0432710 SWIVEL BRACKET JOHNSON
J100STLCEM, J100STLESB, J100WTLEDR, J100WTLEIB, J100WTLENE, J100WTLEOC, J100WTLERS, J100WTLESM, J100WTLETD, J100WTLEUA, J100WTLZ, J110MLCEM, J112TSLEDR, J112TSLEDR, J112TSLEOC, J112TSLEOC, J112TSLERS, J112TSLERS, J115MLESB, J115TSLEUA, J120TLAEM, J12
SWIVEL
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Compatible models:
J100STLCEM
J100STLESB
J100WTLEDR
J100WTLEIB
J100WTLENE
J100WTLEOC
J100WTLERS
J100WTLESM
J100WTLETD
J100WTLEUA
J100WTLZ
J110MLCEM
J112TSLEDR
J112TSLEOC
J112TSLERS
J115MLESB
J115TSLEUA
J120TLAEM
J120TLASB
J125ESXESS
J125ESXW
J140CXCEC
J140CXESR
J150CXCEM
J150CXESB
J155WTLEIB
J155WTLENE
J155WTLESM
J155WTLZ
J175STLCEB
J175STLESE
J88MSLCER
J88MSLESA
J88TSLEDR
J88TSLEOC
J88TSLERS
J90TSLEUA
JOHNSON
BRP JOHNSON entire parts catalog list:
- MIDSECTION » 0432710
J100WTLEDR, J100WTXEDR 1996
J100WTLEIB, J100WTXEIB 1991
J100WTLENE, J100WTXENE 1992
J100WTLEOC, J100WTXEOC 1995
J100WTLERS, J100WTXERS 1994
J100WTLESM, J100WTXESM 1990
J100WTLETD, J100WTXETD 1993
J100WTLEUA, J100WTXEUA 1997
J100WTLZ, J100WTXZ 1989
J110MLCEM, J110TLAEM, J110TLCEM, J110TXCEM, TJ110TLCEM, TJ110TXCEM 1989
J112TSLEDR, J112TSXEDR, XJ112TSLEDR, XJ112TSXEDR 1996
J112TSLEDR, J112TSXEDR, XJ112TSLEDR, XJ112TSXEDR 1996
J112TSLEOC, J112TSXEOC, XJ112TSLEOC, XJ112TSXEOC 1995
J112TSLEOC, J112TSXEOC, XJ112TSLEOC, XJ112TSXEOC 1995
J112TSLERS, J112TSXERS, XJ112TSLERS, XJ112TSXERS 1994
J112TSLERS, J112TSXERS, XJ112TSLERS, XJ112TSXERS 1994
J115MLESB, J115TLASB, J115TLESB, J115TXESB, TJ115TLESB, VJ115TLASB, VJ115TLESB, VJ115TXESB 1990
J115TSLEUA, J115TSXEUA, XJ115HLEUA, XJ115HXEUA 1997
J120TLAEM, J120TLCEM, J120TXCEM, TJ120TXCEM 1989
J120TLASB, J120TLESB, J120TXESB, VJ120TLASB, VJ120TLESB, VJ120TXESB 1990
J125ESXESS 1990
J125ESXW 1989
J140CXCEC, J140TLAEB, J140TLCEB, J140TXCEB 1989
J140CXESR, J140TLASE, J140TLESE, J140TXESE, VJ140TLASE, VJ140TLESE, VJ140TXESE 1990
J150CXCEM, J150TLAEM, J150TLCEM, J150TXCEM, TJ150TXCEM 1989
J150CXESB, J150TLASB, J150TLESB, J150TXESB, VJ150TLESB, VJ150TXESB 1990
J155WTLEIB, J155WTXEIB 1991
J155WTLENE, J155WTXENE 1992
J155WTLESM, J155WTXESM 1990
J155WTLZ, J155WTXZ 1989
J175STLCEB, J175TXCEB 1989
J175STLESE, J175TXESE, VJ175SLESE, VJ175TXESE 1990
J88MSLCER, J90TLAEM, J90TLCEM, TJ90TLCEM, VJ88MSLCER 1989
J88MSLCER, VJ88MSLCER 1989
J88MSLESA, VJ88MSLESA 1990
J88MSLESA, J90TLASB, J90TLESB, TJ90TLESB, VJ88MSLESA, VJ90MLESB, VJ90TLASB, VJ90TLESB 1990
J88TSLEDR, XJ88TSLEDR 1996
J88TSLEDR, XJ88TSLEDR 1996
J88TSLEOC, XJ88TSLEOC 1995
J88TSLEOC, XJ88TSLEOC 1995
J88TSLERS, XJ88TSLERS 1994
J88TSLERS, XJ88TSLERS 1994
J90TSLEUA, XJ90TSLEUA 1997
Information:
Illustration 1 g06104372
(1) Active vents
(2) Water-cooled turbos
(3) Turbo water supply line
(5) Radiator or heat exchanger
(6) Electronic Thermostat (ESTAT) for the jacket water cooling system or Water temperature regulator housing
(7) Temperature Control Module (TCM) (If equipped)
(8) Jacket Water Aftercooler (JWAC) (front aftercooler core)
(9) Engine block
(10) Jacket water pump
(11) Engine oil cooler
Illustration 2 g06104429
(12) Three-way valve
(13) Electronic Fluid Temperature Control (EFTC)
(14) Stepper motor
Illustration 3 g06550165
(16) Water temperature regulator housingCoolant is pulled from radiator or heat exchanger (5) to water pump (10). From the water pump, coolant is sent through engine oil cooler (11). From the engine oil cooler, the coolant is sent to engine block (9). From the engine block, coolant is sent to E-stat (6) or water temperature regulator housing (16) and to the jacket water passage of the aftercooler (8). From the JWAC the coolant is sent to turbo water supply line (3) and to the water-cooled turbos (2). The coolant from the turbos is sent to the radiator through an active vent line (1). The ESTAT regulates the amount of coolant that flows through the radiator or heat exchanger to control engine temperature. The engine coolant that does not flow through the radiator is bypassed directly to the inlet of the jacket water pump.Coolant flows from the engine oil cooler into the water jacket at the front of the engine block. The coolant is directed toward the rear of the block through distribution manifolds. The distribution manifolds distribute the coolant to the water jacket for each cylinder. The coolant flows upward through the water jackets and around the cylinder liners. This area has the highest temperatures. As the coolant flows to the top of the cylinder liners, the coolant encounters a restriction due to smaller passages. The restriction causes the coolant flow to increase for improved cylinder liner cooling. Coolant flows from the top of the liners into passages that are cast into each of the cylinder heads. The coolant flows from the cylinder head back into the block and is returned to the front of the engine. As the coolant exits the front of the engine block, the coolant is directed through piping to the ESTAT and the after cooler core. Then the coolant is directed to the water-cooled turbocharger (if equipped) through the turbocharger water supply lines. The lines remove the heat from the turbochargers, from which it is routed to the radiator through the active vent lines. Due to the restriction of the piping and after cooler core, a larger portion of the coolant flows to the ESTAT. The return coolant from the core is piped into a tee at the ESTAT.The ESTAT (if equipped) utilizes a 3-way valve (12) that is electronically controlled by EFTC (13) to distribute the flow of the engine coolant. Engine temperate is inlet sensed by the engine jacket water pump outlet temperature sensor and outlet regulated by the EFTC to the radiator / heat exchanger. The outlet flow of coolant is directed by a piston that rides on a lead screw, which is driven by a stepper motor (14). For a cold engine, the EFTC bypasses the radiator/heat exchanger by sending the coolant directly back to the inlet of the water pump. As the engine warms, the EFTC controls the three-way valve to direct the correct amount of engine coolant through the radiator for coolingThe engine Electronic Control Module (ECM) transmits a temperature set point for the engine to the EFTC over the J1939 data link. The Engine Coolant Pump Outlet Temperature Sensor is used by the EFTC to detect the engine coolant temperature. The EFTC and three-way valve provides for complete control of coolant flow for accurate engine temperature.Water temperature regulator housing (16) has an upper flow section and a lower flow section. The regulator housing uses 8 water temperature regulators. The sensing bulbs for the regulators are in the coolant in the lower section of the housing. Before the regulators open, cold coolant is sent through the bypass line back to the inlet of the water pump. The coolant flow in the bypass line is restricted when the temperature of the coolant increases enough to open the regulators. When the regulator opens coolant is circulated through the outlets back to the radiator or to heat exchanger (9).
Illustration 4 g06104443
(15) Engine Coolant Pump Outlet Temperature SensorJW Pump Outlet Temperature sensor connects to the EFTC and is powered by 3 VDC.
Table 1
Valve Position Water Flow
0% Position Block Outlet to JW Pump Inlet
100% Position Block Outlet to Radiator Top Tank/Expansion Tank The ESTAT provides self-diagnostic functions and increased service reliability. These features can help to reduce the repair times and warranty claims that are associated with the cooling system.Modes of Operation
There are two modes of operation and several states of operation for the EFTC.
Table 2
Mode State Controlling ECM
Position Control Active Engine ECM
Temperature Control Active EFTC
Temperature Control Ambient EFTC
Temperature Control Warmup EFTC
Temperature Control Regulating EFTC
Temperature Control Cool down EFTC The two modes of operation are the Position Control Mode and the Temperature Control Mode.In the Position Control Mode the engine ECM overrides the EFTC via the Local CAN bus and commands the EFTC to drive the piston to a specific position. When in this mode, ET will report the Engine Coolant Thermostat Mode as "Position Control Mode" and the Engine Coolant Temperature Control State as "Active".An example of Position Control Mode is the purge cycle. The purge cycle is used to pass any air trapped in the cooling system to the radiator top tank/expansion tank to prevent cavitation of the JW pump. For generator set engines, the purge cycle will only occur at the first engine start following a 24 VDC power cycle to the engine ECM. While this cycle is being performed, ET will report the Control Mode as "Position Control Mode" and the Control State as "Active". During the purge cycle the EFTC will position the piston at 20% for the first 100 seconds and then move the piston to 0% during the Purge Cycle. The Purge Cycle will terminate after 130
Parts swivel JOHNSON:
0432708
0432708 SWIVEL BRACKET
BJ115TLEDA, HJ88MSLEDC, HJ88MSLEDC, J100STLCEM, J100STLEIE, J100STLEND, J100STLERC, J100STLESB, J100STLETS, J100WTLEDR, J100WTLEIB, J100WTLENE, J100WTLEOC, J100WTLERS, J100WTLESM, J100WTLETD, J100WTLEUA, J100WTLZ, J110MLCEM, J112TSLEDR, J112TSLEDR, J