Information governor
BOSCH
9 420 610 117
9420610117
ZEXEL
105306-0071
1053060071
NISSAN-DIESEL
1910196502
1910196502

Rating:
Scheme ###:
1. | [1] | 153003-0320 | GOVERNOR HOUSING |
2. | [2] | 153005-0800 | CAPSULE |
3. | [2] | 153006-0100 | GASKET |
4. | [1] | 155004-2601 | LEVER SHAFT |
5. | [1] | 155005-2300 | COILED SPRING |
6. | [1] | 155003-1601 | CONTROL LEVER |
7. | [1] | 155006-0100 | BLEEDER SCREW |
8. | [2] | 029620-8050 | PACKING RING |
8. | [2] | 029620-8050 | PACKING RING |
9. | [0] | 029310-8040 | SHIM D13.5&8T0.2 |
9. | [0] | 029310-8040 | SHIM D13.5&8T0.2 |
9B. | [0] | 029310-8050 | SHIM D13.5&8T0.5 |
10. | [2] | 029300-8320 | SHIM |
10. | [2] | 029300-8320 | SHIM |
11. | [2] | 025520-1210 | SPLIT PIN |
11. | [2] | 025520-1210 | SPLIT PIN |
13. | [8] | 020106-2040 | BLEEDER SCREW M6P1L20 |
13. | [8] | 020106-2040 | BLEEDER SCREW M6P1L20 |
14. | [1] | 025802-1010 | WOODRUFF KEY |
15. | [1] | 155414-3920 | CONTROL LEVER |
16. | [1] | 155411-7100 | FLAT-HEAD SCREW |
17. | [1] | 155011-0200 | HEXAGON NUT |
21. | [1] | 155404-1700 | CAP |
22. | [1] | 026524-3040 | GASKET |
35. | [1] | 153100-4110 | GOVERNOR COVER |
37. | [1] | 026510-1440 | GASKET D13.9&10.2T1 |
38. | [1] | 029111-0030 | CAPSULE |
49. | [1] | 153141-1700 | BLEEDER SCREW |
50. | [1] | 013020-6040 | UNION NUT M6P1H5 |
60. | [1] | 153120-2800 | LEVER SHAFT |
61. | [1] | 153123-0120 | CONTROL LEVER |
62. | [2] | 015130-2090 | TAPER PIN |
73. | [1] | 153141-2400 | BLEEDER SCREW |
74. | [1] | 013020-6040 | UNION NUT M6P1H5 |
79. | [1] | 029010-6310 | BLEEDER SCREW |
80. | [1] | 029320-6010 | LOCKING WASHER |
81. | [2] | 029631-1030 | O-RING |
81. | [2] | 029631-1030 | O-RING |
82. | [2] | 029301-1080 | PLAIN WASHER D17&11.1T1 |
82. | [2] | 029301-1080 | PLAIN WASHER D17&11.1T1 |
83. | [1] | 025520-2010 | SPLIT PIN |
84. | [1] | 153145-0100 | FLAT-HEAD SCREW |
87. | [5] | 020106-2840 | BLEEDER SCREW |
88. | [1] | 025803-1310 | WOODRUFF KEY |
115. | [1] | 153200-4720 | FLYWEIGHT ASSEMBLY |
115/1. | [1] | 153200-7910 | FLYWEIGHT |
115/11/1. | [2] | 153229-3800 | SLOTTED WASHER T0.5 |
115/11/1. | [2] | 153229-3900 | SLOTTED WASHER T0.4 |
115/11/1. | [2] | 153229-4000 | SLOTTED WASHER T0.3 |
115/11/1. | [2] | 153229-4100 | SLOTTED WASHER T0.2 |
115/11/1. | [2] | 153229-4600 | SLOTTED WASHER |
115/11/1. | [2] | 153229-4700 | SLOTTED WASHER |
115/11/1. | [2] | 153229-4800 | SLOTTED WASHER |
115/12. | [2] | 153230-9000 | GOVERNOR SPRING |
115/13. | [2] | 153232-2500 | GOVERNOR SPRING |
115/14. | [2] | 153236-0200 | GOVERNOR SPRING |
115/15. | [2] | 153241-0400 | UNION NUT |
115/16. | [2] | 153242-0100 | HEXAGON NUT |
115/17. | [2] | 153243-0100 | SLOTTED WASHER |
115/18. | [2] | 153244-0100 | UNION NUT |
115/32. | [1] | 029321-2020 | LOCKING WASHER |
115/33. | [1] | 153255-0600 | HEXAGON NUT |
115/34. | [1] | 153256-0300 | BUSHING |
115/36. | [2] | 020006-1820 | BLEEDER SCREW |
115/37. | [2] | 153556-2700 | PLAIN WASHER |
115/42. | [1] | 153270-0100 | BLEEDER SCREW |
115/43. | [2] | 013020-6040 | UNION NUT M6P1H5 |
115/44. | [1] | 153271-0100 | TAB WASHER |
115/45. | [0] | 029312-5120 | SHIM D33&25T0.2 |
115/45. | [0] | 029312-6150 | SHIM D33&26T0.5 |
117. | [1] | 153300-0220 | TERMINAL STUD |
118. | [1] | 153316-0200 | CROSS-HEAD |
140. | [1] | 153400-0600 | SLOTTED WASHER |
141. | [1] | 153401-0600 | COILED SPRING |
146. | [1] | 153405-3920 | STRAP |
147. | [1] | 153406-0700 | BLEEDER SCREW |
149. | [1] | 013020-5240 | UNION NUT M5P0.8H4 |
151. | [1] | 025520-1210 | SPLIT PIN |
152. | [1] | 153410-0100 | VARIABLE-FULCRUM LEVER |
153. | [1] | 025060-1610 | BEARING PIN |
154. | [1] | 025515-1510 | SPLIT PIN |
165. | [1] | 153500-4420 | CONTROL LEVER |
167. | [2] | 020006-1640 | BLEEDER SCREW M6P1L16 4T |
179. | [1] | 154371-5600 | GASKET |
180. | [1] | 154390-1200 | GASKET |
191. | [0] | 029311-1070 | SHIM D16&11T0.5 |
191B. | [0] | 029311-1090 | SHIM D16&11T0.3 |
192. | [0] | 154206-0200 | PLAIN WASHER D19.5&11.2T1.0 |
195. | [1] | 154050-2720 | HEADLESS SCREW |
196. | [1] | 029201-2140 | UNION NUT |
197. | [2] | 026512-1540 | GASKET D15.4&12.2T1.50 |
198. | [1] | 154159-1200 | CAP NUT |
248. | [1] | 153551-9220 | PLATE |
900S. | [1] | 025803-1310 | WOODRUFF KEY |
901S. | [1] | 025803-1610 | WOODRUFF KEY |
Cross reference number
Zexel num
Bosch num
Firm num
Name
105306-0071
1910196502 NISSAN-DIESEL
GOVERNOR
K 14JA MECHANICAL GOVERNOR GOV RQ GOV
K 14JA MECHANICAL GOVERNOR GOV RQ GOV
Information:
To many, the diesel principle may not be new, however, the special features of Caterpillar Diesel Truck Engines require that the operator and the maintenance personnel become acquainted with the systems in order to give the engine the best possible care. Maximum engine life depends a great deal on a good maintenance schedule performed by reliable personnel with a basic understanding of the working principles and systems.Diesel Engine Principle
This diesel engine operates on the reciprocating piston 4-stroke cycle, compression ignition principle, and burns fuels commercially known as diesel fuels. The basic differences between the spark ignition engine and the diesel engine are; the method of introducing fuel into the system and the method by which the fuel is ignited.The engine always takes a full charge of air into a cylinder on each inlet stroke, compresses it in an extremely small space causing the air to reach temperatures over 1000°F (537°C.). Fuel is injected into the cylinder as the piston nears the top of the compression stroke, where it mixes with the compressed air, and immediately starts to burn. This is called self-ignition, or spontaneous ignition. The expansion of the burning gases forces the piston down on a power stroke. Four Stroke Cycle Principle
The four stroke cycle engine has separate strokes for each basic function. The four strokes and the order in which they occur are: Intake, compression, power and exhaust.It must be remembered that for the four stroke cycle to function the inlet valves, exhaust valves and fuel injection must be timed in proper sequence with the piston. This is accomplished by timing gears between the crankshaft, the valve train and injection pumps. Intake Stroke: As the piston moves down on the inlet stroke, the inlet valve is opened and exhaust valve is closed by the camshaft and rocker arm arrangement. Air is drawn in through the air cleaner and intake valve by the partial vacuum caused by the piston traveling downward. Compression Stroke: At the end of the intake stroke the inlet valve closes and the exhaust valve remains closed. As the piston moves up, the air is compressed into an extremely small space causing the air temperature to rise high enough to ignite fuel. As the piston reaches near the top of the stroke, a measured amount of fuel is injected into the cylinder where it mixes with the compressed air and ignition begins. The atomized and burning fuel then rushes throughout the cylinder above the piston for complete combustion. Power Stroke: The piston is forced down by the pressure of the expanding and burning gases in the cylinder above the piston. During this power stroke, the intake and exhaust valves are closed. Exhaust Stroke: When the piston reaches the bottom of the power stroke the cylinder is filled with burned gases which must be expelled. As the piston begins its upward travel on the exhaust stroke, the exhaust valve is opened by the exhaust lobe on the cam. As the piston moves up, it forces
This diesel engine operates on the reciprocating piston 4-stroke cycle, compression ignition principle, and burns fuels commercially known as diesel fuels. The basic differences between the spark ignition engine and the diesel engine are; the method of introducing fuel into the system and the method by which the fuel is ignited.The engine always takes a full charge of air into a cylinder on each inlet stroke, compresses it in an extremely small space causing the air to reach temperatures over 1000°F (537°C.). Fuel is injected into the cylinder as the piston nears the top of the compression stroke, where it mixes with the compressed air, and immediately starts to burn. This is called self-ignition, or spontaneous ignition. The expansion of the burning gases forces the piston down on a power stroke. Four Stroke Cycle Principle
The four stroke cycle engine has separate strokes for each basic function. The four strokes and the order in which they occur are: Intake, compression, power and exhaust.It must be remembered that for the four stroke cycle to function the inlet valves, exhaust valves and fuel injection must be timed in proper sequence with the piston. This is accomplished by timing gears between the crankshaft, the valve train and injection pumps. Intake Stroke: As the piston moves down on the inlet stroke, the inlet valve is opened and exhaust valve is closed by the camshaft and rocker arm arrangement. Air is drawn in through the air cleaner and intake valve by the partial vacuum caused by the piston traveling downward. Compression Stroke: At the end of the intake stroke the inlet valve closes and the exhaust valve remains closed. As the piston moves up, the air is compressed into an extremely small space causing the air temperature to rise high enough to ignite fuel. As the piston reaches near the top of the stroke, a measured amount of fuel is injected into the cylinder where it mixes with the compressed air and ignition begins. The atomized and burning fuel then rushes throughout the cylinder above the piston for complete combustion. Power Stroke: The piston is forced down by the pressure of the expanding and burning gases in the cylinder above the piston. During this power stroke, the intake and exhaust valves are closed. Exhaust Stroke: When the piston reaches the bottom of the power stroke the cylinder is filled with burned gases which must be expelled. As the piston begins its upward travel on the exhaust stroke, the exhaust valve is opened by the exhaust lobe on the cam. As the piston moves up, it forces