transmission CHRYSLER VOYAGER 2005 Service Manual

INSTALLATION - 3.3/3.8L
(1) Ensure injector holes are clean. Replace
O-rings if damaged.
(2) Lubricate injector O-rings with a drop of clean
engine oil to ease installation.
(3) Put the tip of each injector into their ports.
Push the assembly into place until the injectors are
seated in the ports.
(4) Install the fuel rail mounting bolts. Tighten
bolts to 22 N´m (200 in. lbs.) torque.
(5) Remove covering on lower intake manifold and
clean surface.
(6) Install the Upper Intake Manifold, refer to
Engine/Manifolds/Upper Intake for more information.
(7) Install fuel hose quick connector fitting to chas-
sis tubes.Refer to Fuel Hoses, Clamps and
Quick Connect Fittings in this Section.Push the
fitting onto the chassis tube until it clicks into place.
Pull on the fitting to ensure complete insertion.
(8) Connect negative cable to battery.
(9) Use the DRBIIItscan tool to pressurize the
fuel system. Check for leaks.
FUEL TANK
DESCRIPTION
The fuel tank is constructed of a plastic material.
Its main functions are for fuel storage and for place-
ment of the fuel pump module. The tank is made
from High density Polyethylene (HDPE) material.If
equipped with ORVR (Onboard Refueling Vapor
Recovery) it has been added to the fuel tank to con-
trol refueling vapor emissions.
OPERATION
All models pass a full 360 degree rollover test
without fuel leakage. To accomplish this, fuel and
vapor flow controls are required for all fuel tank con-
nections.
All models are equipped with either one or two
check valves mounted into the top of the fuel tank (or
pump module).
An evaporation control system is connected to the
check valve(s)/control valve(Refer to 25 - EMIS-
SIONS CONTROL/EVAPORATIVE EMISSIONS/
ORVR - OPERATION) to reduce emissions of fuel
vapors into the atmosphere, when the tank is vented
due to vapor expansion in the tank. When fuel evap-
orates from the fuel tank, vapors pass through vent
hoses or tubes to a charcoal canister where they are
temporarily held. When the engine is running, the
vapors are drawn into the intake manifold. In addi-
tion, fuel vapors produced during vehicle refueling
are allowed to pass through the vent hoses/tubes to
the charcoal canister(s) for temporary storage (priorto being drawn into the intake manifold). All models
are equipped with a self-diagnosing system using a
Leak Detection Pump (LDP) or Natural Vacuum
Leak Detection (NVLD). Refer to the Emission Con-
trol System for additional information.
INLET CHECK VALVE
All vehicles have an inlet check valve on the inside
of the fuel tank at the filler inlet
The valve prevents fuel from splashing back on
customer during vehicle refueling. The valve is a
non-serviceable item.
REMOVAL
REMOVAL
(1) Remove fuel filler cap and perform Fuel Sys-
tem Pressure Release procedure (Fig. 18).
(2) Disconnect negative cable from battery.
(3) Insert fuel siphon hose into fuel filler neck and
push it into the tank.
(4) Drain fuel tank dry into holding tank or a
properly labeledGASOLINEsafety container.
(5) Raise vehicle on hoist and support.
(6) Use a transmission jack to support fuel tank.
Remove bolts from fuel tank straps.
(7) Lower tank slightly.
(8) Disconnect the fuel filler vent tube. Squeeze
tabs and pull apart (Fig. 19).
Fig. 18 Fuel Tank
1 - ROLLOVER VALVE
2 - FUEL FILLER INLET
3 - ROLLOVER VALVE
4 - FUEL PUMP MODULE
14 - 12 FUEL DELIVERYRS
FUEL RAIL (Continued)

(5) Use a transmission jack to support fuel tank.
Remove bolts from fuel tank straps (Fig. 23).
(6) Disconnect the fuel filler vent tube. Squeeze
tabs and pull apart (Fig. 24).(7) Disconnect the fuel fill hose at the fuel tank
filler metal tubeNOT AT THE FUEL TANK.
(8) Disconnect fuel line and vapor line at the front
of the fuel tank (Fig. 25), (Fig. 26).
Fig. 23 TRANS JACK
Fig. 24 FILLER TUBE LINE DISCONNECTED
Fig. 25 FUEL SUPPLY LINE & EVAP LINE
Fig. 26 FUEL SUPPLY & EVAP LINE
DISCONNECTED
14 - 14 FUEL DELIVERYRS
FUEL TANK (Continued)

(9)The fuel pump module electrical connec-
tor has a retainer that locks it in place..Slide
fuel pump module electrical connector lock to unlock
(Fig. 27), (Fig. 28).
(10) Push down on connector retainer disconnect
the electrical connector.
(11) Lower tank slightly.
(12) Remove fuel filler vent tube from frame (Fig.
29).
(13) Lower tank from vehicle.
INSTALLATION
INSTALLATION
(1) Position fuel tank on transmission jack. Con-
nect check valve hose. Connect fuel filler tube vent
hose to fuel filler tube.
(2) Feed filler vent line thru frame rail.
(3) Raise tank into position and carefully work fuel
filler metal tube into the rubber hose on fuel tank. A
light coating of clean engine oil on the tube end may
be used to aid assembly.
(4) Tighten strap bolts to 54 N´m (40 ft. lbs.)
torque. Tighten T strap bolt to 28.2 N´m (250 in.
lbs.). Remove transmission jack.
(5) Tighten filler hose clamp to 3.3 N´m (30 in.
lbs.).
CAUTION: Ensure straps are not twisted or bent
before or after tightening strap screws.
(6) Connect fuel pump/module electrical connector.
Place retainer in locked position.
(7) Lubricate the fuel supply line with clean 30
weight engine oil, install the quick connect fuel fit-
ting. Refer to Tube/Fitting Assembly in the Fuel
Delivery section of this section.
(8) Connect the control vapor lines at front of
tank.
(9) Pull-pull-push on all connections to make sure
of connection.
(10) Fill fuel tank, replace cap, and connect bat-
tery negative cable.
(11) Use the DRBIIItscan tool to pressurize the
fuel system. Check for leaks.Fig. 27 ELECTRICAL CONNECTION
Fig. 28 ELECTRICAL CONNECTION REMOVED
Fig. 29 FILLER TUBE VENT LINE THRU RAIL
RSFUEL DELIVERY14-15
FUEL TANK (Continued)

INSTALLATION - FOLD-IN-FLOOR
(1) Use a transmission jack to support fuel tank.
(2) Raise tank and install fuel filler vent tube thru
frame (Fig. 29).
(3) Raise tank.
(4) Connect the fuel fill hose at the fuel tank filler
metal tube and tighten clamp.
CAUTION: Ensure straps are not twisted or bent
before or after tightening strap bolts.
(5) Install bolts for fuel tank straps (Fig. 23).
(6) Tighten strap bolts to 54 N´m (40 ft. lbs.)
torque. Remove transmission jack.
(7) Connect the fuel filler vent tube.
(8) Connect fuel line and vapor line at the front of
the fuel tank (Fig. 25), (Fig. 26).
(9) Connect the electrical connector.
(10) Slide fuel pump module electrical connector
lock to lock (Fig. 27), (Fig. 28).
(11) Lower vehicle.
(12) Fill fuel tank, replace cap, and connect bat-
tery negative cable.
(13) Use the DRBIIItscan tool to pressurize the
fuel system. Check for leaks.
FUEL TANK FILLER TUBE
REMOVAL
(1) Disconnect the negative battery cable.
(2) Remove the 3 screws at the filler door.
(3) Raise and support vehicle
(4) Remove the left rear tire.
(5) Remove the splash shield (Fig. 32) or (Fig. 31).
(6) Remove the metal shield (Fig. 30).(7)For RGRemove the canister from filler tube
(Fig. 33).
Fig. 30 FILLER TUBE SHIELD
Fig. 31 FUEL FILLER TUBE (RS)
Fig. 32 FUEL FILLER TUBE AND VENT TUBE (RG)
14 - 16 FUEL DELIVERYRS
FUEL TANK (Continued)

The following components access or send informa-
tion on the PCI Bus.
²Instrument Panel
²Body Control Module
²Air Bag System Diagnostic Module
²Full ATC Display Head (if equipped)
²ABS Module
²Transmission Control Module
²Powertrain Control Module
²Travel Module
²SKIMSYSTEM DIAGNOSIS
OPERATION
The PCM can test many of its own input and out-
put circuits. If the PCM senses a fault in a major
system, the PCM stores a Diagnostic Trouble Code
(DTC) in memory.
For DTC information see On-Board Diagnostics
(Refer to 8 - ELECTRICAL/ELECTRONIC CON-
TROL MODULES/POWERTRAIN CONTROL MOD-
ULE - DESCRIPTION) .
SPECIFICATIONS
TORQUE
DESCRIPTION N´m Ft. Lbs. In. Lbs.
MAP SENSOR PLASTIC
MANIFOLD1.7 15
MAP SENSOR
ALUMINUM MANIFOLD3.3 30
POWER STEERING
RESERVOIR PLASTIC
MANIFOLD5.7 50
POWER STEERING
RESERVOIR ALUMINUM
MANIFOLD11.9 105
THROTTLE CABLE
BRACKET PLASTIC
MANIFOLD5.7 50
THROTTLE CABLE
BRACKET ALUMINUM
MANIFOLD11.9 105
EGR TUBE PLASTIC
MANIFOLD5.7 50
EGR TUBE ALUMINUM
MANIFOLD11.9 105
THROTTLE BODY BOLTS
2.4L28 20.65 250  50
THROTTLE BODY BOLTS
3.3/3.8L11.8 8.7 105  20
O2 Sensors 27 20
The composite manifolds uses special Plastic screws. The factory installed Plastic screws can be removed and
installed up to 5 times. Do not exceed the specified torque. These screws must be installed slowly (less than 600
rpms) to avoid melting the parent material. There are service repair screws avialable for repair. They require a
higher torque than the original screws..
14 - 26 FUEL INJECTIONRS
FUEL INJECTION (Continued)

CRANKSHAFT POSITION
SENSOR
DESCRIPTION
The 2.4L crankshaft sensor is located on the rear
of the engine near the accessory drive belt (Fig. 4).
The 3.3/3.8L crankshaft sensor is located on the rear
of the transmission housing, above the differential
housing (Fig. 5). The bottom of the sensor is posi-
tioned next to the drive plate.
OPERATION
The crankshaft position sensor detects slots cut
into the transmission driveplate extension (Fig. 6).
There are 3 sets of slots. Each set contains 4 slots,
for a total of 12 slots (Fig. 7). Basic timing is set by
the position of the last slot in each group. Once the
Powertrain Control Module (PCM) senses the last
slot, it determines crankshaft position (which piston
will next be at TDC) from the camshaft position sen-
sor input. The 4 pulses generated by the crankshaft
position sensor represent the 69É, 49É, 29É, and 9É
BTDC marks. It may take the PCM one engine rev-
olution to determine crankshaft position.
Fig. 4 CRANKSHAFT SENSOR 2.4L
Fig. 5 CRANKSHAFT SENSOR 3.3/3.8L
Fig. 6 Crankshaft Position Sensor
1 - CRANKSHAFT POSITION SENSOR
Fig. 7 Timing Slots
1 - TORQUE CONVERTER DRIVE PLATE
2 - SLOTS
RSFUEL INJECTION14-29

The PCM uses crankshaft position reference to
determine injector sequence, ignition timing and the
presence of misfire. Once the PCM determines crank-
shaft position, it begins energizing the injectors in
sequence.
REMOVAL
(1) Disconnect the negative battery cable.
(2) Raise vehicle and support.
(3) Disconnect the electrical connector (Fig. 8).
(4) Remove crankshaft sensor bolt (Fig. 9).
(5) Remove the crankshaft sensor.
INSTALLATION - 2.4L
(1) Install the crankshaft sensor.
(2) Install crankshaft sensor bolt and tighten.
(3) Connect the electrical connector (Fig. 8).
(4) Lower vehicle.
(5) Connect the negative battery cable.
ENGINE SPEED SENSOR
DESCRIPTION
The PCM receives a signal from the TCM to indi-
cate vehicle speed on automatic transmission cars.
On 4 cylinder Manual transmission cars (if equipped)
vehicle, a dedicated vehicle speed sensor is connected
to the PCM.On V-6 Manual transmission cars (if
equipped) vehicle, the ABS module provides the sig-
nal to the PCM for vehicle speed.
OPERATION
The Transmission Control Module (TCM) supplies
the road speed and distance traveled inputs to the
PCM. From these inputs and the throttle position
sensor input, the PCM determines when a decelera-
tion condition occurs.
FUEL INJECTOR
DESCRIPTION
The injectors are positioned in the intake manifold
or cylinder head with the nozzle ends directly above
the intake valve port (Fig. 10).Fig. 8 CRANKSHAFT SENSOR 2.4L
Fig. 9 CRANKSHAFT POSITION SENSOR LOCATION
2.4L
Fig. 10 Fuel Injector Location - Typical
1 - FUEL RAIL
2 - INTAKE MANIFOLD
3 - FUEL INJECTORS
14 - 30 FUEL INJECTIONRS
CRANKSHAFT POSITION SENSOR (Continued)

Also like the cam and crank sensors, a 5 volt ref-
erence is supplied from the PCM and returns a volt-
age signal to the PCM that reflects manifold
pressure. The zero pressure reading is 0.5V and full
scale is 4.5V. For a pressure swing of0Ð15psithe
voltage changes 4.0V. The sensor is supplied a regu-
lated 4.8 to 5.1 volts to operate the sensor. Like the
cam and crank sensors ground is provided through
the sensor return circuit.
The MAP sensor input is the number one contrib-
utor to pulse width. The most important function of
the MAP sensor is to determine barometric pressure.
The PCM needs to know if the vehicle is at sea level
or is it in Denver at 5000 feet above sea level,
because the air density changes with altitude. It will
also help to correct for varying weather conditions. If
a hurricane was coming through the pressure would
be very, very low or there could be a real fair
weather, high pressure area. This is important
because as air pressure changes the barometric pres-
sure changes. Barometric pressure and altitude have
a direct inverse correlation, as altitude goes up baro-
metric goes down. The first thing that happens as
the key is rolled on, before reaching the crank posi-
tion, the PCM powers up, comes around and looks at
the MAP voltage, and based upon the voltage it sees,
it knows the current barometric pressure relative to
altitude. Once the engine starts, the PCM looks at
the voltage again, continuously every 12 milliseconds,
and compares the current voltage to what it was at
key on. The difference between current and what it
was at key on is manifold vacuum.
During key On (engine not running) the sensor
reads (updates) barometric pressure. A normal range
can be obtained by monitoring known good sensor in
you work area.As the altitude increases the air becomes thinner
(less oxygen). If a vehicle is started and driven to a
very different altitude than where it was at key On
the barometric pressure needs to be updated. Any
time the PCM sees Wide Open throttle, based upon
TPS angle and RPM it will update barometric pres-
sure in the MAP memory cell. With periodic updates,
the PCM can make its calculations more effectively.
The PCM uses the MAP sensor to aid in calculat-
ing the following:
²Barometric pressure
²Engine load
²Manifold pressure
²Injector pulse-width
²Spark-advance programs
²Shift-point strategies (F4AC1 transmissions
only, via the PCI bus)
²Idle speed
²Decel fuel shutoff
The PCM recognizes a decrease in manifold pres-
sure by monitoring a decrease in voltage from the
reading stored in the barometric pressure memory
cell. The MAP sensor is a linear sensor; as pressure
changes, voltage changes proportionately. The range
of voltage output from the sensor is usually between
4.6 volts at sea level to as low as 0.3 volts at 26 in. of
Hg. Barometric pressure is the pressure exerted by
the atmosphere upon an object. At sea level on a
standard day, no storm, barometric pressure is 29.92
in Hg. For every 100 feet of altitude barometric pres-
sure drops .10 in. Hg. If a storm goes through it can
either add, high pressure, or decrease, low pressure,
from what should be present for that altitude. You
should make a habit of knowing what the average
pressure and corresponding barometric pressure is
for your area.
REMOVAL
REMOVAL - 2.4L
(1) Disconnect the negative battery cable.
(2) Disconnect electrical connector and vacuum
hose from MAP sensor (Fig. 20).
(3) Remove two screws holding sensor to the
intake manifold.
REMOVAL - 3.3/3.8L
(1) Disconnect the negative battery cable.
(2) Remove vacuum hose and mounting screws
from manifold absolute pressure (MAP) sensor (Fig.
21).
(3) Disconnect electrical connector from sensor.
Remove sensor.
Fig. 21 MAP SENSOR - 3.3/3.8L
RSFUEL INJECTION14-35
MAP SENSOR (Continued)

(19) Disconnect the column harness wiring connec-
tors from the Brake Transmission Shift Interlock
(BTSI) and ignition switch (Fig. 11).
(20) Disconnect the column harness wiring connec-
tor for the multi-function switch (Fig. 12).(21) Disconnect the column harness wiring connec-
tors for the clockspring and SQUIB (Fig. 12).
(22) If equipped with Sentry Key Immobilizer, dis-
connect the wiring connector from the SKIM (Fig.
13).
(23) Remove screw fastening horn ground wire to
column (Fig. 14).
Fig. 11 Ignition Switch And BTSI Wiring
Connections
1 - WIRING CONNECTOR
2 - IGNITION SWITCH
3 - BTSI
4 - WIRING CONNECTOR
Fig. 12 Multi-function And Clockspring Wiring
Connections
1 - MULTI-FUNCTION SWITCH MOUNTING HOUSING
2 - MULTI-FUNCTION WIRING CONNECTOR
3 - CLOCKSPRING WIRING CONNECTOR
4 - CLOCKSPRING SQUIB WIRING CONNECTOR
Fig. 13 Sentry Key Immobilizer Module
1 - WIRING CONNECTOR
2 - IGNITION KEY CYLINDER HALO
3 - SKIM
4 - MOUNTING SCREW
Fig. 14 Horn Ground At Column
1 - STEERING COLUMN
2 - HORN GROUND WIRE
3 - SCREW
19 - 14 COLUMNRS
COLUMN (Continued)

(31) If the steering column is being replaced, slide
the multi-function switch mounting housing off the
column (Fig. 19).
(32) If the steering column is being replaced,
remove the mounting screw fastening the SKIM to
the ignition key cylinder housing (Fig. 13). Remove
the SKIM.
(33) If the steering column is being replaced,
remove the halo from the ignition key cylinder hous-
ing (Fig. 13).
(34) If the steering column is being replaced,
remove the ignition key lock cylinder (Refer to 19 -
STEERING/COLUMN/KEY/LOCK CYLINDER -
REMOVAL).
INSTALLATION
NOTE: Before proceeding, (Refer to 19 - STEERING/
COLUMN - WARNING)(Refer to 8 - ELECTRICAL/RE-
STRAINTS/DRIVER AIRBAG - REMOVAL).
NOTE: Make sure the front wheels of the vehicle are
still in the STRAIGHT AHEAD position before begin-
ning the column installation procedure.
(1) If removed, install the ignition key lock cylin-
der (Refer to 19 - STEERING/COLUMN/KEY/LOCK
CYLINDER - INSTALLATION).
(2) If removed, install the halo on the ignition key
cylinder housing (Fig. 13).(3) If removed, install SKIM (Fig. 13). Install the
mounting screw fastening the SKIM to the ignition
key cylinder housing. Tighten the screw to 4 N´m (30
in. lbs.) torque.
(4) If removed, slide the multi-function switch
mounting housing onto the column (Fig. 19).
(5) If multi-function switch mounting housing is
being installed, install the set-screw fastening the
housing to the column (Fig. 18). Tighten the set-
screw to 14 N´m (124 in. lbs.) torque.
(6) Install the steering column (Fig. 17). Slide the
column lower mounting slots over the lower mount-
ing studs (with nuts started) first, then lift column
into place over the upper mounting studs.
(7) Install the two upper mounting nuts (Fig. 17).
Tighten the two upper mounting nuts, then the two
lower mounting nuts to 12 N´m (105 in. lbs.) torque.
(8) Match the column shaft coupling to the inter-
mediate shaft and install the pinch bolt (Fig. 16).
Tighten the pinch bolt nut to 28 N´m (250 in. lbs.)
torque. Install the hair pin in the end of the pinch
bolt.
(9) Feed the shift cable through the bracket on the
column (Fig. 15), then install the clip fastening the
cable housing to the bracket.
(10) Connect the shift cable to the lever pin (Fig.
15).
(11) Install the screw fastening the horn ground
wire to the column (Fig. 14). Tighten the screw to 7
N´m (60 in. lbs.) torque.
(12) If equipped with Sentry Key Immobilizer, con-
nect the wiring connector to the SKIM (Fig. 13).
(13) Connect the column harness wiring connectors
for the clockspring and SQUIB (Fig. 12).
(14) Connect the column harness wiring connector
for the multi-function switch (Fig. 12).
(15) Connect the column harness wiring connectors
for the Brake Transmission Shift Interlock (BTSI)
and ignition switch (Fig. 11).
(16) Install the fixed shroud (Fig. 10). Install the
screws fastening the fixed shroud in place and
tighten the screws to 3 N´m (23 in. lbs.) torque.
(17) If equipped with Autostick, connect the wiring
connector (Fig. 9).
(18) If equipped with traction control, position the
upper shroud above the column and route the switch
wiring down around the column. Connect the wiring
connector from the column wiring harness to the
traction control switch wiring (attached to upper
shroud) (Fig. 9).
Fig. 19 Multi-Function Switch Mounting Housing
1 - MULTI-FUNCTION SWITCH MOUNTING HOUSING
2 - STEERING COLUMN
19 - 16 COLUMNRS
COLUMN (Continued)