the alternator, damaging the diodes and regulator.
  • Page 27
    PRECAUTIONS FOR MAINTENANCE OPERATION • Disconnect the battery cables before quick-charging the battery with a quick charger. Unless the battery cables are disconnected, quick-charging can damage the diodes and regulator. 6. Intermittent Faults • An intermittent fault typically occurs only under certain operating conditions.
  • Page 28
    7. Precautions for Arc Welding • When arc welding is performed, current from the welder flows to ground via the vehicle’s metal parts. Unless ap- propriate steps are taken, this current can damage control units, other electrical devices and wiring harnesses. And any electrical device near the point on the vehicle to which the (–) cable of the welder is connected, might be largely damaged.
  • Page 29
    JACKING UP THE VEHICLE <Front of Vehicle> Jacking up procedure 1 Place chocks against the rear wheels. 2 Jack up the front of the vehicle with a bottle jack or garage jack. 3 Support the front of the vehicle frame on jack stands. WARNING •…
  • Page 30
    <Rear of Vehicle> Jacking up procedure 1 Place chocks against the rear wheels. 2 Jack up the rear of the vehicle using a bottle jack or garage jack as illustrated above. 3 Support the vehicle frame on jack stands on both sides. WARNING •…
  • Page 31
    DIAGNOSIS CODES 1. Diagnosis Codes • The diagnosis code indicates the faulty location(s) of the vehicle. • Reading the diagnosis code(s) and performing the corresponding remedy (troubleshooting) repairs the faulty lo- cation(s). • Diagnosis codes can be displayed in the following two methods. Select either of them according to the system to be diagnosed.
  • Page 32
    Mark Tool name and shape Part No. Application Multi-Use Tester har- ness E MH063659 A: For inspection and A: MH063661 drive recorder B: MH063663 Power supply to V.C.I. and communi- B: For drive recorder C: MH063665 cation with electronic control unit C: Drive recorder har- D: MH063666 ness…
  • Page 33
    DIAGNOSIS CODES <Preparation for inspection using the drive recorder function> • Move the starter switch to the LOCK position. • Connect installed PC, -D and as illustrated. • Connect the Multi-Use Tester connector on the vehicle with the connector of <To extend the cable>…
  • Page 34
    (1) Reading diagnosis codes • To read a diagnosis code, observe how may times the warning lamp flashes and how long each illumination lasts. • The duration of illumination differs between the first and second digits. • Second digit: 1.2 sec. •…
  • Page 35
    TABLE OF STANDARD TIGHTENING TORQUES 1. Tightening Torques • Tightening torques are roughly classified into the following two categories: Availability of How to determine tightening Tightening torque Definition torque specifica- torque tions in text Locate a bolt or nut correspond- Standard tightening Tightening torque determined according to thread None…
  • Page 36
    Strength 8.8 (Nut 4T) 8.8 (Nut 6T) Automotive screw thread 18 to 27 45 to 60 {1.8 to 2.8} {4.6 to 6.1} Nominal 34 to 50 80 to 105 diameter {3.5. to 5.1} {8.2 to 11} 60 to 80 130 to 170 {6.1 to 8.2} {13 to 17} (2) Hexagon flange bolts (Unit: N·m {kgf·m})
  • Page 37
    TABLE OF STANDARD TIGHTENING TORQUES (3) Hexagon nuts (Unit: N·m {kgf·m}) Strength 6T (Bolt 7T) 6T (Bolt 8T) Automotive Coarse screw Automotive Coarse screw Automotive Coarse screw screw thread thread screw thread thread screw thread thread 2 to 3 4 to 6 5 to 7 –…
  • Page 38
    (6) Tightening torques of nylon tubes for general air piping (DIN) (Unit: N·m {kgf·m}) Nominal diameter 6 × 1 10 × 1.25 12 × 1.5 15 × 1.5 × wall thickness +0.6 +1.0 +1.0 +0.5 Tightening torque {2.0 {3.5 {5.0 {5.5 (7) Tightening torques of nylon tubes for general air piping (SAE) (Unit: N·m {kgf·m}) Nominal diameter…
  • Page 39
    GROUP 11 ENGINE SPECIFICATIONS……..11-2 TIMING GEARS AND BALANCE SHAFTS……….11-72 STRUCTURE AND OPERATION ……… 11-3 1. Exploded View CRANKSHAFT AND CRANKCASE ..11-80 2. Cylinder Head, Cylinder Head Gasket, BALANCE SHAFT BUSHINGS … 11-88 ..11-4 Camshaft and Camshaft Frame ……
  • Page 40
    SPECIFICATIONS Item Specifications Engine model 4M50T5 Type 4-cylinder, in-line, water-cooled, 4-cycle diesel engine Combustion chamber Direct injection type Valve mechanism Double overhead camshaft (DOHC) Maximum output kW {PS} / rpm 132 {180} / 2700 Maximum torque N·m {kgf·m} / rpm 530 {54} / 1600 Bore ×…
  • Page 41
    STRUCTURE AND OPERATION 1. Exploded View 11-3…
  • Page 42
    STRUCTURE AND OPERATION 2. Cylinder Head, Cylinder Head Gasket, Camshaft and Camshaft Frame • The camshaft is supported at its jour- nals from below by the cylinder head and retained from above by the cam- shaft frame. • The upper and lower camshaft bear- ings are identical, but cannot be inter- changed when they are reinstalled.
  • Page 43
    3. Valve Mechanism • The short rockers and the long rockers are installed differently, as shown in the illustration. • Each valve has an inner valve spring and an outer valve spring. 11-5…
  • Page 44
    STRUCTURE AND OPERATION 4. Connecting Rod Weight mark: “C” to “G” (with “G” as the maximum) 5. Piston • Each piston must be mated with a cyl- inder in the upper crankcase that has the same size mark as the piston. The pistons are marked with either “A”…
  • Page 45
    6. Timing Gears • All gears, except the vacuum pump gear, each has timing mark(s) to ensure correct engagement during assem- bly. 7. Flywheel • One side of each flywheel ring gear tooth is chamfered to facilitate the engagement of the starter pinion. 11-7…
  • Page 46
    STRUCTURE AND OPERATION 8. Balance Shafts • The balance shaft RH and balance shaft LH are mounted in the upper crankcase on the right and left sides of the crankshaft. The balance shafts reduce the vibration of the engine caused by the rotation of the crankshaft. •…
  • Page 47
    9. Crankcase and Main Bearings 9.1 Crankcase • The crankcase is a two-piece type consisting of an upper crankcase and a lower crankcase, which hold the crankshaft in between. • Cylinder liners are inserted into the cylinder bores in the upper crankcase. •…
  • Page 48
    STRUCTURE AND OPERATION • The upper crankcase is marked with a size mark (“1” or “2”) to be used as a reference in selecting cylinder liners. • The first to forth size marks from the front of the engine correspond to the No.
  • Page 49
    10. Oil Seals 10.1Front oil seal • The front oil seal is fitted in the front case, and prevents oil from leaking by contact of its lip with the front oil seal slinger. • The front oil seal slinger is press-fitted onto the fan shaft.
  • Page 50
    TROUBLESHOOTING Symptoms Reference Gr Possible causes Incorrect valve clearance Defective cylinder head gasket Worn valve and valve seat; carbon deposits Cylinder head and valve mechanism Weakened valve spring Defective rocker shaft and camshaft frame Poor lubrication of rocker shaft and camshaft frame Incorrect backlash in timing gears Timing gears Poor lubrication of timing gears and idler shaft…
  • Page 51
    M E M O 11-13…
  • Page 52
    ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Measuring Compression Pressure Service standards Location Maintenance item Standard value Limit Remedy 3100 kPa 2400 kPa Each cylinder (at 250 rpm) Inspect {32 kgf/cm {24 kgf/cm – Compression pressure 500 kPa Cylinder-to-cylinder pres- – {5 kgf/cm Inspect sure difference or less…
  • Page 53
    • Disconnect the injector connector and remove all injectors. • Cover the injector mounting holes with shop towels. After crank- ing the engine by the starter, check that no foreign substances are deposited on the shop towels. • If there are deposits (such as engine oil or coolant) on the shop towels, the following may be the cause: •…
  • Page 54
    ON-VEHICLE INSPECTION AND ADJUSTMENT 2. Inspection and Adjustment of Valve Clearances Service standards (Unit: mm) Location Maintenance item Standard value Limit Remedy Intake valve – – Valve clearance (when cold) Adjust Exhaust valve – Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks…
  • Page 55
    • The feeler gauge cannot be inserted under the adjusting screw pad without carrying out the above step, as the pad will block the feeler gauge as shown in the illustration. • To insert the feeler gauge under the adjusting screw pad, push the pad at the bottom on one side with a flat-blade screwdriver or a similar tool.
  • Page 56
    ENGINE REMOVAL AND INSTALLATION CAUTION • Only use hoisting equipment appropriate for the engine and transmission weight (approximately 600 kg). Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Bolt (front mounting installation) 69 to 88 {7 to 9} –…
  • Page 57
    Special tools Mark Tool name and shape Part No. Application Engine front hanger MH063636 Removal and installation of engine MF140429 Flange bolt MF140433 Installation of engine front hanger MF140421 Engine rear hanger MH063711 Removal and installation of engine Work before removal Preparing for engine removal: Installation of engine front hanger and flange bolt •…
  • Page 58
    ENGINE REMOVAL AND INSTALLATION Removal procedure Removal: Engine and transmission • Hook the wire rope on and hitch the chain block to Then, pull all the slack out of the slings by a crane. CAUTION • The slings must be strong enough to hang the engine and transmission assembly (weighing approximately 600 kg).
  • Page 59
    M E M O 11-21…
  • Page 60
    ROCKER COVER 11-22…
  • Page 61
    Disassembly sequence 1 Oil filler cap 9 Injection pipe 17 Rocker cover 2 Grommet 10 Bolt (with hexagonal hole) 18 Rocker cover gasket A 3 Spacer 11 Injector 19 Rocker cover gasket B 4 Insulator 12 O-ring 5 Cover 13 Tip gasket : Non-reusable parts 6 –…
  • Page 62
    ROCKERS AND CAMSHAFTS Disassembly sequence 1 Exhaust rocker shaft (See later sections.) 2 Intake rocker shaft (See later sections.) 3 Camshaft frame 4 Gasket 5 O-ring 6 Upper camshaft bearing 7 Packing 8 Intake camshaft (See later sections.) 9 Exhaust camshaft (See later sections.) 10 Lower camshaft bearing a: Head idler gear…
  • Page 63
    Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Bolt (rocker shaft installation: 10 places) 27 {2.8} Bolt (camshaft frame installation: 13 places) Bolt (camshaft installation: 2 places) 23.5 {2.4} – Bolt (camshaft frame installation: 4 places) 23.2 {2.4} –…
  • Page 64
    ROCKERS AND CAMSHAFTS Releasing valve spring tension • Before removing the bolts in the next process, loosen the adjust- ing screws on the rockers whose valve springs are compressed (due to the cams lifting these rockers). This operation is neces- sary to release the tension in the valve springs, thus preventing other parts from undue forces when the bolts are removed.
  • Page 65
    Installation procedure Installation: Camshaft • Install the upper camshaft bearing on the camshaft frame and the lower camshaft bearing on the cylinder head by fitting their lugs into the notches in the camshaft frame and cylinder head. • Place the No. 1 cylinder piston at the top dead center on the compression stroke.
  • Page 66
    ROCKERS AND CAMSHAFTS • Install on the rocker shafts to prevent the rocker arms from moving away from each other. • Set the rocker shafts to the camshaft frame and then remove • Tighten the bolts (1 to 23) to the specified torque in the order in- dicated in the illustration.
  • Page 67
    M E M O 11-29…
  • Page 68
    ROCKERS AND CAMSHAFTS Rocker Shafts and Rockers Disassembly sequence 1 Adjusting screw 7 Long rocker 2 Rocker bushing 8 Exhaust rocker shaft 3 Short rocker 9 Intake rocker shaft 4 Rocker shaft spring 5 Adjusting screw : Hole for camshaft frame locating pin 6 Rocker bushing : Non-reusable parts •…
  • Page 69
    Special tools (Unit: mm) Mark Tool name and shape Part No. Application Rocker bushing puller Removal and installation of rocker MH062536 φ24.5 φ22 bushing Inspection procedure Inspection: Rocker (roller) radial clearance • Replace the rocker if the radial play measurement is not within the standard value range.
  • Page 70
    ROCKERS AND CAMSHAFTS [Installation] • Press-fit each rocker bushing in the rocker with its ends facing in the illustrated directions. 11-32…
  • Page 71
    M E M O 11-33…
  • Page 72
    ROCKERS AND CAMSHAFTS Camshafts Disassembly sequence 1 Intake camshaft gear 2 Key 3 Intake camshaft 4 Exhaust camshaft gear 5 Key 6 Exhaust camshaft a: Sensor plate : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse. CAUTION •…
  • Page 73
    Inspection procedure Inspection: Camshaft gear-to-camshaft interference • If the measurement is not within the standard value range, re- place the defective part(s). Inspection: Camshaft (1) Cam lift • Replace the camshaft if the difference between the cam lobe height and base circle diameter measurements is less than the specified limit.
  • Page 74
    CYLINDER HEAD AND VALVE MECHANISM 11-36…
  • Page 75
    Disassembly sequence 1 Connection plates 6 Thrust plate a: Idler gear 2 Glow plug 7 Cylinder head bolt b: Upper crankcase 3 Head idler shaft 8 Cylinder head c: Front case 4 Head idler gear bushing (See later sections.) : Locating pin 5 Head idler gear 9 Cylinder head gasket : Non-reusable parts…
  • Page 76
    CYLINDER HEAD AND VALVE MECHANISM Special tools (Unit: mm) Mark Tool name and shape Part No. Application Idler gear bushing puller Removal and installation of idler gear MH061779 φ32 φ35 bushing Work before removal Inspection: Head idler gear-to-idler gear backlash •…
  • Page 77
    Inspection procedure Inspection: Head idler shaft-to-head idler gear bushing clearance • Replace the bushing if the measurement exceeds the specified limit. Replacement of head idler gear bushing [Removal] [Installation] • Position the bushing on the head idler gear with their ends fac- ing the illustrated directions and their oil holes on the same line.
  • Page 78
    CYLINDER HEAD AND VALVE MECHANISM • The cylinder head gasket comes in three sizes. Choose the gas- ket appropriate for the cylinder head by the following procedure. • Measure the amount of piston projection for every cylinder. (See “PISTONS, CONNECTING RODS AND CYLINDER LINERS”…
  • Page 79
    M E M O 11-41…
  • Page 80
    CYLINDER HEAD AND VALVE MECHANISM Cylinder Head Disassembly sequence 1 Valve cotter 10 Exhaust valve seat 16 Stud (short) 2 Upper retainer 11 Intake valve seat 17 Stud (long) 12 Sealing cap 18 Cylinder head 3 Outer valve spring 4 Inner valve spring (diameter: 22 mm) 5 Valve stem seal 13 Sealing cap…
  • Page 81
    Service standards (Unit: mm) Location Maintenance item Standard value Limit Remedy Free length 87.8 83.4 Installed load 360 ± 18 N Outer valve spring – Replace (57 in installed length) {36.7 ± 1.8 kgf} Squareness – Free length 78.8 74.9 Installed load 168 ±…
  • Page 82
    CYLINDER HEAD AND VALVE MECHANISM Special tools (Unit: mm) Mark Tool name and shape Part No. Application Valve lifter MH061668 Valve lifter seat MH061772 φ38 Removal and installation of valve cot- ters Valve lifter hook MH061679 Valve stem seal installer MH063607 Installation of valve stem seals φ26.5 φ14.7…
  • Page 83
    Removal procedure Removal: Valve cotters • Remove the valve cotters by evenly compressing the valve springs. Inspection procedure Inspection: Valves • If the valve has been replaced with a new one due to the result of the following inspections, make sure to lap the valve and valve seat.
  • Page 84
    CYLINDER HEAD AND VALVE MECHANISM Replacement of valve guides [Removal] [Installation] • Install the valve guide until sits snugly on the cylinder head. CAUTION • The valve guides have a specified amount of depth. Make sure to use to achieve the specified depth. •…
  • Page 85
    • Strike the valve several times against the valve seat while rotat- ing the valve a little at a time. • Wash away the compound with diesel fuel. • Apply engine oil to the valve contact surface of the valve seat and rub in the valve and seat well.
  • Page 86
    CYLINDER HEAD AND VALVE MECHANISM Replacement of valve seat [Removal] • The valve seats are installed by expansion fitting. To remove a valve seat, grind inside the metal stock to reduce the wall thick- ness, then remove the valve seat at room temperature. [Inspection] •…
  • Page 87
    Installation procedure Installation: Sealing caps • Drive the sealing caps into the cylinder head to the specified depth. Installation: Valve stem seal • Apply engine oil to the lip of the valve stem seal. • Install the valve stem seal until sits snugly on the cylinder head.
  • Page 88
    PISTONS, CONNECTING ROD AND CYLINDER LINERS Disassembly sequence 1 Lower connecting rod bearing 2 Connecting rod cap 3 Upper connecting rod bearing 4 Piston and connecting rod (See later sections.) 5 Cylinder liner a: Upper crankcase b: Crankshaft : Locating pin Assembly sequence Follow the disassembly sequence in re- verse.
  • Page 89
    Special tools (Unit: mm) Mark Tool name and shape Part No. Application Piston guide clamp MH063432 Installation of piston and connecting rod assembly Piston guide lever MH061658 Cylinder liner extractor MH062537 Removal of cylinder liner Cylinder liner installer MH063606 Installation of cylinder liner φ113.5 Adapter MH063433…
  • Page 90
    PISTONS, CONNECTING ROD AND CYLINDER LINERS Inspection: Piston projection from upper crankcase top sur- face CAUTION • The amount of piston projection affects engine perfor- mance and must therefore be inspected without fail. • Set the piston at the top dead center. •…
  • Page 91
    Inspection procedure Inspection: Connecting rod bearing span when free CAUTION • Do not attempt to manually expand the bearings. • If the measurement is less than the limit, replace upper and low- er bearings as a set. Inspection: Connecting rod bearing-to-crankshaft oil clear- ance •…
  • Page 92
    PISTONS, CONNECTING ROD AND CYLINDER LINERS Replacement of cylinder liner [Removal] [Installation] • When replacing cylinder liners, select the cylinder liners which correspond to the size marks on the crankcase and the piston. Upper crankcase Cylinder liner Piston size mark size mark size mark “1”…
  • Page 93
    Installation procedure Installation: Connecting rod bearings CAUTION • Do not reverse the positions of the lower bearing and the upper bearing (with oil hole) when installing, as this may cause seizure in the engine. Installation: Piston and connecting rod • Check that the piston ring end gaps are in their correct positions. A: 1st compression ring gap B: 2nd compression ring gap C: Oil ring gap…
  • Page 94
    PISTONS, CONNECTING ROD AND CYLINDER LINERS • After installing the piston and connecting rod assembly, align the mating marks on the connecting rod and connecting rod cap and tighten the bolts alternately in the following manner. • First tighten the bolt to a torque of 29 N m {3.0 kgf ·…
  • Page 95
    M E M O 11-57…
  • Page 96
    PISTONS, CONNECTING ROD AND CYLINDER LINERS Piston and Connecting Rod Disassembly sequence 1 1st compression ring 2 2nd compression ring 3 Oil ring 4 Snap ring 5 Piston pin 6 Connecting rod bushing 7 Connecting rod 8 Piston : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse.
  • Page 97
    Special tools Mark Tool name and shape Part No. Application Removal and installation of piston Piston ring tool MH060014 rings Connecting rod bushing Removal and installation of connect- MH062225 puller kit ing rod bushings Removal procedure Removal: Piston ring Removal: Piston pin •…
  • Page 98
    PISTONS, CONNECTING ROD AND CYLINDER LINERS Inspection: Piston ring side clearance in piston groove • Remove any carbon deposits from the ring groove in the piston before measurement. • Measure the side clearance of each ring around the piston’s en- tire periphery.
  • Page 99
    [Installation] • Apply engine oil to the outside surface of the connecting rod bushing and the bushing fitting surface of the connecting rod. • Fit collar B, the bushing, and collar A over the puller in the illus- trated directions and lock this arrangement together with the nut. •…
  • Page 100
    PISTONS, CONNECTING ROD AND CYLINDER LINERS Installation procedure Installation: Piston and connecting rod • Install pistons and connecting rods as follows when replacing them. • All connecting rods used in the same engine must be of the same weight size mark. Weight mark: “C”…
  • Page 101
    M E M O 11-63…
  • Page 102
    FLYWHEEL Disassembly sequence 1 Plate 2 Bearing 3 Ring gear 4 Flywheel a: Crankshaft : Locating pin Assembly sequence Follow the disassembly sequence in re- verse. Service standards (Unit: mm) Location Maintenance item Standard value Limit Remedy Friction surface runout –…
  • Page 103
    Special tools (Unit: mm) Mark Tool name and shape Part No. Application Socket wrench MH062183 Installation of flywheel assembly Magnet base MH062356 Work before removal Inspection: Flywheel friction surface runout • If the runout exceeds the specified limit, check that the bolts are tightened correctly and that there are no abnormalities on the crankshaft mounting surface, then rectify or replace the flywheel.
  • Page 104
    FLYWHEEL Inspection: Flywheel (1) Friction surface height • If the height is below the specified limit, replace the flywheel. (2) Friction surface distortion • If the measured amount of distortion is above the specified limit, rectify or replace the flywheel assembly. Rectification of friction surface •…
  • Page 105
    M E M O 11-67…
  • Page 106
    FRONT CASE Disassembly sequence 1 Power steering oil pipe 7 O-ring 14 Front case 2 Power steering oil hose 8 Water pump (See Gr14.) 15 Eyebolt 3 Power steering oil pump 9 Gasket 16 Oil jet (See Gr37.) 10 Fan pulley 17 O-ring 4 O-ring 11 Front oil seal…
  • Page 107
    Lubricant and/or sealant Mark Points of application Specified lubricant and/or sealant Quantity O-ring Engine oil As required Front oil seal lip Front case installation surfaces ThreeBond 1207C or D As required Special tools (Unit: mm) Mark Tool name and shape Part No.
  • Page 108
    FRONT CASE Installation procedure Installation: Oil jet • When installed, the oil jet must be in contact with the front case and its nozzle must face in the illustrated direction. Installation: Front case • Clean the sealant application surfaces of each part. •…
  • Page 109
    M E M O 11-71…
  • Page 110
    TIMING GEARS AND BALANCE SHAFTS 11-72…
  • Page 111
    Disassembly sequence 1 Thrust plate 12 No. 1 idler gear 23 Key 2 Idler gear bushing 13 No. 1 idler shaft 24 Thrust plate 3 Idler gear 14 Oil pump (See Gr12.) 25 Balance shaft LH 4 Idler shaft 15 O-ring 5 Fan shaft case bushing 16 Balance shaft gear RH a: Crankshaft gear…
  • Page 112
    TIMING GEARS AND BALANCE SHAFTS Special tools (Unit: mm) Mark Tool name and shape Part No. Application Idler gear bushing puller Removal and installation of idler gear MH062540 φ46.5 φ50 bushing Idler gear bushing puller Removal and installation of fan shaft MH062601 φ37 φ40…
  • Page 113
    Inspection procedure Inspection: Idler gear bushing-to-idler shaft clearance • If the measurement exceeds the specified limit, replace the bushing. Replacement of idler gear bushing [Removal] [Installation] • Place the idler gear with its ends facing as illustrated. • Press-fit the idler gear bushing until sits snugly on the chamfered end of the idler gear.
  • Page 114
    TIMING GEARS AND BALANCE SHAFTS [Installation] • Position the fan shaft case with its ends facing in the illustrated directions. • Press in the bushing until rests snugly on the chamfered end of the fan shaft case. • After press-fitting the bushing, remeasure the clearance be- tween it and the fan shaft.
  • Page 115
    Inspection: Balance shaft bend • Place supports under the No. 1 and No. 3 journals of the bal- ance shaft and measure the bend of the balance shaft at the No. 2 journal. • The amount of balance shaft bend is obtained by giving the bal- ance shaft one turn and dividing the dial gauge reading by two.
  • Page 116
    TIMING GEARS AND BALANCE SHAFTS • Turn the balancer shaft LH while applying light force on the screwdriver. The screwdriver will enter into the shaft locking hole and the balancer shaft will be locked. • When the screwdriver enters into the locking hole, it will sink by 5 mm.
  • Page 117
    M E M O 11-79…
  • Page 118
    CRANKSHAFT AND CRANKCASE Disassembly sequence 1 Rear plate 7 Lower thrust plate 13 Check valve 2 Rear oil seal 8 Upper thrust plate 14 Oil jet 3 Main bearing cap bolt 9 Crankshaft gear 15 Upper crankcase 4 No. 1 Lower main bearing 10 Rear oil seal slinger 5 Lower main bearing 11 Crankshaft…
  • Page 119
    CAUTION • The main bearing cap bolts are tightened using the torque-turn tightening method. Any bolt that has three punch marks must be replaced. • Do not overtighten the check valve. If it is tightened to a torque exceeding the specification, the check valve may malfunction, resulting in seizures in the engine.
  • Page 120
    CRANKSHAFT AND CRANKCASE Special tools (Unit: mm) Mark Tool name and shape Part No. Application Gear puller MH061326 Removal of crankshaft gear Rear oil seal slinger installer MH062677 Installation of rear oil seal slinger φ103 φ100 φ15 Work before removal Inspection: Crankshaft end play •…
  • Page 121
    Inspection procedure Inspection: Main bearing span when free CAUTION • Do not attempt to manually expand the bearings. • If the measurement is less than the limit, replace upper and low- er bearings as a set. Inspection: Main bearing-to-crankshaft oil clearance •…
  • Page 122
    CRANKSHAFT AND CRANKCASE Grinding of crankshaft CAUTION • If the crankshaft is ground to an undersize, the main bear- ings must be replaced with the undersize ones of the corre- sponding undersize. • See the table of the service standards for the dimension of each part, and collect the parts as follows.
  • Page 123
    Installation procedure Installation: Rear oil seal slinger • Press in the rear oil seal slinger until sits snugly on the crankshaft end surface. Installation: Crankshaft gear • Heat the crankshaft gear to approximately 150°C with a gas burner or the like. CAUTION •…
  • Page 124
    CRANKSHAFT AND CRANKCASE Installation: Lower crankcase CAUTION • Before installing the main bearing cap bolts, check the number of punch marks on the head of each bolt. (A bolt with two or less marks is reusable.) • The number of punch marks corresponds with the number of times the main cap bolt has been tightened using the torque-turn tightening method.
  • Page 125
    Installation: Rear oil seal • Apply engine oil to the lip of the rear oil seal. • Clean the seal surface of the crankshaft. • Apply a bead of sealant along the line on the rear oil seal evenly without any breaks. •…
  • Page 126
    BALANCE SHAFT BUSHINGS Disassembly sequence 1 No. 1 balance shaft bushing 2 No. 2 balance shaft bushing 3 No. 3 balance shaft bushing a: Balance shaft : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse. Service standards (Unit: mm) Location Maintenance item Standard value…
  • Page 127
    Replacement of balance shaft bushing • Replace the bushing using [Removal] • To remove the bushings, use the rod fitted with an adapter corre- sponding to the size of each bushing. Unit: mm Adapter Bushing Identification mark Left “5” 26.5 φ55.25 φ…
  • Page 128
    BALANCE SHAFT BUSHINGS [Installation] • To install the bushings, use the rod fitted with an adapter corre- sponding to the size of each bushing. Each bushing has an iden- tification mark. These identification marks are used to distinguish between the No. 1, No. 2 and No. 3 bushings. If the identification mark is not clear, measure the outside diameter of the bushing and use the measurement as a means of identifica- tion.
  • Page 129
    • Align the oil hole in the No. 2 bushing with the oil hole in the up- per crankcase. • Force the No. 2 bushing into the upper crankcase to the illustrat- ed position by tapping on the rod from the front of the engine. •…
  • Page 130
    GROUP 12 LUBRICATION SPECIFICATIONS…………….12-2 STRUCTURE AND OPERATION …………… 12-3 1. Lubrication System ………………12-4 2. Oil Pump ………………12-5 3. Oil Cooler ………………12-6 4. Oil Filter ……….12-7 5. Lubrication of Engine Components TROUBLESHOOTING …………..12-10 ON-VEHICLE INSPECTION AND ADJUSTMENT …………..
  • Page 131
    SPECIFICATIONS Item Specifications Method of lubrication Forced lubrication by oil pump Grade API classification CD, CE, CF-4, CH-4 Engine oil Oil pan Approx. 8 {8} Quantity Oil filter Approx. 1 {1} Model Shell and plate type (multiple-plate type) Oil cooler Bypass valve opening pressure 390 ±…
  • Page 132
    STRUCTURE AND OPERATION 1. Lubrication System 1 Main oil gallery 15 Balance shaft bushing LH 2 Bypass valve 16 Crankshaft main bearing 3 Bypass valve 17 Connecting rod bearing 4 Engine oil pressure switch 18 Connecting rod bushing 5 Oil cooler 19 Piston 6 Full-flow filter element 20 Balance shaft bushing RH…
  • Page 133
    STRUCTURE AND OPERATION 2. Oil Pump • This engine uses a gear-type oil pump driven by the rotation of the crankshaft transmitted through the engage- ment of the crankshaft gear and the oil pump gear. 12-4…
  • Page 134
    3. Oil Cooler 3.1 Bypass valve • When the engine oil is cool and its vis- cosity is high, or when the oil cooler el- ement becomes clogged and restricts the flow of the engine oil, the bypass valve opens to let the engine oil by- pass the oil cooler and flow directly to the main oil gallery.
  • Page 135
    STRUCTURE AND OPERATION 4. Oil Filter • The oil filter used in this engine is a spin-on, paper-filter type. • A bypass valve is installed in the lower part of the oil filter. When the filter elements are clogged, this valve opens to let the engine oil bypass the filter elements and flow directly to the oil cooler, thereby preventing seizures in the engine.
  • Page 136
    5. Lubrication of Engine Components • The engine oil in the main oil gallery lubricates the engine components in the following ways. 5.1 Main bearing and connecting rod bearing • Engine oil supplied through an oil passage in the crankshaft lubricates the big end (connecting rod bearing) of each connecting rod.
  • Page 137
    STRUCTURE AND OPERATION 5.3 Valve mechanism • The engine oil flows from the main oil gallery to the rocker shaft through the oil passages in the upper crankcase, cylinder head, and camshaft frame. • The engine oil in the rocker shaft lubricates the rocker arms and camshaft, then returns to the oil pan. 5.4 Check valves and oil jets •…
  • Page 138
    5.5 Vacuum pump • Engine oil flows through the oil pas- sages in the front case to the vacuum pump. • The oil in the pump lubricates the vanes, and then is discharged into the front case from the air discharge port of the vacuum pump along with air, and returns to the oil pan.
  • Page 139
    TROUBLESHOOTING Symptoms Reference Gr Possible causes Incorrectly mounted element Defective gasket Defective O-ring Oil cooler Clogged element Damaged element Weakened bypass valve spring Malfunctioning oil pump Oil pump Interference between oil pump gear and oil pump case and/or cover Incorrect installation Oil filter Clogged element Defective gasket…
  • Page 140
    M E M O 12-11…
  • Page 141
    ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Oil Filter Replacement Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks – Drain plug 9.8 ± 1.96 {1.0 ± 0.2} – Lubricant and/or sealant Mark Points of application Specified lubricant and/or sealant Quantity Engine oil (API classification CD, Approx.
  • Page 142
    [Installation] • Clean the oil filter mounting surfaces of the oil filter head. • Apply a thin coat of engine oil on the oil filter gasket. • Screw in the oil filter by hand until the gasket touches the oil filter head.
  • Page 143
    ON-VEHICLE INSPECTION AND ADJUSTMENT 2. Engine Oil Replacement Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks – Drain plug (oil filter) 9.8 ± 1.96 {1.0 ± 0.2} – – Drain plug (oil pan) 34.3 to 43.1 {3.5 to 4.4} –…
  • Page 144
    3. Oil Pressure Measurement Service standards Location Maintenance item Standard value Limit Remedy 98 kPa 195 kPa No-load minimum speed {1.0 kgf/ {2.0 kgf/cm Oil pressure – (oil temperature at 70 to Inspect 195 kPa 90°C) 295 to 490 kPa No-load maximum speed {2.0 kgf/ {3 to 5 kgf/cm…
  • Page 145
    OIL PAN, OIL STRAINER AND OIL JETS Disassembly sequence 1 Drain plug 2 Oil pan 3 Oil strainer 4 O-ring 5 Oil level sensor 6 O-ring 7 Check valve 8 Oil jet : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse.
  • Page 146
    Installation procedure Installation: Oil pan • Clean the mating surfaces of each part. • Apply a bead of sealant to the mating surface of the oil pan evenly and without any breaks as shown in the illustration. • Mount the oil pan within three minutes of applying the sealant. Make sure that the sealant stays in place.
  • Page 147
    OIL PUMP Disassembly sequence 1 Oil pump cover 2 Driven gear 3 Gear and case 4 O-ring a: Drive gear : Locating pin : Non-reusable parts Assembly sequence Follow the disassembly procedure in re- verse. Service standards (Unit: mm) Location Maintenance item Standard value Limit…
  • Page 148
    Inspection procedure Inspection: Driven gear, drive gear and gear and case • Carry out the following inspection. Replace the oil pump if any defects are found. (1) Sinkage of each gear from gear and case end surface (2) Gear and case-to-tooth tip clearance for each gear Inspection: Oil pump cover, driven gear, drive gear and gear and case •…
  • Page 149
    OIL PUMP Installation: Oil pump • Place the No.1 cylinder piston at top dead center to bring the crankshaft gear to an appropriate position. • Inject approximately 5 cm {5 mL} of engine oil. • Align the mating mark “6” on the crankshaft gear and the mating mark “7”…
  • Page 150
    M E M O 12-21…
  • Page 151
    OIL FILTER Disassembly sequence 1 Drain plug 2 Oil filter 3 Oil pipe 4 O-ring 5 O-ring 6 Plug 7 Regulator valve spring 8 Regulator valve 9 Oil filter head 10 Gasket : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse.
  • Page 152
    Special tools Mark Tool name and shape Part No. Application Oil filter element socket MH061566 Removal of oil filter Removal procedure Removal: Oil filter Installation procedure Installation: Oil filter • Clean the oil filter mounting surface of the oil filter head. •…
  • Page 153
    OIL COOLER Disassembly sequence 1 Eyebolt 7 Oil cooler element 12 Coolant temperature sensor 2 Oil pipe 8 Gasket (for engine control) 3 Plug 9 Water drain plug 13 Oil cooler body 4 O-ring 10 Engine oil pressure switch 14 Gasket 5 Bypass valve spring 11 Coolant temperature sensor 6 Bypass valve…
  • Page 154
    Service standards (Unit: mm) Location Maintenance item Standard value Limit Remedy Load of bypass valve spring 95.3 ± 4.9 N – Replace (installed length: 48 {9.7 ± 0.5 kgf} -0.5 Air leakage from oil cooler element (air pressure: 980 0 cm {0 mL} –…
  • Page 155
    GROUP 13 FUEL AND ENGINE CONTROL SPECIFICATIONS…………….13-2 STRUCTURE AND OPERATION …………13-3 1. Fuel System (Flow of Fuel) …………….13-4 2. Engine Control ………………13-5 3. Fuel Filter TROUBLESHOOTING ……………. 13-6 ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Inspecting and Adjusting No-load Minimum and Maximum ………………
  • Page 156
    SPECIFICATIONS Item Specifications Manufacturer Bosch Supply pump type CP3.3 NH Control system Electronically-controlled pump Model Radial, 3-cylinder Supply pump Feed pump type External gear type Model MPROP MPROP (rail pres- sure control valve) Rated voltage Max. common rail pressure 180 {1840} MPa {kgf/cm Manufacturer Bosch…
  • Page 157
    STRUCTURE AND OPERATION 1. Fuel System (Flow of Fuel) • The feed pump, which is driven by the camshaft inside the supply pump, draws up the fuel from inside the fuel tank and sends it through the fuel filter, where dust and other impurities in the fuel are filtered out. •…
  • Page 158
    STRUCTURE AND OPERATION 2. Engine Control • The engine is electronically controlled by the engine electronic control unit. • By processing accelerator pedal posi- tion data from the accelerator position sensor, the engine electronic control unit controls the injectors for optimum fuel injection.
  • Page 159
    3. Fuel Filter • The fuel filter, which also serves as a water separator, removes impurities in the fuel through the filter element and also separates water from fuel. • The water that has been separated from the fuel collects at the bottom of the fuel filter. A water separator sensor is installed in the fuel filter, which activates the warning lamp on the meter cluster when the water reaches a cer- tain level.
  • Page 160
    TROUBLESHOOTING Symptoms Reference Gr Possible causes Electronic control fuel system faulty O Gr13E Feed pump check valve faulty Defective feed pump Defective sealing supply pump overflow valve Supply pump Open or short circuit failure, poor contact of supply pump magnetic valve Defective supply pump magnetic valve, defec- tive base supply pump Open or short circuit failure, poor contact of…
  • Page 161
    Symptoms Reference Gr Possible causes Oil viscosity unsuitable Gr12 Valve clearance incorrect Defective cylinder head gasket Wear of and/or carbon deposits on valve and valve seat Distorted valve springs Gr11 Worn or damaged piston rings Worn or damaged piston ring groove Worn piston and/or cylinder liner Poorly functioning cooling system Gr14…
  • Page 162
    ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Inspecting and Adjusting No-load Minimum and Maximum Speeds Service standards Location Maintenance item Standard value Limit Remedy – Minimum no-load speed (idling speed) 650 ± 25 rpm – Adjust – Maximum no-load speed 3100 ± 50 rpm –…
  • Page 163
    2. Air-bleeding of Fuel System Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks – Plug 10 ± 2 {1 ± 0.2} – • Loosen one of the air vent plugs on the fuel filter. • Move the priming pump up and down to pump out the fuel. •…
  • Page 164
    ON-VEHICLE INSPECTION AND ADJUSTMENT 3. Fuel Filter Replacement Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks – Water separator sensor 5 ± 1 {0.5 ± 0.1} – – Case 30 ± 2 {3.1 ± 0.2} –…
  • Page 165
    • Apply a thin coat of engine oil to the O-ring, and install it on the case and water separator sensor. CAUTION • Be sure to use only genuine MITSUBISHI filter elements. The use of non-genuine fuel filters can cause engine failure. • Prevent fine dust particles from entering the fuel filter and fuel hose, as they can cause problems such as faulty fuel injection.
  • Page 166
    FUEL TANK <170L> Removal sequence 1 Drain plug 6 Fuel level sensor 2 Suction hose 7 Fuel tank band 3 Return hose 8 Fuel tank 4 Air vent tube 9 Fuel tank bracket 5 Air vent tube Installation sequence Follow the removal sequence in reverse. DANGER •…
  • Page 167
    <100L> Removal sequence 1 Drain plug 2 Suction hose 3 Return hose 4 Air vent tube 5 Plug <Without spare fuel tank> 6 Fuel level sensor 7 Fuel tank band 8 Fuel tank 9 Fuel tank bracket : Non-reusable parts Installation sequence Follow the removal sequence in reverse.
  • Page 168
    SPARE FUEL TANK Removal sequence 1 Fuel hose 7 Fuel tank bracket 2 Fuel cock 8 Fuel hose bracket 3 Gasket 4 Connector a: Main fuel tank 5 Fuel tank band : Non-reusable parts 6 Fuel tank Installation sequence Follow the removal sequence in reverse. DANGER •…
  • Page 169
    M E M O 13-15…
  • Page 170
    FUEL FILTER Disassembly sequence 1 Fuel hose 2 Water separator sensor 3 O-ring 4 Case 5 O-ring 6 Filter element 7 Plug 8 Fuel filter head : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse. WARNING • Fuel is highly flammable. Keep it away from flames and sources of heat.
  • Page 171
    • Apply a thin coat of engine oil to the O-ring, and install it on the case and water separator sensor. CAUTION • Be sure to use only genuine MITSUBISHI filter elements. The use of non-genuine fuel filters can cause engine failure. • Prevent fine dust particles from entering the fuel filter and fuel pipe, as they can cause problems such as faulty fuel in- jection.
  • Page 172
    FUEL FILTER • Use to tighten the case to the specified torque. • Install the water separator sensor, and then air-bleed the fuel system. • Start the engine, and check that there is no fuel leakage. • Reinstall the fuel filter if there is any leakage. 13-18…
  • Page 173
    M E M O 13-19…
  • Page 174
    ENGINE CONTROL Removal sequence 1 Accelerator pedal (See later sec- tions.) 2 Accelerator link (See later sec- tions.) Installation sequence Follow the removal sequence in reverse. Removal procedure Removal: Accelerator pedal • Using pliers, pinch the hook of the stopper on the accelerator pedal.
  • Page 175
    Accelerator Pedal Disassembly sequence 1 E-ring 2 Clevis pin 3 Accelerator pedal 4 Stopper bolt 5 Accelerator pedal bracket Assembly sequence Follow the disassembly sequence in re- verse. Lubricant and/or sealant Mark Points of application Specified lubricant and/or sealant Quantity Accelerator pedal and bracket contact surfaces Chassis grease [NLGI No.
  • Page 176
    ENGINE CONTROL Accelerator Linkage Disassembly sequence 1 Cover 2 Spring 3 Washer 4 Bushing 5 Return spring 6 Accelerator lever 7 Accelerator position sensor and accelerator switch assembly 8 Lever stopper 9 Rubber stopper 10 Accelerator link bracket Assembly sequence Follow the disassembly sequence in re- verse.
  • Page 177
    M E M O 13-23…
  • Page 178
    COMMON RAIL Disassembly sequence 1 Injection pipe 11 Eyebolt 2 Fuel pipe 12 Fuel suction pipe A 3 Eyebolt 13 Eyebolt 4 Fuel return pipe B 14 Fuel return pipe A 5 Fuel pressure sensor (See Gr13E.) 15 Eyebolt 6 Common rail 16 Fuel return pipe C 7 Fuel temperature sensor 17 Adaptor…
  • Page 179
    Tightening torque (Unit: N·m {kgf·m}) Location Parts to be tightened Tightening torque Remarks Injection pipe 40.5 ± 2.5 {4.1 ± 0.25} – Fuel pipe Bolt (adaptor mounting) 44.5 {4.5} – Bolt (common rail mounting) 23.2 {2.4} – Fuel temperature sensor 17.6 to 21.5 {1.8 to 2.2} –…
  • Page 180
    COMMON RAIL Installation procedure Installation: Injection pipe and fuel pipe • Ensure that the pipe and mounting surfaces of the connector are flat and free from damage. • Bring the pipe into intimate contact with mounting surfaces of the connector evenly, and temporarily tighten it without applying an excessive force.
  • Page 181
    M E M O 13-27…
  • Page 182
    SUPPLY PUMP 13-28…
  • Page 183
    Removal sequence 1 Eyebolt 8 Thrust plate 15 Key 2 Oil pipe 9 No. 2 idler gear 16 Supply pump 3 Eyebolt 10 No. 2 idler shaft 17 O-ring 11 Nut 4 Fuel return pipe C 5 Fuel pipe 12 Supply pump gear a: Front case 6 Eyebolt (with gauze filter) 13 Flange plate…
  • Page 184
    SUPPLY PUMP Installation procedure Installation: Supply pump • Remove the rocker cover. • Bring the No. 1 cylinder piston to the top dead center (TDC) on the compression stroke by the following procedure: • Hook on a groove in the fan pulley. •…
  • Page 185
    M E M O 13-31…
  • Page 186
    INJECTOR Disassembly sequence 1 Snap ring 5 Injector 2 Fuel return hose 6 O-ring 3 Injection pipe 7 Nozzle tip gasket 4 Bolt (with hexagonal hole) : Non-reusable parts WARNING • Fuel is highly flammable. Wipe up spilled fuel to avoid the risk of fire. •…
  • Page 187
    Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Injection pipe 40.5 ± 2.5 {4.1 ± 0.25} – Bolt (injector mounting) 5.2 to 7.2 {0.53 to 0.73} – Lubricant and/or sealant Mark Points of application Specified lubricant and/or sealant Quantity O-ring Engine oil…
  • Page 188
    GROUP 13E ENGINE CONTROL SYSTEM SPECIFICATIONS…………..(See Gr13.) STRUCTURE AND OPERATION ………………13E-2 1. Overview …………13E-11 2. Electronic Control System ……13E-16 3. Electronic Control Unit Connection Diagram TROUBLESHOOTING ……..13E-18 1. Inspections Based on Diagnosis Codes ……….. 13E-52 2. Multi-Use Tester Service Data ……..
  • Page 189
    STRUCTURE AND OPERATION 1. Overview • In the common rail system, an electronic control unit monitors various aspects of the engine (engine speed, throt- tle opening, coolant temperature, etc.) using information from sensors. In accordance with these data, the elec- tronic control unit effects control over the fuel injection quantity, fuel injection timing, and fuel injection pressure in order to optimize the engine’s operation.
  • Page 190
    • When the engine is cranked by means of the starter switch, the feed pump (this is located inside the supply pump) simultaneously draws fuel from the fuel tank and feeds it via the fuel filter to the MPROP (rail pressure control valve).
  • Page 191
    STRUCTURE AND OPERATION 1.1 Supply pump 13E-4…
  • Page 192
    CAUTION • Be sure to connect the MPROP (rail pressure control valve) connector to the engine harness before start- ing the engine. If the engine were started with the MPROP connector not connected, control of the supply pump by the engine electronic control unit would not be possible and a fault would ensue. •…
  • Page 193
    STRUCTURE AND OPERATION (1) MPROP (rail pressure control valve) • The MPROP receives fuel from the feed pump and feeds fuel to- ward the plungers of the supply pump in such a quantity that the fuel pressure corresponds to that required by the engine elec- tronic control unit.
  • Page 194
    1.2 Common rail • The common rail distributes to the injectors high-pressure fuel that has been fed from the supply pump. • Each flow limiter prevents an abnormal outflow of fuel. It does so by blocking the fuel passage in the event of fuel leakage from the injection pipe or excessive injection of fuel from the injector.
  • Page 195
    STRUCTURE AND OPERATION 1.3 Injector • In accordance with electrical signals from the engine electronic control unit, each injector supplies high-pressure fuel from the common rail to the relevant combustion chamber of the engine at the optimal timing and in the opti- mal quantity.
  • Page 196
    (5) Operation (5.1) Injection not taking place • With the magnet not energized, the ar- mature plate is pushed up by the valve spring such that the ball seat is closed. • The high-pressure fuel acts upon the control chamber via orifice Z. The same pressure acts upon the nozzle needle.
  • Page 197
    STRUCTURE AND OPERATION (5.3) End of injection • When energization of the magnet is stopped, the armature plate is pushed downward by the valve spring such that the ball seat closes. At this time, fuel flows into the control chamber via orifice Z, pushing down the valve pis- ton and nozzle needle such that injec- tion finishes.
  • Page 198
    2. Electronic Control System 2.1 System block diagram 13E-11…
  • Page 199
    STRUCTURE AND OPERATION Part Main function/operation Engine speed sensor Sensing of engine speed Cylinder recognition sensor Cylinder recognition Water temperature sensor Sensing of coolant temperature Boost pressure sensor Sensing of boost pressure Common rail pressure sensor Sensing of common rail pressure Fuel temperature sensor Sensing of fuel temperature Intake air temperature sensor 1…
  • Page 200
    2.2 Fuel injection control (1) Pilot injection • Pilot injection entails the injection of an extremely small amount of fuel ahead of the main injection. • Pilot injection suppresses heat generation early in the injection cycle and thus suppresses NOx generation and noise at the start of combustion.
  • Page 201
    STRUCTURE AND OPERATION (4) Fuel injection rate adjustment resistor correction amount • To limit inconsistency in the injection quantity, the injection quan- tity is corrected by the fuel injection rate adjustment resistor. 2.4 Fuel injection timing control (1) Main injection timing •…
  • Page 202
    2.7 Auxiliary brake function Input signals Output signals Engine electronic control unit Accelerator pedal position sensor Exhaust shutter 3-way Auxiliary brake Clutch switch magnetic valve function Transmission neutral switch Exhaust brake switch • The auxiliary brake function activates or deactivates the exhaust shutter 3-way magnetic valve according to the vehicle condition to control the exhaust brake.
  • Page 203
    STRUCTURE AND OPERATION 3. Electronic Control Unit Connection Diagram Engine electronic control unit STARTER SW(S) Starter switch STARTER SW(M)-1 M F S STARTER SW(M)-2 LOCK ELECTRONIC CONTROL UNIT POWER(+VB)-1 ELECTRONIC CONTROL UNIT POWER(+VB)-2 ELECTRONIC CONTROL UNIT POWER(+VB)-3 START GND(POWER GND) GND(POWER GND) GND(ANALOG GND) Fuse box…
  • Page 204
    To Starter relay Engine electronic control unit Safety relay Clutch switch Transmission neutral switch Torque limit switch Exhaust brake switch (Diagnosis code display: Auxiliary Brake SW 1) Exhaust shutter 3-way magnetic valve (Diagnosis code display: Auxiliary Brake PWR Service data and actuator test display: Auxiliary Brake M/V 1) Glow drive relay To Glow plug Glow relay…
  • Page 205
    TROUBLESHOOTING 1. Inspections Based on Diagnosis Codes 1.1 Diagnosis code list • Diagnosis codes shown by the Multi-Use Tester and those indicated by flashing of the warning lamp are different. • The Multi-Use Tester is capable of showing more detailed diagnosis codes. •…
  • Page 206
    Multi-Use Tester indication Warning lamp indication Remarks Code Message Flashes Orange P0267 Injector #3-A (Low) – P0268 Injector #3-A (High) – P0270 Injector #4-A (Low) – P0271 Injector #4-A (High) – P0335 Engine Revolution SNSR – P0339 Engine Revolution SNSR (Plausi) P0340 Camshaft Position SNSR –…
  • Page 207
    TROUBLESHOOTING Multi-Use Tester indication Warning lamp indication Remarks Code Message Flashes Orange P0698 Sensor Supply Voltage 3 (Low) – P0699 Sensor Supply Voltage 3 (High) – P1171 Q Adjustment Resistor (Low) – P1172 Q Adjustment Resistor (High) – P1C01 Inter Cooler Performance –…
  • Page 208
    1.2 Diagnosis code generation conditions and inspection items P0016: Ne SNSR Offset/Backup Mode (warning lamp flashes: 14) There is too large difference between engine speed sensor signal and cylinder Generation condition recognition sensor signal. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 209
    TROUBLESHOOTING P0047: VGT Actuator (Low) (warning lamp flashes: 51) Generation condition Turbocharger actuator circuit is shorted to ground. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 210
    P0089: MPROP (Over Load) (warning lamp flashes: 63) Generation condition MPROP (rail pressure control valve) circuit is overloaded. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 211
    TROUBLESHOOTING P0093: CRS (Fuel Leak) (warning lamp flashes: 22) Generation condition Fuel system is leaking (significant leakage). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 212
    P0112: INT Air Temp. SNSR (Low) (warning lamp flashes: 44) Intake air temperature sensor 1 voltage is at or below the specified value Generation condition (0.15 V). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
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    TROUBLESHOOTING P0118: Water Temp SNSR (High) (warning lamp flashes: 21) Generation condition Water temperature sensor voltage is at or above the specified value (4.8 V). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 214
    P0191: CRS Pressure SNSR (Plausibility) (warning lamp flashes: 11) Engine electronic control unit has judged that common rail pressure sensor was Generation condition faulty. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 215
    TROUBLESHOOTING P0202: Injector M/V-Cylinder 2 (Load) (warning lamp flashes: 38) Generation condition Injector magnetic valve (No. 2 cylinder) circuit shorted or open-circuited. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 216
    P0234: Over Boost (warning lamp flashes: 54) Generation condition Boost pressure is more than a regulated value the engine running. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid sig- nals are input).
  • Page 217
    TROUBLESHOOTING P0261: Injector #1-A (Low) (warning lamp flashes: 37) Generation condition Injector magnetic valve (No. 1 cylinder) circuit shorted to ground. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 218
    P0267: Injector #3-A (Low) (warning lamp flashes: 39) Generation condition Injector magnetic valve (No. 3 cylinder) circuit shorted to ground. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 219
    TROUBLESHOOTING P0335: Engine Revolution SNSR (warning lamp flashes: 15) Generation condition No engine speed sensor signals are received. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 220
    P0380: Relay for Glow Relay (warning lamp flashes: 26) Generation conditions Glow drive relay short or open circuit, or overload Recoverability System recovers if signal becomes with starter switch ON position. Control effected by electronic control unit • Suspend glow control •…
  • Page 221
    TROUBLESHOOTING P0403: EGR 1 (Actuator Circuit) (warning lamp flashes: 67) Exhaust gas recirculation electronic drive unit has judged that exhaust gas recir- Generation condition culation valve motor was faulty. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 222
    P040D: EGR Gas Temp Sensor (High) (warning lamp flashes: 9) Generation condition Intake air temperature sensor 2 voltage is at or above the specified value (4.8 V). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
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    TROUBLESHOOTING P0478: Exhaust Brake PWR (High) (warning lamp flashes: 93) Generation condition Exhaust shutter 3-way magnetic valve circuit is shorted to power supply. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not extinguish unless 3 consecutive valid sig- nals are input).
  • Page 224
    P0563: Power Supply Voltage (High) (warning lamp flashes: 33) Generation condition Battery voltage is too high. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
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    TROUBLESHOOTING P0615: Starter Safety Relay (Over Load) (warning lamp flashes: 48) Generation conditions Safety relay overload Recoverability System recovers if signal becomes with starter switch ON position. Control effected by electronic control unit • Normal control • Short-circuited harness between engine electronic control unit and safety re- Possible causes •…
  • Page 226
    P062D: Injector Bank 1 (warning lamp flashes: 82) Injector magnetic valve (for No. 1 and No. 4 cylinders) has stopped functioning Generation condition temporarily. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not extinguish unless 3 consecutive valid sig- nals are input).
  • Page 227
    TROUBLESHOOTING P0643: Sensor Supply Voltage 1 (High) (warning lamp flashes: 81) Engine electronic control unit internal voltage (sensor supply voltage 1) is higher Generation condition than specification. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 228
    P0653: Sensor Supply Voltage 2 (High) (warning lamp flashes: 81) Engine electronic control unit internal voltage (sensor supply voltage 2) is higher Generation condition than specification. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 229
    TROUBLESHOOTING P0687: EDU Relay (High) (warning lamp flashes: 84) Generation condition Electronic drive unit relay circuit shorted to power source. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 230
    P1172: Q Adjustment Resistor (High) (warning lamp flashes: 34) Generation condition Voltage of fuel injection rate adjustment resistor is too high (above 4.8 V). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not extinguish unless 3 consecutive valid sig- nals are input).
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    TROUBLESHOOTING P1C13: Injector #3-A (Plausibility) (warning lamp flashes: 39) The engine electronic control unit has judged that injector magnetic valve (for No. Generation condition 3 cylinder) was faulty in comparison with the condition of other injector magnetic valves. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not extinguish unless 3 consecutive valid sig- nals are input).
  • Page 232
    P2101: TVA (System) (warning lamp flashes: 28) The throttle electronic drive unit has judged that the power supply to intake throt- Generation condition tle was faulty or the throttle position sensor was faulty. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 233
    TROUBLESHOOTING P2123: Acc Sensor 1 (High) (warning lamp flashes: 24) Accelerator pedal position sensor 1 voltage is at or above the specified value Generation condition (4.7 V). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 234
    P2138: Acc Sensor Correlation (warning lamp flashes: 24, 58) Output voltages from accelerator pedal position sensors 1 and 2 are out of spec- Generation condition ified range or result of comparison between two voltages deviates from specifica- tion. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 235
    TROUBLESHOOTING P2151: Injector Bank 2 (High) (warning lamp flashes: 82) Generation condition Injector magnetic valve (No. 2 and No. 3 cylinder) circuit shorted to power supply. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 236
    P2229: Atm Press SNSR (High) (warning lamp flashes: 19) Voltage of atmospheric pressure sensor (inside engine electronic control unit) is Generation condition higher than specification (4.7 V). System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 237
    TROUBLESHOOTING P242F: DPF MFF (Accumulation) (warning lamp flashes: 55) Generation condition The voltage of diesel particulate filter pressure sensor is excessively high. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 238
    P2562: VGT Position Sensor (warning lamp flashes: 51) Turbocharger electronic drive unit determines the turbocharger position sensor to Generation condition be faulty. System recovers if any valid signal is input when starter switch is turned from Recoverability OFF to ON (the warning lamp does not go out unless 3 consecutive valid signals are input).
  • Page 239
    TROUBLESHOOTING 2. Multi-Use Tester Service Data • It is possible to see service data and actuator tests simultaneously. Item Data Inspection condition Requirement Value corresponds to ta- 01 Engine Revolution Racing (engine running) .rpm chometer indication. 02 LOAD Value Starter switch in ON position 0A Reference Injection Quantity Starter switch in ON position Altitude: 0 m…
  • Page 240
    Item Data Inspection condition Requirement Engine cranked by means of starter switch. A0 Starter SW (S) ON/OFF Starter switch in position except START Starter switch in ON position A1 Starter SW (M) ON/OFF Starter switch in position except ON Accelerator pedal not pressed A2 Accel SW ON/OFF Accelerator pedal pressed…
  • Page 241
    TROUBLESHOOTING Item Data Inspection condition Requirement Starter switch ON (engine not started) E0 MIL ON/OFF No error after engine startup [Actuator test] B0: MIL Starter switch ON (engine not started) E1 Diagnosis Lamp ON/OFF No error after engine startup [Actuator test] B1: Diagnosis Lamp 13E-54…
  • Page 242
    3. Actuator Test Using Multi-Use Tester • It is possible to see service data and actuator tests simultaneously. Item Explanation Confirmation method Maintain exhaust gas recirculation valve opening indicated Check that the exhaust gas by Multi-Use Tester during engine operation. recirculation valve opening [Can be executed when the following conditions are satisfied] is changed.
  • Page 243
    TROUBLESHOOTING Item Explanation Confirmation method Starter safety relay drive signal Actuation noise should be heard. [Service data] D3: Starter Safety Relay AE Starter Safety Relay Electronic drive unit relay drive signal Operating sound of relay AF EDU Relay (Errors related to exhaust gas recirculation and to the intake [Service data] throttle can be detected when this actuator test is executed.) D4: EDU Power Relay…
  • Page 244
    4. Work When Replacing the Engine Electronic Control Unit • A vehicle identification number (VIN) must be written (registered) to the engine electronic control unit after: • The current engine electronic control unit is replaced with a new one. • The current engine electronic control unit is replaced with one that has been used on another vehicle. Writing a VIN (entire flow) Connect the Multi-Use Tester (See Gr00).
  • Page 245
    TROUBLESHOOTING • A system test automatically starts and “INCOMPLETE” is indi- cated. This raises no problem because VIN writing is incomplete at this stage. Click the OK button. (2) Writing a VIN [ENGINE menu] window • Select “Coding”. [Coding] window •…
  • Page 246
    [Write error] window • An error is displayed if a VIN is entered while the engine is on or the transmission is set at a position except Neutral. If so, stop the engine or set the transmission to the Neutral position, and restart from the beginning.
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    TROUBLESHOOTING (4) Confirming and deleting the diagnosis code (memory clear) [ENGINE menu] window • Select “Self-diagnosis.” [Self-diagnostic] window • Check the “Pending DTC” field for generation of a diagnosis code. • Click the “Confirmed/Stored DTCs” button. • Check the “Confirmed/Stored DTCs” field for generation of a di- agnosis code.
  • Page 248
    5. Electronic Control Unit Input/Output Table • For terminal locations of each signal and ground. See the Electronic control unit connection diagram. Hardware to be connected Terminal Input/Output Voltage or waveform [Conditions] • Starter switch OFF • Disconnect connector. Perform inspection on vehicle-side con- nector.
  • Page 249
    TROUBLESHOOTING Hardware to be connected Terminal Input/Output Voltage or waveform [Conditions] • Starter switch ON • Vehicle-side harness connected (Perform inspection on back A20-B33 Accelerator pedal switch Output of connector.) A20-B45 [Requirements] • With accelerator pedal pressed: 0 V • With accelerator pedal not pressed: 5 V [Conditions] •…
  • Page 250
    Hardware to be connected Terminal Input/Output Voltage or waveform [Conditions] • Starter switch ON • Vehicle-side harness connected (Perform inspection on back Electronic drive unit relay B39-B14 Output of connector.) [Requirements] • With relay operating: Corresponding to battery voltage • With relay not operating: 0 V [Conditions] •…
  • Page 251
    GROUP 14 COOLING SPECIFICATIONS…………….14-2 STRUCTURE AND OPERATION ……….14-4 1. Cooling System (Flow of Coolant) ………………. 14-5 2. Thermostat ……………… 14-5 3. Water Pump TROUBLESHOOTING ……………. 14-6 ON-VEHICLE INSPECTION AND ADJUSTMENT ……..14-8 1. Inspection and Adjustment of Belt Tension ……..
  • Page 252
    SPECIFICATIONS Item Specifications Cooling system Forced water circulation system Water pump Belt-driven involute type Thermostat Wax pellet, bottom bypass type (with jiggle valve) Automatic cooling fan coupling Continuous control type Radiator Tube and corrugated fin type Coolant capacity 16 {16} 14-2…
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    M E M O 14-3…
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    STRUCTURE AND OPERATION 1. Cooling System (Flow of Coolant) 14-4…
  • Page 255
    2. Thermostat • It is a bottom bypass type that uses a wax-filled pellet as its flow-regulating element. When the wax is heated, it melts from solid to liquid, changing its total volume. This allows the valve to open or close in accordance with the coolant temperature, regulating and adjusting the flow of coolant to the ra- diator and to the cylinder head (by-…
  • Page 256
    TROUBLESHOOTING Symptoms Reference Gr Possible causes Loose or damaged Belt Excessive tension Oil on belt Incorrectly mounted water pump Defective gasket Defective unit bearing Water pump Defective impeller Defective unit seal Too loose fit of unit bearing on flange and impeller Incorrectly mounted case Valve opening temperature too high Thermostat…
  • Page 257
    Symptoms Reference Gr Possible causes Poor installation of breather cover Breather cover Poor installation of gaskets Gr17 Damaged O-rings Tension pulley Poor installation of bearing Poorly airtight pressure cap Insufficient coolant amount Clogged or scaled coolant passage Incorrectly connected hoses Poor installation of pipes Excessively low exterior temperature 14-7…
  • Page 258
    ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Inspection and Adjustment of Belt Tension CAUTION • Make sure that there is no oil or grease on the belts. Belts soiled with oil or grease may easily slip, result- ing in deteriorated performance of the cooling system. Service standards (Unit: mm) Location Maintenance item…
  • Page 259
    • Place at a central portion between pulleys of the belt and push the handle (indicated by the arrow in the illustration) until the O-ring touches the flange. • Measure the amount of deflection of the belt. • If the measured value deviates from the standard value range, adjust the tension of the belt as follows.
  • Page 260
    ON-VEHICLE INSPECTION AND ADJUSTMENT • Enter the unit mass of the belt and push “ (means “exe- cute”)”. Measuring point on the belt Unit mass of the belt 0.016 kg/m • Select the type of the belt. (Select “3” for ribbed belt.) •…
  • Page 261
    • Set the sensor microphone of approx. 10 mm above the belt, at the middle position between pulleys. • Tap the belt lightly with a grip of a screwdriver to vibrate the belt. • Measure the tension a few times and calculate the average val- •…
  • Page 262
    ON-VEHICLE INSPECTION AND ADJUSTMENT 2. Inspection of Cracks or Damage of the Belt • Visually check the belts for possible cracks and damage. • If any faults are found, replace the belts. Belt condition Remaining service life (reference) • The driving distance over the which the belt can still be used is at least as long as that over which the belt has been used since the…
  • Page 263
    3. Coolant Replacement and Cleaning of Cooling System Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks – Radiator drain cock 2.0 {0.2} – – Water drain plug 25 ± 5 {2.5 ± 0.5} – • Using the radiator for extended periods of time without cleaning can increase chance of rust and scale formation, which may cause engine overheating.
  • Page 264
    ON-VEHICLE INSPECTION AND ADJUSTMENT • Select an appropriate cleaning method according to the condition of the cooling system as shown below. • Ordinary condition • Coolant extremely dirty • Radiator clogged Cleaning using radiator cleaner. Flushing with water. Drain out coolant. Make water solution of radiator cleaner at 5 to 10% concentration in volume.
  • Page 265
    4. Air Bleeding of Cooling System • With the pressure cap removed and the coolant temperature at 90°C, let the engine idle in order to bleed air com- pletely out of the cooling system. • After air bleeding is completed, refill the reservoir tank with coolant as needed. 5.
  • Page 266
    DISCONNECTION AND CONNECTION OF HOSES AND PIPES 14-16…
  • Page 267
    14-17…
  • Page 268
    DISCONNECTION AND CONNECTION OF HOSES AND PIPES Removal sequence 1 Upper radiator hose 14 O-ring 27 Radiator pipe 2 Lower radiator hose 15 Water hose 28 Radiator hose 3 Heater hose 16 Water hose 4 Heater pipe 17 Water pipe a: Radiator 5 Heater hose 18 Eyebolt…
  • Page 269
    M E M O 14-19…
  • Page 270
    RADIATOR Removal sequence 1 Upper shroud 7 Baffle plate upper 13 Radiator drain cock 2 Lower shroud 8 Baffle plate RH 14 O-ring 3 Baffle plate RH 9 Baffle plate LH 15 Radiator support cushion 4 Baffle plate RH 10 Support rod 16 Radiator 5 Baffle plate LH 11 Support cushion…
  • Page 271
    Service standards Location Maintenance item Standard value Limit Remedy Air leakage from radiator – 0 cm {0 mL} – Repair or replace (air pressure 177 kPa {1.77 kgf/cm Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Bolt (upper shroud mounting) 5 to 7 {0.5 to 0.7}…
  • Page 272
    COOLING FAN, BELT AND WATER PUMP Removal sequence 1 Cooling fan 4 Water pump a: Alternator 2 Automatic cooling fan coupling 5 Gasket b: Tension pulley 3 Belt 6 Fan pulley : Non-reusable parts • The automatic cooling fan coupling and the water pump cannot be disassembled. It must be replaced if defective. Installation sequence Follow the removal sequence in reverse.
  • Page 273
    Special tools (Unit: mm) Mark Tool name and shape Part No. Application Holding bar MH062970 Holding of fan pulley φ9 Inspection and cleaning procedure Inspection: Automatic cooling fan coupling • Make an inspection of the following points. Replace the automat- ic cooling fan coupling if defective.
  • Page 274
    COOLING FAN, BELT AND WATER PUMP Installation procedure Installation: Fan pulley • Put in position on the studs of the fan pulley and fix the tool by using nuts. • Tighten the fan pulley mounting nut to the specified torque while holding 14-24…
  • Page 275
    TENSION PULLEY Disassembly sequence 1 Sleeve 2 Snap ring 3 Bearing 4 Tension pulley 5 Spacer 6 Shaft 7 Tension pulley bracket Assembly sequence Follow the disassembly sequence in re- verse. Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Sleeve…
  • Page 276
    THERMOSTAT Disassembly sequence 1 Thermostat cover 2 Thermostat a: Oil cooler Assembly sequence Follow the disassembly sequence in re- verse. Service standards (Unit: mm) Location Maintenance item Standard value Limit Remedy Valve opening temperature 82 ± 2°C Thermostat – Replace Valve lift at 95°C 10 or more Inspection procedure…
  • Page 277
    M E M O 14-27…
  • Page 278
    PRESSURE CAP AND WATER OUTLET CASE Disassembly sequence 1 Pressure cap 6 Clip a: Vacuum hose 2 Clip 7 Water hose b: Breather cover 3 Eyebolt 8 Water outlet case : Non-reusable parts 4 Water pipe 9 Gasket 5 Water pipe Assembly sequence Follow the disassembly sequence in reverse.
  • Page 279
    Inspection procedure Inspection: Pressure cap (1) Pressure valve opening pressure • Replace the pressure cap if the measured value deviates from the standard value range. (2) Inspection of vent valve • Before starting the inspection, check the level of coolant in the reservoir tank.
  • Page 280
    GROUP 15 INTAKE AND EXHAUST SPECIFICATIONS…………….15-2 STRUCTURE AND OPERATION ………………15-2 1. Air Cleaner …………….15-3 2. Turbocharger …………..15-4 3. Exhaust Shutter Valve …………..15-4 4. Diesel Particulate Filter TROUBLESHOOTING ……………. 15-5 ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Measurement and Adjustment of Turbocharger Boost ………………
  • Page 281
    Item Specifications Air cleaner element type Filter paper type Model TD04 Turbocharger Manufacturer Mitsubishi Heavy Industries, Ltd. Cooling system Water-cooled Intercooler type Tube and corrugated fin air cooled type Diesel particulate filter type Continuous regeneration type (PM-CAT) STRUCTURE AND OPERATION 1.
  • Page 282
    2. Turbocharger • TD04 model is equipped with turbocharger, which is a variable nozzle vane type turbocharger with adjustable, heat-resistive alloy turbine vanes provided at the turbine exhaust gas inlet port. 15-3…
  • Page 283
    STRUCTURE AND OPERATION 3. Exhaust Shutter Valve • When a driver turns on the exhaust brake switch, the engine electronic control unit sends a signal to the ex- haust shutter 3-way magnetic valve. This turns on the exhaust shutter 3- way magnetic valve, and the valve ap- plies the vacuum pressure from the vacuum tank to the exhaust shutter…
  • Page 284
    TROUBLESHOOTING Symptoms Reference Possible causes Air cleaner Clogged air cleaner element Defective cartridge assembly Turbocharger Compressor cover fitted poorly Foreign substances deposited on intercooler Intercooler front core Butterfly valve does not open Throttle actuator Gr13E Butterfly valve malfunction Front pipe/diesel particulate filter/tail pipe deformed Front pipe/diesel particulate filter/tail pipe fitted poorly Incorrect valve clearances Head gasket defective…
  • Page 285
    ON-VEHICLE INSPECTION AND ADJUSTMENT 1. Measurement and Adjustment of Turbocharger Boost Pressure CAUTION • If boost pressure exceeds the standard value, the engine may malfunction or break down. Boost pressure must be within the specified range. Service standards Location Maintenance item Standard value Limit Remedy…
  • Page 286
    [Calculation of boost pressure correction value] • Obtain the boost pressure correction value using the following equation. Boost pressure correction value = Measured boost pressure – intake air temperature correction value – atmospheric tempera- ture correction value • If boost pressure correction value deviates from the standard value, adjust the turbocharger.
  • Page 287
    ON-VEHICLE INSPECTION AND ADJUSTMENT 1.3 Turbocharger adjustments • Follow the flow chart below when adjustments become necessary on the turbocharger. <Inspection and adjustment sequence> Measure boost pressure Check for contact between control crank and position bolt (see (1) given later) If control crank fails to contact position If control crank contacts position bolt bolt (see (2) given later)
  • Page 288
    (1) Checking contact between control crank and position bolt • Start the engine. • Stop the engine. Set the starter switch to the [ON] position within 40 seconds. • Select [A5: EGR, ETV, VGT] from [Actuator Test] on the Multi- Use Tester screen.
  • Page 289
    ON-VEHICLE INSPECTION AND ADJUSTMENT <Position bolt length adjustment> • Loosen the lock nut. • Using a hexagon wrench, turn the position bolt in illustrated di- rections to bring it into a position clear of the control crank. Adjusting guide: With the engine running at 2500 rpm, one full turn of the position bolt increases boost pressure by approxi- mately 3 kPa.
  • Page 290
    <Actuator shaft length adjustment> • Remove snap rings and pins on the actuator side of the shaft. • Loosen the lock nut. Turning the joint part, extend the shaft until the control crank contacts the position bolt. Adjusting guide: Shaft length changes by 1 mm with one turn of the joint.
  • Page 291
    ON-VEHICLE INSPECTION AND ADJUSTMENT 2. Cleaning and Inspection of Air Cleaner Element [Cleaning] • Blow a jet of compressed air at a pressure not higher than 685 kPa {7 kgf/cm } against the inside surfaces of the element. • Move the compressed air jet up and down along all pleats of the filter paper element.
  • Page 292
    6. Loose Turbocharger • Remove the bolts, loosen the clamp securing the air hose and turbocharger and remove the air hose. • Turn the compressor wheel by turning the shaft tip with fingers. Check that the compressor wheel rotate smoothly without touch- ing the compressor.
  • Page 293
    AIR DUCT AND AIR CLEANER Disassembly sequence 1 Air inlet duct 8 Mesh filter a: Turbocharger 2 Connector 9 Intake air temperature sensor b: Positive crankcase ventilation 3 Air hose 10 Air box hose B 4 Insulator 11 Rubber seal : Non-reusable parts 5 Air duct 12 Air cleaner cap…
  • Page 294
    Cleaning procedure Cleaning: Element • Blow a jet of compressed air at a pressure not higher than 685 kPa {7 kgf/cm } against the inside surfaces of the element. • Move the compressed air jet up and down along all pleats of the filter paper element.
  • Page 295
    AIR DUCT AND AIR CLEANER Installation: Air box • Align slit of air box with key of air cleaner case. Installation: Connector • The protruding portion of the connector is put between clamps. • Installation is such that the space between the connector and the air cleaner case measures the amount shown in the figure.
  • Page 296
    M E M O 15-17…
  • Page 297
    TURBOCHARGER Removal sequence 1 Air hose 16 Gasket 2 Air inlet hose 17 Front pipe 3 Turbocharger coupler 18 Gasket 4 Gasket 19 Exhaust coupler 5 Insulator 20 Gasket 6 Eyebolt 21 Eyebolt 7 Oil pipe 22 By-pass pipe 8 Eyebolt 23 Spacer 9 Water pipe 24 Bracket…
  • Page 298
    Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Clamp 3 to 3.4 {0.3 to 0.35} – Clamp 3.9 to 4.9 {0.4 to 0.5} – Bolt (turbocharger coupler mounting) Bolt (insulator mounting) 23.8 {2.4} – Bolt (exhaust coupler stay mounting) Nut (front pipe mounting) 45 to 60 {4.6 to 6.1} –…
  • Page 299
    TURBOCHARGER Turbocharger Removal sequence 1 Snap ring 8 Position bolt 2 Pin 9 Snap ring 3 Lever 10 Compressor cover 4 Joint 11 Turbine assembly 5 Lock nut 6 Actuator : Non-reusable parts 7 Lock nut NOTE • Do not remove the joint and position bolt from the actuator and turbine assembly unless they are defec- tive.
  • Page 300
    Service standards (Unit: mm) Location Maintenance item Standard value Limit Remedy Pin outer diameter Replace 8 8.5 Lever inner diameter Replace 8 8.5 Joint inner diameter Replace Actuator shaft stroke 18.5 to 21 18.4 Replace Play in shaft axis direction of turbine assembly 0.39 to 0.67 –…
  • Page 301
    TURBOCHARGER Inspection procedure Inspection: Play in shaft axis direction of turbine assembly • With the flange of the turbine assembly attached to a flat plate, measure the play with a dial gauge. • If the measurement exceeds the specified limit, replace the tur- bine assembly.
  • Page 302
    Inspection: Actuator shaft stroke • Conduct the actuator check with the turbocharger electronic drive unit mounted on the vehicle. • Mark the actuator shaft at the zero stroke point. • Select [A5: EGR, ETV, VGT] from [Actuator Test] on the Multi- Use Tester screen and execute it.
  • Page 303
    INTERCOOLER Disassembly sequence 1 Air inlet hose 5 Air inlet pipe RH a: Air inlet duct 2 Air inlet pipe LH 6 Air inlet hose b: Turbocharger coupler 3 Air inlet hose 7 Intercooler 4 Air inlet hose CAUTION • Do not remove forcedly the air inlet hose using a screwdriver or other similar tool. Doing so could dam- age the fluorine treatment layer on the inside surface of the hose, deteriorating the resistance to oil of the hose.
  • Page 304
    Inspection procedure Inspection: Intercooler • Plug one of the air ports of the intercooler and immerse it in a tank of water. Apply the specified air pressure to the intercooler through the other air port and retain pressure for 30 seconds. •…
  • Page 305
    INTERCOOLER • Connect the air inlet hose to the LH air inlet pipe with the white paint on the hose aligned with the buildup on the pipe. • Connect the air inlet hoses to the intercooler, LH air inlet pipe and air inlet duct to the dimensions indicated in the illustrations.
  • Page 306
    M E M O 15-27…
  • Page 307
    INTAKE MANIFOLD Disassembly sequence 1 Intake throttle 6 Vacuum pipe 11 Gasket 2 Gasket 7 Air inlet pipe 3 Vacuum hose 8 Gasket : Non-reusable parts 4 Boost pressure sensor 9 Boost air temperature sensor 5 Vacuum hose 10 Intake manifold Assembly sequence Follow the disassembly sequence in reverse.
  • Page 308
    Inspection procedure Inspection: Boost air temperature sensor • Check that the sensor portion is free of soot, oily substance, etc. • If not, clean the sensor portion as follows. • Spray a cleaner on the sensor portion from 2 or 3 cm away. Recommended cleaners: Nonchlorinated solvent •…
  • Page 309
    EXHAUST MANIFOLD Disassembly sequence 1 Insulator 2 Under insulator 3 Exhaust gas recirculation pipe 4 Gasket 5 Distance piece 6 Exhaust manifold 7 Gasket : Non-reusable parts Assembly sequence Follow the disassembly sequence in re- verse. Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque…
  • Page 310
    EXHAUST PIPE Disassembly sequence 1 Brace bracket 4 Exhaust shutter a: Exhaust manifold 2 Gasket (See later section.) : Non-reusable parts 3 Front pipe 5 Front pipe CAUTION • Loosen the marked bolt first to prevent undue forces from being applied to the exhaust pipe. Assembly sequence Follow the disassembly sequence in reverse.
  • Page 311
    EXHAUST PIPE Exhaust Shutter Disassembly sequence 1 Cover 2 Clevis pin 3 Clevis 4 Power chamber 5 Gasket 6 Bearing 7 Lever 8 Adjust bolt 9 Bracket 10 Seal ring A 11 Seal ring B 12 Valve CAUTION • Do not attempt to disassemble the power chamber.
  • Page 312
    Inspection procedure Inspection: Air-tightness of power chamber • Connect the components with piping as illustrated. Apply the specified inspection vacuum or higher to the power chamber and stop the vacuum pump. • Fifteen seconds later, the reading on the vacuum gauge should conform to the standard value.
  • Page 313
    DIESEL PARTICULATE FILTER <FE85DE, FE85DG> 15-34…
  • Page 314
    <Except FE85DE, FE85DG> Removal sequence 1 Pressure hose 13 Stay 2 Pressure pipe 14 Cushion rubber 3 Tail pipe 15 Bracket 4 Pressure hose 16 Collar 5 DPF differential pressure sensor 17 Cushion rubber 6 Diesel particulate filter band 18 Stay 7 Diesel particulate filter 19 Bracket 8 Gasket…
  • Page 315
    DIESEL PARTICULATE FILTER Tightening torque (Unit: N·m {kgf·m}) Mark Parts to be tightened Tightening torque Remarks Pressure pipe 40 {4.0} – Nut (tail pipe mounting) 26 to 33 {2.7 to 3.2} – Nut (diesel particulate filter mounting) Nut (diesel particulate filter band mounting) 20 {2.0} –…
  • Page 316
    GROUP 15E TURBOCHARGER CONTROL SYSTEM SPECIFICATIONS…………..(See Gr15.) STRUCTURE AND OPERATION ………………15E-2 1. Overview …………15E-3 2. Electronic Control System ……..15E-5 3. Electronic Control Unit Wiring Diagram TROUBLESHOOTING ……(See Gr13E.) 1. Inspection Based on Diagnosis Codes ……… (See Gr13E.) 2.
  • Page 317
    STRUCTURE AND OPERATION 1. Overview • In the turbocharger control system, various engine-related information (engine speed, coolant temperature, accel- erator position) and driving status are collected by the relevant sensors and are sent to the engine electronic con- trol unit and turbocharger electronic drive unit which then control the engine based on the information received. •…
  • Page 318
    2. Electronic Control System 2.1 System block diagram Part Main function/operation Engine speed sensor Sensing of engine speed Cylinder recognition sensor Cylinder recognition Water temperature sensor Sensing of coolant temperature Boost pressure sensor Sensing of boost pressure Accelerator pedal position sensor Sensing of extent of accelerator pedal depression Engine warning lamp Indication of system abnormalities…
  • Page 319
    STRUCTURE AND OPERATION 2.2 Turbocharger control function • In response to output data from various sensors, the engine electronic control unit determines the opening of tur- bine vanes as required by the engine operating status and sends necessary control signals to the turbocharger electronic drive unit.
  • Page 320
    3. Electronic Control Unit Wiring Diagram Starter switch M F S LOCK Engine electronic START control unit Fuse box STARTER SW(M)-1 STARTER SW(M)-2 ECU POWER(+VB)-1 ECU POWER(+VB)-2 ECU POWER(+VB)-3 GND(POWER GND) GND(POWER GND) GND(ANALOG GND) SENSOR-1 SENSOR-1 Accelerator pedal position sensor SENSOR-2 SENSOR-2 High-current…
  • Page 321
    GROUP 17 EMISSION CONTROL STRUCTURE AND OPERATION ……….17-2 1. Exhaust Gas Recirculation System ……….17-3 2. Crankcase Emission Control System EXHAUST GAS RECIRCULATION VALVE, PIPE AND COOLER ..17-4 CRANKCASE EMISSION CONTROL SYSTEM……… 17-6 17-1…
  • Page 322
    STRUCTURE AND OPERATION 1. Exhaust Gas Recirculation System • In the exhaust gas recirculation system, the engine electronic control unit and multiple electronic drive units con- trol the exhaust gas recirculation valve and intake throttle in accordance with information from sensors on various aspects of the engine (engine speed, intake air quantity, coolant temperature, throttle opening, etc.).
  • Page 323
    2. Crankcase Emission Control System • The crankcase emission control system returns blowby gases to an air duct to prevent them from being released to the outside air. • The positive crankcase ventilation valve keeps constant the pressure inside the crankcase. 17-3…
  • Page 324
    EXHAUST GAS RECIRCULATION VALVE, PIPE AND COOLER Removal sequence 1 By-pass pipe 8 EGR gasket 15 O-ring 2 Connector 9 EGR valve 3 EGR pipe C 10 EGR gasket B a: Air inlet pipe 4 EGR gasket 11 EGR pipe B b: Exhaust manifold 5 EGR gasket A 12 EGR gasket…
  • Page 325
    Inspection procedures Inspection: Air leakage from EGR cooler • Perform the following inspection. If any abnormality is found, re- place the exhaust gas recirculation cooler. (1) Exhaust gas passage side • Fit a cover over the exhaust gas outlet of the exhaust gas recir- culation cooler, and connect a hose to the exhaust gas inlet.
  • Page 326
    CRANKCASE EMISSION CONTROL SYSTEM Removal sequence 1 Washer 7 Gasket 13 O-ring 2 Rubber bushing 8 Breather gasket a: Front case 3 Spacer 9 PCV hose B : Non-reusable parts 4 Breather cover A 10 PCV pipe PCV: Positive crankcase ventilation 5 Separator plate 11 PCV hose 6 Breather cover B…
  • Page 327
    Lubricant and/or sealant Mark Points of application Specified lubricant and/or sealant Quantity O-ring Engine oil As required Mating surface of breather cover A or B ThreeBond 1216 As required Installation procedures Installation: PCV hose • Install the PCV hose to the PCV pipe with the white paint on the hose and the black paint on the pipe aligned as shown in the il- lustration.
  • Page 328
    GROUP 17E EXHAUST GAS RECIRCULATION SYSTEM AND DIESEL PARTICULATE FILTER SPECIFICATIONS…………..(See Gr17.) STRUCTURE AND OPERATION ………………17E-2 1. Overview …………17E-4 2. Electronic Control System ……17E-7 3. Electronic Control Unit Connection Diagram TROUBLESHOOTING ……(See Gr13E.) 1. Inspection Based on Diagnosis Codes ………
  • Page 329
    STRUCTURE AND OPERATION 1. Overview 1.1 Exhaust gas recirculation system • In the exhaust gas recirculation system, the engine electronic control unit and multiple electronic drive units con- trol the exhaust gas recirculation valve and intake throttle in accordance with information from sensors on various aspects of the engine (engine speed, intake air quantity, coolant temperature, throttle opening, etc.).
  • Page 330
    1.2 Diesel particulate filter • Diesel particulate filter is a large-ca- pacity system consisting of an ultra-ef- ficient oxidation catalyst and a filter. Diesel particulate filter is designed to efficiently break and capture PM emit- ted by engines running on low-sulfur fuel, and the filter is continuously re- generated.
  • Page 331
    STRUCTURE AND OPERATION 2. Electronic Control System 2.1 System block diagram Part Main function/operation Engine speed sensor Sensing of engine speed Water temperature sensor Sensing of coolant temperature Accelerator pedal position sensor Sensing of extent of accelerator pedal depression Intake air temperature sensor 1 Sensing of intake air temperature Intake air temperature sensor 2 Sensing of boost air temperature…
  • Page 332
    2.2 Exhaust gas recirculation (1) Exhaust gas recirculation valve control function • In accordance with data from sensors, the engine electronic control unit determines the exhaust gas recirculation valve opening that suits the operating condition and sends a control signal (this indicates the target exhaust gas recirculation valve opening) to the exhaust gas recirculation electronic drive unit.
  • Page 333
    STRUCTURE AND OPERATION (2.1) Intake throttle • In accordance with signals from the throttle electronic drive unit, the motor opens and closes the butterfly valve, thereby adjusting the intake air amount such that the effectiveness of exhaust gas recirculation is maximized. (3) Fault diagnosis function •…
  • Page 334
    3. Electronic Control Unit Connection Diagram Starter switch M F S LOCK Engine electronic control unit START STARTER SW(S) STARTER SW(M)-1 Fuse box STARTER SW(M)-2 ELECTRONIC CONTROL UNIT POWER(+VB)-1 ELECTRONIC CONTROL UNIT POWER(+VB)-2 ELECTRONIC CONTROL UNIT POWER(+VB)-3 GND(POWER GND) GND(POWER GND) GND(ANALOG GND) Engine speed sensor Accelerator pedal position sensor…
  • Page 335
    ( EURO 4 ) For Colombia Shop Manual 4M5 diesel engine MARCH 2015…
  • Page 336
    Pub.No.00ELT0085, MARCH 2015…

Mitsubishi Fuso Canter / Fighter owner’s, service and maintenance manuals, spare parts manuals, wiring diagrams, 4M51/4P10/8DC9 Engine Manual free download PDF

See also:

Title File Size Download Links
Mitsubishi Fuso 1996-2001 Service Manuals All Models (FE, FG, FH, FK, FM) [PDF] 227.2Mb Download
Mitsubishi Fuso 2005 Service Manuals All Models (FE, FG, FK, FM) [PDF] 168.4Mb Download
Mitsubishi Fuso 4M4 series diesel engine Service Manual [PDF] 30.2Mb Download
Mitsubishi FUSO Bus Fault Codes List PDF [PDF] 98.6kb Download
Mitsubishi FUSO Diagnostics Operation Manual [PDF] 41.4Mb Download
Mitsubishi Fuso Engine 4D56, 4M41 Service Repair Manual [PDF] 777.1kb Download
Mitsubishi Fuso Engines [PDF] 35.5kb Download
Mitsubishi FUSO FE 2012 Owner / s Manual [PDF] 17.3Mb Download
Mitsubishi Fuso FE Series 2006 Engine – inspection and adjustment of Valve Clearence [PDF] 104.3kb Download
Mitsubishi Fuso FE / FG 2010 Owner’s Manual [PDF] 15.7Mb Download
Mitsubishi Fuso FG 2010 Owner’s Manual [PDF] 15.7Mb Download
Mitsubishi Fuso FH 1996-2001 Service Manual [PDF] 63.4Mb Download
Mitsubishi Fuso FH 1997 Service Manual [PDF] 9.4Mb Download
Mitsubishi Fuso FK 2008 Owner / s Manual [PDF] 15.4Mb Download
Mitsubishi Fuso FK 2008 Owner’s Manual [PDF] 15.4Mb Download
Mitsubishi Fuso FK / FM 2006 Owner’s Manual [PDF] 12.8Mb Download
Mitsubishi Fuso FK,FM 2006 Owner / s Manual [PDF] 12.8Mb Download
Mitsubishi Fuso Transmission – Body Builder’s Drawings And Supporting Data [PDF] 5.8Mb Download

Mitsubishi Canter Service Manual PDF

Mitsubishi Fuso/Canter Service Repair Manuals are contains:

  1. Detailed service and repair instructions;
  2. Electrical Wiring Diagrams;
  3. Electrical Schematics;
  4. Instructions for diagnosis of Mitsubishi trucks;
  5. Diagnostic Trouble Codes list (or error codes)

Also on this page, you can find Mitsubishi Fault Codes list in PDF-format.

Title File Size Download Links
Mitsubishi Body-equipment mounting directives for CANTER EURO V (FB-FE) [PDF] 27.4Mb Download
Mitsubishi Canter 4.5t Specifications [PDF] 184.3kb Download
Mitsubishi Canter 4M5 Engine FE85DE6SLGP, FE85DG6SLGP, FE85DHZSLGP Shop Manual [PDF] 13.8Mb Download
Mitsubishi Canter engine 4M40 Service Manual [PDF] 3.2Mb Download
Mitsubishi Canter engine 4M41 Service Manual [PDF] 2.4Mb Download
Mitsubishi Canter Fuso 3c15 Specifications [PDF] 52.6kb Download
Mitsubishi Canter Specifications [PDF] 732.1kb Download
Mitsubishi Engine 4m4 Service Manual [PDF] 3.2Mb Download
Mitsubishi Fuso Canter 2010-2013 Service Repair Manual [PDF] 222.2Mb Download
Mitsubishi Fuso Canter 4D3 diesel engine Workshop Manual [PDF] 11.6Mb Download
Mitsubishi Fuso Canter FB-FE-FG [PDF] 3Mb Download

Mitsubishi Fuso Fighter Manuals PDF

Title File Size Download Links
MITSUBISHI FUSO FIGHTER 6M60 Engine Service Manual [PDF] 572.2kb Download
Mitsubishi Fuso Fighter FK FM FN Brochure 2015 [PDF] 1.1Mb Download
Mitsubishi Fuso Fighter FM 65 FL Specifications [PDF] 784.9kb Download

Mitsubishi Fuso Manual PDF

Mitsubishi Fuso Canter light trucks confidently travel worldwide, performing any task. If just such vehicles are involved in a commercial business, then you can be sure that Japanese technology will not cause the company to fail. That is why Mitsubishi Fuso Canter trucks are so often used to transport heavy loads over impressive distances, entirely relying on their high performance.

To keep the truck in great shape, it is best to rely on manuals on controversial automotive issues. Unfortunately, it isn’t easy to find a more detailed manual than the Mitsubishi Fuso repair manuals produced since 2010, considering the improved versions of the 2012 release. The manuals generally consider these models, produced from 1998 to 2018, and subsequent modifications.

These Mitsubishi Fuso manuals are best suited as a technical aid for car service specialists who need to find the best solutions for the most complex repair tasks, diagnostic rules, parts replacement, numerous reference information on the permissible wear of spare parts, their dimensions, diagnostic codes, and so on. But a knowledgeable car owner will not be disappointed picking up a Mitsubishi Fuso Canter repair manual since the pages of the manual give essential tips for drivers, explain many repair procedures that you can perform yourself, and have maintenance instructions.

The Mitsubishi Fuso manual PDF allows you to carefully analyze all the essential topics related to Japanese Mitsubishi trucks. In addition, some safety instructions must be followed when working with a machine of this kind. Finally, many simple solutions are presented in case of possible difficulties on the road.

An overview of the Mitsubishi Fuso Canter’s design will help you understand precisely how the equipment is arranged and works. The Mitsubishi Fuso Canter instruction manual will become an excellent guide to the world of island trucks for beginners and experienced drivers.

Mitsubishi Fuso Manual PDF

Mitsubishi Fuso Canter

Truck maintenance instructions describe in detail all the necessary work to maintain the machine’s working shape according to the regulations. This guarantees trouble-free operation of the car even in the event of bad roads and adverse weather conditions.

The manuals also contain complete Mitsubishi Fuso wiring diagrams for clever work with the truck’s electrical equipment, considering various configuration options.

Mitsubishi Fuso Canter repair is described in the manual in the most detail. There are precise illustrated instructions for professionals and visual tips for car owners that will help you find the only correct solution in a difficult situation. Consistent algorithms for diagnostic and repair work will help you avoid mistakes in the repair process and make it the most efficient.

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Mitsubishi Canter 1993-2002 / Митсубиси Кантер 1993-2002

Руководство по эксплуатации, техобслуживанию и ремонту Mitsubishi Canter / Митсубиси Кантер
Operation, Maintenance and Repair Manual Mitsubishi Canter

Canter.jpg
Года выпуска: 1993-2002
Year of release: 1993-2002
Дизельные двигатели: 4D33 (4,2 л.), 4D34-T4 (3,9 л.), 4D35 (4,6 л.), 4D36 (3,6 л.), 4M40 (2,8 л.), 4M51 (5,2 л.)
Diesel engines: 4D33 (4.2 l.), 4D34-T4 (3.9 l.), 4D35 (4.6 l.), 4D36 (3.6 l.), 4M40 (2.8 l.), 4M51 (5.2 l.)

CanterDoc.jpg
Язык: Русский
Формат: PDF
Размер: 370 Мб
Russian language
Format: PDF
Size: 370 MB

Скачать документацию Mitsubishi Canter / Митсубиси Кантер
Download the documentation of Mitsubishi Canter
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Title

File Size

Download Links

Mitsubishi Fuso 1996-2001 Service Manuals All Models (FE, FG, FH, FK,
FM) [PDF]

227.2Mb

Download

Mitsubishi Fuso 2005 Service Manuals All Models (FE, FG, FK, FM)
[PDF]

168.4Mb

Download

Mitsubishi Fuso 4M4 series diesel engine Service Manual [PDF]

30.2Mb

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Mitsubishi FUSO Bus Fault Codes List PDF [PDF]

98.6kb

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Mitsubishi FUSO Diagnostics Operation Manual [PDF]

41.4Mb

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Mitsubishi Fuso Engine 4D56, 4M41 Service Repair Manual [PDF]

777.1kb

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Mitsubishi Fuso Engines [PDF]

35.5kb

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Mitsubishi FUSO FE 2012 Owner / s Manual [PDF]

17.3Mb

Download

Mitsubishi Fuso FE Series 2006 Engine — inspection and adjustment of
Valve Clearence [PDF]

104.3kb

Download

Mitsubishi Fuso FE / FG 2010 Owner’s Manual [PDF]

15.7Mb

Download

Mitsubishi Fuso FG 2010 Owner’s Manual [PDF]

15.7Mb

Download

Mitsubishi Fuso FH 1996-2001 Service Manual [PDF]

63.4Mb

Download

Mitsubishi Fuso FH 1997 Service Manual [PDF]

9.4Mb

Download

Mitsubishi Fuso FK 2008 Owner / s Manual [PDF]

15.4Mb

Download

Mitsubishi Fuso FK 2008 Owner’s Manual [PDF]

15.4Mb

Download

Mitsubishi Fuso FK / FM 2006 Owner’s Manual [PDF]

12.8Mb

Download

Mitsubishi Fuso FK,FM 2006 Owner / s Manual [PDF]

12.8Mb

Download

Mitsubishi Fuso Transmission — Body Builder’s Drawings And Supporting
Data [PDF]

5.8Mb

Download

Download

Mitsubishi Canter engine 4M40 Service Manual

Mitsubishi Canter engine 4M40 Service M

Adobe Acrobat Document
3.2 MB

Download

Mitsubishi Canter engine 4M41 Service Manual

Mitsubishi Canter engine 4M41 Service Ma

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2.5 MB

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Mitsubishi FUSO FE 2012 Owner’s Manual

Mitsubishi FUSO FE 2012 Owner’s Manual.p

Adobe Acrobat Document
18.1 MB

Download

Mitsubishi 2010 Fuso FG Owner’s Manual

Mitsubishi 2010 Fuso FG Owner’s Manual.p

Adobe Acrobat Document
16.9 MB

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Mitsubishi Engine 4m4 Service Manual

Mitsubishi Engine 4m4 Service Manual.pdf

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3.2 MB

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MITSUBISHI FUSO FIGHTER 6M60 Engine Service Manual

MITSUBISHI FUSO FIGHTER 6M60 Engine Serv

Adobe Acrobat Document
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Mitsubishi Fuso FK 2008 Owner’s Manual

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Mitsubishi K3M Tractor Maintenance Manual

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Mitsubishi MT2100_210_2500_250 Parts catalog engine

Mitsubishi MT2100_210_2500_250 Parts cat

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Mitsubishi Tractor Diesel Engines Service Manual

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Mitsubishi Fuso FK,FM 2006 Owner’s Manual

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Mitsubishi MT160-180 Repair Manual

Mitsubishi MT160-180 Repair Manual.pdf

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Mitsubishi MT2100_210_2500_250 Parts catalog chassis

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Mitsubishi Tractor bd2g_bs3g Operators Manual

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Mitsubishi Body-equipment mounting directives for CANTER EURO V
(FB-FE) [PDF]

27.4Mb

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Mitsubishi Canter 4.5t Specifications [PDF]

184.3kb

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Mitsubishi Canter 4M5 Engine FE85DE6SLGP, FE85DG6SLGP, FE85DHZSLGP
Shop Manual [PDF]

13.8Mb

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Mitsubishi Canter engine 4M40 Service Manual [PDF]

3.2Mb

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Mitsubishi Canter engine 4M41 Service Manual [PDF]

2.4Mb

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Mitsubishi Canter Fuso 3c15 Specifications [PDF]

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Mitsubishi Canter Specifications [PDF]

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Mitsubishi Engine 4m4 Service Manual [PDF]

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Mitsubishi Fuso Canter 2010-2013 Service Repair Manual [PDF]

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Mitsubishi Fuso Canter 4D3 diesel engine Workshop Manual [PDF]

11.6Mb

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Mitsubishi Fuso Canter FB-FE-FG [PDF]

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MITSUBISHI FUSO FIGHTER 6M60 Engine Service Manual [PDF]

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Mitsubishi Fuso Fighter FM 65 FL Specifications [PDF]

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Mitsubishi MT160-180 Repair Manual.pdf

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Mitsubishi MT180HD Repair Manual.pdf

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History of Mitsubishi branOne of Japan’s largest and oldest engineering corporations, Mitsubishi, is currently the third largest car manufacturer in the country and a leading truck manufacturer.
Its roots go to the small shipping company Tsukumo Shokai, founded in 1870 by Yataro Iwasaki. In March 1873, she received the now world-famous name «Mitsubishi» and the emblem in the form of
three diamonds. By the beginning of the 20th century, the company had become a large industrial cartel that produced ships and various equipment.

In 1917, the shipbuilding branch of Mitsubishi Shipbuilding Co. from Kobe acquired in Italy a license for the production of a Fiat Zero car. In Japan, he received the brand «Mitsubishi A». This
model was the first in the country passenger car production. The following year, 7-1 trucks (30 hp) were created for 2-3 tons, then produced in small batches for almost 10 years. In 1924, the
first Japanese dump trucks and watering vehicles were built on their chassis.

Mitsubishi Fuso
Mitsubishi Fuso

In 1920, a group for the production of internal combustion engines was separated from the shipbuilding department, and in 1928 — an aviation branch. Both of them in 1934 formed in Tokyo a heavy
engineering company Mitsubishi Heavy Industries (Mitsubishi Heavy Industries) with its own automobile department. Most of Mitsubishi’s development of those years was not directly related to
trucks, although all of them later became the basis of their design. This is Japan’s first 4-cylinder diesel with direct fuel injection (1931), the first Japanese gasoline and diesel buses (the
B-46 and BD-43/46 models in 1932 and 1935), which received the Fuso trademark «(Fuso), and the first Japanese all-wheel drive car» RX-33 «4 × 4 (1934).

Since 1932 the passenger-bus «VT-38» was produced. The first experienced 3-axle gasoline trucks TS-20 and TSS-28 (6 × 4) with a payload of 2-2.5 tons appeared two years later and were civilian
versions of the standard army model «Type 94». In 1936, the first diesel truck «TD-45» (70 hp) was built on Mitsubishi, and in 1937 — the first truck with a wheel arrangement of 4 × 4. During
World War II, light and medium tanks were produced at Mitsubishi factories.

The post-war revival of the Mitsubisi concern began in November 1945 with the release of the 4 ton truck KT-1. From the next year, fire engines with 6-cylinder petrol or diesel engines (110-120
hp) were produced on the hooded bus chassis «B-1». During this period, the automobile division of Mitsubishi continued to search for its development path and produced a wide variety of vehicles:
C-10 scooters and MB-46 electric buses (1947), Mizushima 3-wheeled cargo bikes ) And multi-buses «R-11» wagon configuration (1950), American «jeeps» (1953). In 1952, based on the trading company
«Fuso Motor Sales» (Fuso Motor Sales), the second automobile branch of Mitsubishi-Fuso in Nagoya, specializing mainly in buses, was established.

Meanwhile, the production of trucks offered under the Fuso trademark unfolded at Tokyo’s repeatedly transformed Mitsubishi Heavy Industries branch in Tokyo. In
1951, a series of «T» appeared, which was produced for more than 30 years. The first was a 8 tonne hatch T-31 truck, followed three years later by a 7.5-ton T-32 variant. Completely manufactured
at the enterprises of Mitsubishi began in 1955 a new 8-ton T-33 with a vacuum brake booster. In parallel, the company produced very popular in Japan light pick-up trucks «Minica» (Minica) and
3-wheel cars «Leo LT-10/11» (Leo) with a carrying capacity of 350-500 kg. With 2-cylinder motors of motorcycle type (359-493 cm3, 18-21 hp).

The transition of Mitsubishi to the mass production of trucks occurred in 1959 with the manufacture of an updated series of «T» in the hood and bonnet versions. The first Japanese heavy truck
with a reclining cab above the engine was the 8-ton model «T380» (6 × 2) with a diesel engine with a capacity of 200 horses. In 1959, the hood series «Jupiter» (Jupiter) with a carrying capacity
of 2.5-3.5 tons with diesel or gasoline engines (70-76 hp) appeared. It became the base for the popular 25-seat buses «Rosa» (Rosa). Since 1960, the production of 8 tonne hood «T330» with a
6-cylinder in-line diesel engine (8.6 liters, 165 hp), including a reinforced version of the «T335LM» for construction, began.

In 1963, based on the «Jupiter» series, a very elegant boneless version of the «Fuso T720» was produced, which has now become known as the «Canter». During the sixties, based on these chassis, an
extensive cargo program was formed, Mitsubishi, which included the second generation of the Canter, the first 4-tonne bespokapotnaya model «T620» (110 hp), as well as a family of heavy vehicles
«Т360», «Т390», «Т410», «Т810», «Т910 / 911» and «Т951» with lifting capacity of 3-5 tons with wheel formulas 4 × 2, 6 × 2 (with front and rear or two front driven axles ) And 6 × 4 with 6
8-cylinder diesel engines (13,3-14,8 liters, 200-280 hp) and power steering.

Based on 6-ton full-drive army trucks «W20», «W23» and «W27» (6 × 6) with engines with a power of 200-280 hp. Special tractors, timber trucks, 10-ton dump trucks «W11D» and aerodrome fire trucks
were produced. Since 1966, based on the «Minica» passenger car model, Mitsubishi has offered its lightest 18-strong Minicab truck with an all-metal body for the local market. Two years later, a
van and a Delica pickup truck with a payload of 600 kg appeared. With engines of 53 hp, created on the aggregates of the Kolt-1000 (Colt) passenger car and became the prototype of the modern
series «L300».

The program also included 2-axle 7-ton construction dump trucks «T-52» with a 1-seater cabin, multi-seat buses and trolleybuses. By the end of the 1960s, the Mitsubishi concern
took the first place in Japan in the production of trucks. In April 1970, based on the division of Mitsubishi Heavy Industries, an independent automobile company, Mitsubishi Motors Corporation,
was established, but in May of the following year, the US Chrysler bought out 15% of its shares. In 1973, its share increased to 35%. This allowed us to modernize the entire program and enter new
markets.

The main events of those years are the introduction in 1972 of the heavy series «T813» with the new diesel V10 and the third generation of the Kanther range in 1973. Simultaneously, the formation
of a new series of «F» with a cabin over the engine, which is still manufactured at the Kawasaki plant near Tokyo, began. By 1982, it included hundreds of variants of unified trucks and truck
tractors of the FK, FM, FP, FR, FS, FT, FU, FV and FW models with Wheeled formulas from 4 × 2 to 8 × 4 with in-line 6-cylinder naturally aspirated diesel engines (6557-11945 cm3, 160-240 hp) or a
direct injection V8 engine (16031 cm3, 320 hp), 5 , 6 or 10-step gearboxes, 2-circuit hydropneumatic brake actuator and spring suspension.

The hood series consisted of dump trucks and timber carriers «NV» (6 × 4) and «NW» (6 × 6) with a total mass of 25.5 tons (as part of a road train — up to 44 tons) with a new diesel V8 (14886
cm3, 285-305 liters .s.) And a 12-speed gearbox. In the 70-ies. A large batch of such cars was delivered to the timber enterprises of the Soviet Far East. Since 1976, the production of crane
chassis began, the carrying capacity of which by 1981 reached 150 tons (4-axle model «K1302»). In 1978, the fourth generation of Canter and the small FE series began, and in 1981 the lightest 1.5
ton Kanter 15 model. The name «Fuso» was used only on machines destined for the Japanese market.

By the 70-ies. Is also the beginning of mass production of light trucks Mitsubishi. In 1978, the production of pick-up trucks L200, known in Japan as Strada, began at the Nagoya plant using
Lancer car units. From next year, pickups were sold in the US through Chrysler’s trade network under the brands «Dodge D50» and «Plymouth Arrow», and since 1980 they have been offered 4×4
versions. In 1979, there appeared vans of the «L300» series, which for Japan retained the former name «Delica». Since 1982 they were offered in version 4 × 4, and in four years their second
generation followed.

Machines were produced with engines with a capacity of 75-100 hp, with a body-van capacity of up to 10 m3 or a platform with a carrying capacity of 1.4 tons. In 1982, the release of universal
passenger and passenger cars Pajero 4 × 4, known in several countries as Montero and Shogun, began. Since 1984, a new generation of the smallest in the program company «Mini» car carrying
capacity of 350 kg was offered. With a wheelbase of only 2200 mm., Produced at a new plant in Mizushima. A year later, the production of the fifth family of Canter and the new export model FH
with a total mass of 7.5-10 tons started, which received a diesel with a turbo-supercharging of 145 horsepower.

In 1983, the radical modification of the «F» series was made, which received a safer, more comfortable and rigorous cab over the engine. Since then, there has been a clear separation of trucks
for sale on the domestic and foreign markets. They differed in designation, load-carrying capacity, full weight, safety factor, technical level, cab comfort and appearance. The models bearing the
export name «Kanter» in Japan were designated «Fighter Minion» (Fighter Minion), and medium and heavy machines of the «F» series were called «Fighter» and «The Great».

On April 15, 1985, an agreement was signed with the Chrysler concern on the establishment of a joint venture in the United States, which entered service the next year. By that time, assembly
plants of the Mitsubishi concern had already worked in South Korea, Thailand, India, Malaysia, New Zealand, and the Philippines. In the late 80’s, the company «Mitsubishi»
produced annually up to 600 thousand trucks, which were exported to 160 countries. In 1988, 47,000 lorries with a gross tonnage of more than 6 tons were manufactured, including 24525 lorries,
more than 15 tons (ninth in the world). In 1993 and 1999, the eighth and ninth generation of the Minicab Van and Minicab Truck vans with a gross mass of 1180 kg began to be produced. With a
3-cylinder gasoline engine (657 cm3, 48 hp), a manual or automatic transmission.

Their length was 3.3 m, the maximum speed is 100 km / h. Only for export are cargo variants of one-volume cargo-passenger vehicles «Space Runner» and «Space Vagon» (Space Wagon) with 2-liter
petrol and diesel engines (82-133 hp), developing speed ISO -185 km / h. Light «Pajero» new generation with engines with a capacity of 92-153 hp. They are produced in the form of vans and are
capable of towing trailers weighing up to 3.3 tons. Production of L200 pick-up trucks with a total weight of 2.4-2.8 tons (4 × 2/4 × 4) is established in Thailand, where since 1996 they have been
manufactured with an updated appearance, a new turbocharged and intercooled turbocharged diesel engine (2477 cm3 , 100 hp), a 10-speed box, a front independent suspension and three types of cabs.

In the early 90s, the L300 series in Western Europe was offered in the performance of TranCity with gasoline or diesel engines with a power of 70-116 hp. And power steering. Similar to her
«Delica» with a total mass of 2.2-2.6 tons in Japan is produced with engines of 79-90 hp, a mechanical 5-speed or automatic 4-speed gearbox. In late 1996, they were replaced by a new series of
light wagons «L400» (in Japan — «Delica Cargo») with a total mass of 2.5-2.7 tons with engines of 100-106 hp.

Since 1993, the sixth generation of Canter has been produced with a more streamlined and comfortable cabin, including FB, FC, FE 4×2 and FG 4×4 models with a total mass of 3.4-6 , 3 tons, which
are offered in a variety of options with engines with a capacity of 75-155 horses. In Western Europe, the «FB» and «FE» models are commonly referred to as «Canter 35» or «City Canter», and the
«FE» and «FH» variants with a total mass of 5.4-9.9 tons are referred to as » Distri Canter. They are also collected by Mitsubishi subsidiaries in Portugal, Belgium and India. In
Japan, the lightest range of Canter, with a carrying capacity of 1-1.5 tons, with a 2.8-liter 94-horsepower diesel engine, is called Tate (Guts).

Variants «Fuso Fighter Mignon II» for Japan with a capacity of 4 — 7 tons have 210-strong diesel, front independent suspension and disc brakes with ABS, wheelbase from 2.5 to 7.2 meters. Until
the end of the 20th century, about 1.5 million machines of the Kanter series were manufactured. Since 1992, the updated export models of the middle class «FK», «FL» and «FM» with a total mass of
8-17.7 tons are equipped with 6-cylinder diesel engines without supercharging (b, 6-7.5 liters, 160-190 liters .с.), 5-step gearboxes, tires in the size from 16 to 24 inches. A similar series of
«Fuso Fighter» with a carrying capacity of 3.5-10.8 tons is offered in Japan with 4 and 6-cylinder turbocharged engines (4899-8201 cm3, 180-270 hp) and a 6-speed The box.

Since 1996, the heaviest cars in Japan have received the name «Fuso Super Great» (Super Great). They constitute a new unified family with a carrying capacity of 7.1-16.1 tons and a full weight of
15.8-25 tons, which includes the series «FP» (4 × 2), «FT» and «FU» (6 × 2), «FV» and «FY» (6 × 4), «FS» (8 × 4). Cars differ cabins over the engine of the increased sizes and with the big area
of a glass cover. They are economical and low-toxic diesel engines — row 6-cylinder turbocharged and intercooled and naturally aspirated V8 and V10 (11945-25112 cm3, 310-480 hp), mechanical
gearboxes with a number of steps from 6 to 16, spring Or pneumatic suspension with electronic control.

For the first time for Japanese heavy vehicles, they are equipped with front air bags, navigation systems and radar devices. Until now, the production of a heavy-duty hooded series «NW» is
continuing to work on the ground and as part of road trains weighing up to 140 tons. The «Mitsubisi» cargo program is closed with low-frame chassis of 6 × 4 and 8 × 4 with
engines of 240-355 horses for cranes with a carrying capacity of 20-50 tons. At the end of the 20th century, the Mitsubishi Corporation owned 9 plants and two research centers in Japan, employing
28,400 people.

Mitsubishi Fuso Canter Eco-D Concept Dump Truck
Mitsubishi Fuso Canter Eco-D Concept Dump Truck

The production of trucks and all units for them is carried out on three main robotic enterprises with a total area of over 300,000 m2, where 4,000 people work. Assembling companies and
subsidiaries of Mitsubishi are located in 27 countries of the world. In 1999, all of them produced over 500,000 different trucks and buses, including 53,300 cars weighing more than 6 tons, which
corresponds to the third place in Japan and the 13th in the world. On March 27, 2000, an agreement was signed with the Daimler-Chrysler concern, to which 34% of Mitsubishi’s shares were
transferred. In 2002, the production of an updated Mitsubishi KANTER car in Japan is launched. The car has significantly improved characteristics of reliability, functionality, performance in
addition to safety and comfort.

The start of sales of the new seventh generation Mitsubishi Fuso Canter in Russia, after the formation of the joint venture FUSO KAMAZ Trucks RUS, formed within the framework of cooperation
between KamAZ and DAIMLER AG. The German concern owns almost 90% of the shares of Mitsubishi Fuso Trucks & Bus Corporation. At the moment, Mitsubishi Fuso Trucks & Bus Corporation, being
an integral part of the Daimler concern, is developing in the direction of energy-saving technologies, in particular, by the year 2012 the appearance of a fundamentally new Mitsubishi
Fuso
CANTER, with a fully electric power unit, was announced. The Russian prospects of Mitsubishi Kanter for the next 2 years will be the transition to the Euro-4 standard.

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