2002 JEEP LIBERTY Engine number

REMOVAL
Fuel Tank Draining
WARNING: THE FUEL SYSTEM MAY BE UNDER
CONSTANT FUEL PRESSURE EVEN WITH THE
ENGINE OFF. THIS PRESSURE MUST BE
RELEASED BEFORE SERVICING FUEL TANK.
Two different procedures may be used to drain fuel
tank: removing fuel pump module access plate, or
using DRBtscan tool. Due to a one-way check valve
installed into the fuel fill opening fitting at the tank
(Fig. 38), the tank cannot be drained conventionally
at the fill cap.
The quickest draining procedure involves removing
fuel pump module access plate.
As an alternative procedure, the electric fuel pump
may be activated allowing tank to be drained at fuel
rail connection. Refer to DRB scan tool for fuel pump
activation procedures. Before disconnecting fuel line
at fuel rail, release fuel pressure. Refer to the Fuel
System Pressure Release Procedure for procedures.
Attach end of special test hose tool number 6541,
6539, 6631 or 6923 at fuel rail disconnection (tool
number will depend on model and/or engine applica-
tion). Position opposite end of this hose tool to an
approved gasoline draining station. Activate fuel
pump and drain tank until empty.
If electric fuel pump is not operating, fuel pump
module access plate must be removed for fuel drain-
ing. Refer to following procedures.Fuel tank removal will not be necessary for
fuel tank draining. Access for draining is from
rear cargo area.
(1) Open all windows in vehicle to allow for air
ventilation.
(2) Four cargo holdown clamps are located inside
the vehicle on the floor of the rear cargo area.
Remove the 2 rearward mounted clamps by drilling
out the clamp rivets.
(3) Fold carpeting forward to gain access to fuel
pump module access plate (Fig. 39).
(4) Remove 4 fuel pump module access plate nuts
(Fig. 39).
(5) While applying heat from a heat gun, carefully
pry up fuel pump module access plate. Take care not
to bend plate.
(6) Thoroughly clean area around top of pump
module to prevent contaminants from entering fuel
tank or fuel lines.
(7) Release fuel system pressure.
(8) Disconnect 2 fuel lines (Fig. 40) at fuel pump
module by pressing on tabs at side of fitting.
(9) Disconnect electrical connector (Fig. 40). Slide
red tab first to unlock, and push grey tab down for
removal.
(10) Disconnect ORVR hose (Fig. 40) at pump mod-
ule fitting.
Fig. 38 FUEL FILL CHECK VALVE
1 - ONE-WAY CHECK VALVE
2 - FUEL FILL FITTING
3 - SIDE OF FUEL TANK
Fig. 39 ACCESS PLATE
1 - FLOORPAN AT REAR
2 - FUEL PUMP MODULE ACCESS PLATE
3 - NUTS (4)
4 - OPENING TO PUMP MODULE
KJFUEL DELIVERY 14 - 25
FUEL TANK (Continued)

FUEL INJECTOR
DESCRIPTION
An individual fuel injector (Fig. 9) is used for each
individual cylinder.
OPERATION
OPERATION - FUEL INJECTOR
The top (fuel entry) end of the injector (Fig. 9) is
attached into an opening on the fuel rail.
The fuel injectors are electrical solenoids. The
injector contains a pintle that closes off an orifice at
the nozzle end. When electric current is supplied to
the injector, the armature and needle move a short
distance against a spring, allowing fuel to flow out
the orifice. Because the fuel is under high pressure, a
fine spray is developed in the shape of a pencil
stream. The spraying action atomizes the fuel, add-
ing it to the air entering the combustion chamber.
The nozzle (outlet) ends of the injectors are posi-
tioned into openings in the intake manifold just
above the intake valve ports of the cylinder head.
The engine wiring harness connector for each fuel
injector is equipped with an attached numerical tag
(INJ 1, INJ 2 etc.). This is used to identify each fuel
injector.
The injectors are energized individually in a
sequential order by the Powertrain Control Module(PCM). The PCM will adjust injector pulse width by
switching the ground path to each individual injector
on and off. Injector pulse width is the period of time
that the injector is energized. The PCM will adjust
injector pulse width based on various inputs it
receives.
Battery voltage is supplied to the injectors through
the ASD relay.
The PCM determines injector pulse width based on
various inputs.
OPERATION - PCM OUTPUT
The nozzle ends of the injectors are positioned into
openings in the intake manifold just above the intake
valve ports of the cylinder head. The engine wiring
harness connector for each fuel injector is equipped
with an attached numerical tag (INJ 1, INJ 2 etc.).
This is used to identify each fuel injector with its
respective cylinder number.
The injectors are energized individually in a
sequential order by the Powertrain Control Module
(PCM). The PCM will adjust injector pulse width by
switching the ground path to each individual injector
on and off. Injector pulse width is the period of time
that the injector is energized. The PCM will adjust
injector pulse width based on various inputs it
receives.
Battery voltage (12 volts +) is supplied to the injec-
tors through the ASD relay. The ASD relay will shut-
down the 12 volt power source to the fuel injectors if
the PCM senses the ignition is on, but the engine is
not running. This occurs after the engine has not
been running for approximately 1.8 seconds.
The PCM determines injector on-time (pulse width)
based on various inputs.
DIAGNOSIS AND TESTING - FUEL INJECTOR
To perform a complete test of the fuel injectors and
their circuitry, use the DRB scan tool and refer to the
appropriate Powertrain Diagnostics Procedures man-
ual. To test the injector only, refer to the following:
Disconnect the fuel injector wire harness connector
from the injector. The injector is equipped with 2
electrical terminals (pins). Place an ohmmeter across
the terminals. Resistance reading should be approxi-
mately 12 ohms  1.2 ohms at 20ÉC (68ÉF).
Fig. 9 FUEL INJECTOR Ð TYPICAL
KJFUEL INJECTION 14 - 33

IDLE AIR CONTROL MOTOR
DESCRIPTION
The IAC stepper motor is mounted to the throttle
body, and regulates the amount of air bypassing the
control of the throttle plate. As engine loads and
ambient temperatures change, engine rpm changes.
A pintle on the IAC stepper motor protrudes into a
passage in the throttle body, controlling air flow
through the passage. The IAC is controlled by the
Powertrain Control Module (PCM) to maintain the
target engine idle speed.
OPERATION
At idle, engine speed can be increased by retract-
ing the IAC motor pintle and allowing more air to
pass through the port, or it can be decreased by
restricting the passage with the pintle and diminish-
ing the amount of air bypassing the throttle plate.
The IAC is called a stepper motor because it is
moved (rotated) in steps, or increments. Opening the
IAC opens an air passage around the throttle blade
which increases RPM.
The PCM uses the IAC motor to control idle speed
(along with timing) and to reach a desired MAP dur-
ing decel (keep engine from stalling).
The IAC motor has 4 wires with 4 circuits. Two of
the wires are for 12 volts and ground to supply elec-
trical current to the motor windings to operate the
stepper motor in one direction. The other 2 wires are
also for 12 volts and ground to supply electrical cur-
rent to operate the stepper motor in the opposite
direction.
To make the IAC go in the opposite direction, the
PCM just reverses polarity on both windings. If only
1 wire is open, the IAC can only be moved 1 step
(increment) in either direction. To keep the IAC
motor in position when no movement is needed, the
PCM will energize both windings at the same time.
This locks the IAC motor in place.
In the IAC motor system, the PCM will count
every step that the motor is moved. This allows the
PCM to determine the motor pintle position. If the
memory is cleared, the PCM no longer knows the
position of the pintle. So at the first key ON, the
PCM drives the IAC motor closed, regardless of
where it was before. This zeros the counter. Fromthis point the PCM will back out the IAC motor and
keep track of its position again.
When engine rpm is above idle speed, the IAC is
used for the following:
²Off-idle dashpot (throttle blade will close quickly
but idle speed will not stop quickly)
²Deceleration air flow control
²A/C compressor load control (also opens the pas-
sage slightly before the compressor is engaged so
that the engine rpm does not dip down when the
compressor engages)
²Power steering load control
The PCM can control polarity of the circuit to con-
trol direction of the stepper motor.
IAC Stepper Motor Program:The PCM is also
equipped with a memory program that records the
number of steps the IAC stepper motor most recently
advanced to during a certain set of parameters. For
example: The PCM was attempting to maintain a
1000 rpm target during a cold start-up cycle. The last
recorded number of steps for that may have been
125. That value would be recorded in the memory
cell so that the next time the PCM recognizes the
identical conditions, the PCM recalls that 125 steps
were required to maintain the target. This program
allows for greater customer satisfaction due to
greater control of engine idle.
Another function of the memory program, which
occurs when the power steering switch (if equipped),
or the A/C request circuit, requires that the IAC step-
per motor control engine rpm, is the recording of the
last targeted steps into the memory cell. The PCM
can anticipate A/C compressor loads. This is accom-
plished by delaying compressor operation for approx-
imately 0.5 seconds until the PCM moves the IAC
stepper motor to the recorded steps that were loaded
into the memory cell. Using this program helps elim-
inate idle-quality changes as loads change. Finally,
the PCM incorporates a9No-Load9engine speed lim-
iter of approximately 1800 - 2000 rpm, when it rec-
ognizes that the TPS is indicating an idle signal and
IAC motor cannot maintain engine idle.
A (factory adjusted) set screw is used to mechani-
cally limit the position of the throttle body throttle
plate.Never attempt to adjust the engine idle
speed using this screw.All idle speed functions are
controlled by the IAC motor through the PCM.
KJFUEL INJECTION 14 - 35

INSTALLATION
2.4L
The intake manifold air temperature (IAT) sensor
is installed into the intake manifold plenum at the
rear end of the intake manifold.
(1) Check condition of sensor o-ring.
(2) Clean sensor mounting hole in intake manifold.
(3) Position sensor into intake manifold and rotate
clockwise until past release tab.
(4) Install electrical connector.
3.7L
The intake manifold air temperature (IAT) sensor
is installed into the left side of intake manifold ple-
num (Fig. 16).
(1) Check condition of sensor o-ring.
(2) Clean sensor mounting hole in intake manifold.
(3) Position sensor into intake manifold and rotate
clockwise until past release tab (Fig. 16).
(4) Install electrical connector.
MAP SENSOR
DESCRIPTION
2.4L
The Manifold Absolute Pressure (MAP) sensor is
mounted into the rear of the intake manifold with 1
screw.
3.7L
The Manifold Absolute Pressure (MAP) sensor is
mounted into the front of the intake manifold with 2
screws.
OPERATION
The MAP sensor is used as an input to the Power-
train Control Module (PCM). It contains a silicon
based sensing unit to provide data on the manifold
vacuum that draws the air/fuel mixture into the com-
bustion chamber. The PCM requires this information
to determine injector pulse width and spark advance.
When manifold absolute pressure (MAP) equals
Barometric pressure, the pulse width will be at max-
imum.
A 5 volt reference is supplied from the PCM and
returns a voltage 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 of 0±15
psi, the voltage changes 4.0V. To operate the sensor,
it is supplied a regulated 4.8 to 5.1 volts. Ground is
provided through the low-noise, sensor return circuit
at the PCM.The MAP sensor input is the number one contrib-
utor to fuel injector pulse width. The most important
function of the MAP sensor is to determine baromet-
ric pressure. The PCM needs to know if the vehicle is
at sea level or at a higher altitude, because the air
density changes with altitude. It will also help to cor-
rect for varying barometric pressure. Barometric
pressure and altitude have a direct inverse correla-
tion; as altitude goes up, barometric goes down. At
key-on, the PCM powers up and looks at MAP volt-
age, 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 com-
pares the current voltage to what it was at key-on.
The difference between current voltage 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 a known good sensor.
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 (WOT), based
upon Throttle Position Sensor (TPS) angle and RPM,
it will update barometric pressure in the MAP mem-
ory cell. With periodic updates, the PCM can make
its calculations more effectively.
The PCM uses the MAP sensor input to aid in cal-
culating the following:
²Manifold pressure
²Barometric pressure
²Engine load
²Injector pulse-width
²Spark-advance programs
²Shift-point strategies (certain automatic trans-
missions only)
²Idle speed
²Decel fuel shutoff
The MAP sensor signal is provided from a single
piezoresistive element located in the center of a dia-
phragm. The element and diaphragm are both made
of silicone. As manifold pressure changes, the dia-
phragm moves causing the element to deflect, which
stresses the silicone. When silicone is exposed to
stress, its resistance changes. As manifold vacuum
increases, the MAP sensor input voltage decreases
proportionally. The sensor also contains electronics
that condition the signal and provide temperature
compensation.
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; meaning as
pressure changes, voltage changes proportionately.
14 - 38 FUEL INJECTIONKJ
INTAKE AIR TEMPERATURE SENSOR (Continued)

TIRES
DESCRIPTION
DESCRIPTION - TIRES
Tires are designed and engineered for each specific
vehicle. They provide the best overall performance
for normal operation. The ride and handling charac-
teristics match the vehicle's requirements. With
proper care they will give excellent reliability, trac-
tion, skid resistance, and tread life.
Driving habits have more effect on tire life than
any other factor. Careful drivers will obtain in most
cases, much greater mileage than severe use or care-
less drivers. A few of the driving habits which will
shorten the life of any tire are:
²Rapid acceleration
²Severe brake applications
²High speed driving
²Excessive speeds on turns
²Striking curbs and other obstacles
Radial-ply tires are more prone to irregular tread
wear. It is important to follow the tire rotation inter-
val,(Refer to 22 - TIRES/WHEELS - STANDARD
PROCEDURE). This will help to achieve a greater
tread life.
TIRE IDENTIFICATION
Tire type, size, aspect ratio and speed rating are
encoded in the letters and numbers imprinted on the
side wall of the tire. Refer to the chart to decipher
the tire identification code (Fig. 11).
Performance tires have a speed rating letter after
the aspect ratio number.
LETTER SPEED RATING
S 180 km/h (112 mph)
T 190 km/h (118 mph)
U 200 km/h (124 mph)
H 210 km/h (130 mph)
V 240 km/h (149 mph)
W 270 km/h (168 mph)
Y 300 km/h (186 mph)
The speed rating is not always printed on the tire
sidewall.
TIRE CHAINS
Tire snow chains may be used oncertainmodels.
Refer to the Owner's Manual for more information.
DESCRIPTION - RADIAL-PLY TIRES
Radial-ply tires improve handling, tread life and
ride quality, and decrease rolling resistance.
Radial-ply tires must always be used in sets of
four. Under no circumstances should they be used on
the front only. They may be mixed with temporary
spare tires when necessary. A maximum speed of 50
MPH is recommended while a temporary spare is in
use.
Radial-ply tires have the same load-carrying capac-
ity as other types of tires of the same size. They also
use the same recommended inflation pressures.
The use of oversized tires, either in the front or
rear of the vehicle, can cause vehicle drive train fail-
ure. This could also cause inaccurate wheel speed
signals when the vehicle is equipped with Anti-Lock
Brakes.
The use of tires from different manufactures on the
same vehicle is NOT recommended. The proper tire
pressure should be maintained on all four tires.
DESCRIPTION - SPARE TIRE &TEMPORARY
The temporary spare tire is designed for emer-
gency use only. The original tire should be repaired
or replaced at the first opportunity, then reinstalled.
Do not exceed speeds of 50 M.P.H. when using the
temporary spare tire. Refer to Owner's Manual for
complete details.
Fig. 11 Tire Identification
22 - 6 TIRES/WHEELSKJ

INSTALLATION
WARNING: REVIEW THE WARNINGS AND CAU-
TIONS IN THE FRONT OF THIS SECTION BEFORE
PERFORMING THE FOLLOWING OPERATION.
(Refer to 24 - HEATING & AIR CONDITIONING/
PLUMBING - WARNING) (Refer to 24 - HEATING &
AIR CONDITIONING/PLUMBING - CAUTION) (Refer
to 24 - HEATING & AIR CONDITIONING/PLUMBING -
CAUTION - REFRIGERANT HOSES/LINES/TUBES
PRECAUTIONS)
The compressor may be removed and repositioned
without disconnecting the refrigerant lines or dis-
charging the refrigerant system. Discharging is not
necessary if servicing the compressor clutch or clutch
coil, the engine, the cylinder head, or the generator.
NOTE: If a replacement compressor is being
installed, be certain to check the refrigerant oil
level. (Refer to 24 - HEATING & AIR CONDITIONING/
PLUMBING/REFRIGERANT OIL - STANDARD PRO-
CEDURE - REFRIGERANT OIL LEVEL) Use only
refrigerant oil of the type recommended for the
compressor in the vehicle. (Refer to 24 - HEATING &
AIR CONDITIONING/PLUMBING/REFRIGERANT OIL -
DESCRIPTION)(1) Install the compressor to the mounting bracket.
Tighten the three mounting bolts to 27 N´m (20 ft.
lbs.), (2.4L gasoline and 2.5L diesel engines only).
(2) On the 3.7L gasoline engine install and tighten
the bolts in the following sequence (Fig. 5):
²The number one bolt (rear) is hand tightened
first then tightened to 55 N´m (41 ft. lbs.)
²The number three bolt is then hand tightened
and torqued to 40 N´m ( 30 ft. lbs.)
²The number two bolt is also hand tightened and
torqued to 55 N´m ( 41 ft. lbs.)
(3) Remove the tape or plugs from all of the
opened refrigerant line fittings. Install the suction
and discharge line manifold to the compressor.
Tighten the fastener to 28 N´m (250 in. lbs.).(Refer to
24 - HEATING & AIR CONDITIONING/PLUMBING/
SUCTION LINE - INSTALLATION) (Refer to 24 -
HEATING & AIR CONDITIONING/PLUMBING/A/C
DISCHARGE LINE - INSTALLATION)
(4) Install the serpentine drive belt(Refer to 7 -
COOLING/ACCESSORY DRIVE/DRIVE BELTS -
INSTALLATION).
Fig. 3 A/C COMPRESSOR - 3.7L ENGINE
1 - COMPRESSOR BOLT #1
2 - COMPRESSOR BOLT #2
3 - COMPRESSOR BOLT #3
4 - A/C COMPRESSOR
5 - A/C COMPRESSOR CLUTCH AND PULLEY
6 - COMPRESSOR MOUNT
Fig. 4 A/C COMPRESSOR - 2.5L DIESEL ENGINE
1 - SUCTION LINE MOUNTING NUT
2- SUCTION LINE MOUNTING CLIP
3- SUCTION LINE
4- MOUNTING SCREW FOR SUCTION LINE
5- SUCTION LINE MOUNTING FLANG
6- MOUNTING SCREW FOR DISCHARGE LINE
7- DISCHARGE LINE MOUNTING FLANG
8- A/C PRESSURE SENSOR
9- A/C DISCHARGE LINE
10- A/C COMPRESSOR ASSEMBLY
11- A/C DISCHARGE LINE SERVICE PORT
24 - 44 PLUMBINGKJ
A/C COMPRESSOR (Continued)

Normal vehicle miles or engine misfire can cause a
catalyst to decay. This can increase vehicle emissions
and deteriorate engine performance, driveability and
fuel economy.
The catalyst monitor uses dual oxygen sensors
(O2S's) to monitor the efficiency of the converter. The
dual O2S's sensor strategy is based on the fact that
as a catalyst deteriorates, its oxygen storage capacity
and its efficiency are both reduced. By monitoring
the oxygen storage capacity of a catalyst, its effi-
ciency can be indirectly calculated. The upstream
O2S is used to detect the amount of oxygen in the
exhaust gas before the gas enters the catalytic con-
verter. The PCM calculates the A/F mixture from the
output of the O2S. A low voltage indicates high oxy-
gen content (lean mixture). A high voltage indicates a
low content of oxygen (rich mixture).
When the upstream O2S detects a lean condition,
there is an abundance of oxygen in the exhaust gas.
A functioning converter would store this oxygen so it
can use it for the oxidation of HC and CO. As the
converter absorbs the oxygen, there will be a lack of
oxygen downstream of the converter. The output of
the downstream O2S will indicate limited activity in
this condition.
As the converter loses the ability to store oxygen,
the condition can be detected from the behavior of
the downstream O2S. When the efficiency drops, no
chemical reaction takes place. This means the con-
centration of oxygen will be the same downstream as
upstream. The output voltage of the downstream
O2S copies the voltage of the upstream sensor. The
only difference is a time lag (seen by the PCM)
between the switching of the O2S's.
To monitor the system, the number of lean-to-rich
switches of upstream and downstream O2S's is
counted. The ratio of downstream switches to
upstream switches is used to determine whether the
catalyst is operating properly. An effective catalyst
will have fewer downstream switches than it has
upstream switches i.e., a ratio closer to zero. For a
totally ineffective catalyst, this ratio will be one-to-
one, indicating that no oxidation occurs in the device.
The system must be monitored so that when cata-
lyst efficiency deteriorates and exhaust emissions
increase to over the legal limit, the MIL will be illu-
minated.
DESCRIPTION - TRIP DEFINITION
The term ªTripº has different meanings depending
on what the circumstances are. If the MIL (Malfunc-
tion Indicator Lamp) is OFF, a Trip is defined as
when the Oxygen Sensor Monitor and the Catalyst
Monitor have been completed in the same drive cycle.
When any Emission DTC is set, the MIL on the
dash is turned ON. When the MIL is ON, it takes 3good trips to turn the MIL OFF. In this case, it
depends on what type of DTC is set to know what a
ªTripº is.
For the Fuel Monitor or Mis-Fire Monitor (contin-
uous monitor), the vehicle must be operated in the
ªSimilar Condition Windowº for a specified amount of
time to be considered a Good Trip.
If a Non-Contiuous OBDII Monitor fails twice in a
row and turns ON the MIL, re-running that monitor
which previously failed, on the next start-up and
passing the monitor, is considered to be a Good Trip.
These will include the following:
²Oxygen Sensor
²Catalyst Monitor
²Purge Flow Monitor
²Leak Detection Pump Monitor (if equipped)
²EGR Monitor (if equipped)
²Oxygen Sensor Heater Monitor
If any other Emission DTC is set (not an OBDII
Monitor), a Good Trip is considered to be when the
Oxygen Sensor Monitor and Catalyst Monitor have
been completed; or 2 Minutes of engine run time if
the Oxygen Sensor Monitor or Catalyst Monitor have
been stopped from running.
It can take up to 2 Failures in a row to turn on the
MIL. After the MIL is ON, it takes 3 Good Trips to
turn the MIL OFF. After the MIL is OFF, the PCM
will self-erase the DTC after 40 Warm-up cycles. A
Warm-up cycle is counted when the ECT (Engine
Coolant Temperature Sensor) has crossed 160ÉF and
has risen by at least 40ÉF since the engine has been
started.
DESCRIPTION - COMPONENT MONITORS
There are several components that will affect vehi-
cle emissions if they malfunction. If one of these com-
ponents malfunctions the Malfunction Indicator
Lamp (MIL) will illuminate.
Some of the component monitors are checking for
proper operation of the part. Electrically operated
components now have input (rationality) and output
(functionality) checks. Previously, a component like
the Throttle Position sensor (TPS) was checked by
the PCM for an open or shorted circuit. If one of
these conditions occurred, a DTC was set. Now there
is a check to ensure that the component is working.
This is done by watching for a TPS indication of a
greater or lesser throttle opening than MAP and
engine rpm indicate. In the case of the TPS, if engine
vacuum is high and engine rpm is 1600 or greater
and the TPS indicates a large throttle opening, a
DTC will be set. The same applies to low vacuum if
the TPS indicates a small throttle opening.
All open/short circuit checks or any component that
has an associated limp in will set a fault after 1 trip
with the malfunction present. Components without
KJEMISSIONS CONTROL 25 - 19
EMISSIONS CONTROL (Continued)

MOTOR - OPERATION, IDLE AIR
CONTROL..........................14-35
MOTOR - OPERATION, REAR WIPER.....8R-41
MOTOR - REMOVAL, BLOWER..........24-30
MOTOR - REMOVAL, DRIVE...........23-182
MOTOR - REMOVAL, HEADLAMP
LEVELING..........................8L-36
MOTOR - REMOVAL, IDLE AIR CONTROL . . 14-36
MOTOR - REMOVAL, REAR WIPER......8R-42
MOTOR - REMOVAL, STARTER..........8F-39
MOTOR - REMOVAL, WINDOW..........8N-22
MOTOR, GAS POWERED - STARTER......8F-39
MOTOR RELAY - DESCRIPTION,
BLOWER...........................24-20
MOTOR RELAY - DESCRIPTION,
STARTER ...........................8F-41
MOTOR RELAY - DIAGNOSIS AND
TESTING, BLOWER...................24-21
MOTOR RELAY - INSTALLATION,
BLOWER...........................24-22
MOTOR RELAY - INSTALLATION,
STARTER ...........................8F-43
MOTOR RELAY - OPERATION, BLOWER . . . 24-20
MOTOR RELAY - OPERATION, STARTER . . . 8F-42
MOTOR RELAY - REMOVAL, BLOWER....24-21
MOTOR RELAY - REMOVAL, STARTER....8F-43
MOTOR RESISTOR - DESCRIPTION,
BLOWER...........................24-22
MOTOR RESISTOR - DIAGNOSIS AND
TESTING, BLOWER.....................24-22
MOTOR RESISTOR - INSTALLATION,
BLOWER...........................24-22
MOTOR RESISTOR - OPERATION,
BLOWER...........................24-22
MOTOR RESISTOR - REMOVAL,
BLOWER...........................24-22
MOTOR SWITCH - DESCRIPTION,
BLOWER...........................24-23
MOTOR SWITCH - DIAGNOSIS AND
TESTING, BLOWER...................24-23
MOTOR SWITCH - INSTALLATION,
BLOWER...........................24-23
MOTOR SWITCH - OPERATION, BLOWER . . 24-23
MOTOR SWITCH - REMOVAL, BLOWER . . . 24-23
MOUNT - INSTALLATION, FRONT.........9-57
MOUNT - INSTALLATION, REAR..........9-57
MOUNT - REMOVAL, FRONT.............9-56
MOUNT - REMOVAL, REAR..............9-57
MOUNTED STOP LAMP BULB -
INSTALLATION, CENTER HIGH..........8L-19
MOUNTED STOP LAMP BULB -
REMOVAL, CENTER HIGH..............8L-18
MOUNTED STOP LAMP UNIT -
INSTALLATION, CENTER HIGH..........8L-19
MOUNTED STOP LAMP UNIT -
REMOVAL, CENTER HIGH..............8L-19
MOUNTING - STANDARD PROCEDURE,
MATCH .............................22-3
MOUNTING - STANDARD PROCEDURE,
WHEEL............................22-10
MOUNTING BRACKET - INSTALLATION,
PASSENGER AIRBAG.................8O-31
MOUNTING BRACKET - REMOVAL,
PASSENGER AIRBAG.................8O-31
MUFFLER - DESCRIPTION...............11-4
MUFFLER - INSTALLATION
..............11-5
MUFFLER - REMOVAL
..................11-5
MULTI-FUNCTION SWITCH -
DESCRIPTION
.......................8L-46
MULTI-FUNCTION SWITCH - DIAGNOSIS
AND TESTING
.......................8L-50
MULTI-FUNCTION SWITCH -
INSTALLATION
.......................8L-53
MULTI-FUNCTION SWITCH - OPERATION
. . 8L-48
MULTI-FUNCTION SWITCH - REMOVAL
. . . 8L-53
NAME PLATES - INSTALLATION,
EXTERIOR
.........................23-141
NAME PLATES - REMOVAL, EXTERIOR
. . . 23-140
NOISE - DIAGNOSIS AND TESTING, A/C
COMPRESSOR
.......................24-42
NOISE - DIAGNOSIS AND TESTING,
WIND
...............................23-3
NOISE DIAGNOSIS, DIAGNOSIS AND
TESTING - WATER DRAINAGE AND
WIND
.............................23-176
NOISE OR VIBRATION - DIAGNOSIS AND
TESTING, TIRE
.......................22-8NOISE SUPPRESSION GROUND STRAP -
DESCRIPTION, RADIO..................8A-9
NOISE SUPPRESSION GROUND STRAP -
INSTALLATION, RADIO................8A-11
NOISE SUPPRESSION GROUND STRAP -
OPERATION, RADIO..................8A-10
NOISE SUPPRESSION GROUND STRAP -
REMOVAL, RADIO....................8A-10
NON-DEPLOYED SUPPLEMENTAL
RESTRAINTS - STANDARD
PROCEDURE, HANDLING...............8O-6
NON-MONITORED CIRCUITS -
DESCRIPTION.......................25-20
NOZZLE - DESCRIPTION, FRONT
WASHER...........................8R-11
NOZZLE - DESCRIPTION, REAR WASHER . 8R-36
NOZZLE - INSTALLATION, FRONT
WASHER...........................8R-11
NOZZLE - INSTALLATION, REAR
WASHER...........................8R-37
NOZZLE - OPERATION, FRONT WASHER . . 8R-11
NOZZLE - OPERATION, REAR WASHER . . . 8R-36
NOZZLE - REMOVAL, FRONT WASHER....8R-11
NOZZLE - REMOVAL, REAR WASHER....8R-36
NUMBER - DESCRIPTION, VEHICLE
IDENTIFICATION....................Intro.-8
NV1500 - ASSEMBLY, MANUAL.........21-13
NV1500 - CLEANING, MANUAL..........21-10
NV1500 - DESCRIPTION, MANUAL........21-1
NV1500 - DISASSEMBLY, MANUAL........21-4
NV1500 - INSPECTION, MANUAL..........21-11
NV1500 - INSTALLATION, EXTENSION
HOUSING SEAL......................21-32
NV1500 - INSTALLATION, MANUAL......21-29
NV1500 - MANUAL...................21-30
NV1500 - OPERATION, MANUAL..........21-1
NV1500 - REMOVAL, EXTENSION
HOUSING SEAL......................21-32
NV1500 - REMOVAL, MANUAL...........21-3
NV1500 - SPECIFICATIONS.............21-30
NV231 - ASSEMBLY, TRANSFER CASE . . . 21-194
NV231 - CLEANING, TRANSFER CASE . . . 21-190
NV231 - DESCRIPTION, TRANSFER CASE . . . 0-3
NV231 - DESCRIPTION, TRANSFER CASE . 21-178
NV231 - DIAGNOSIS AND TESTING,
TRANSFER CASE....................21-180
NV231 - DISASSEMBLY, TRANSFER
CASE.............................21-182
NV231 - INSPECTION, TRANSFER CASE . . 21-190
NV231 - INSTALLATION, TRANSFER
CASE.............................21-205
NV231 - OPERATION, TRANSFER CASE . . 21-179
NV231 - REMOVAL, TRANSFER CASE....21-181
NV231 - TRANSFER CASE.............21-206
NV242 - ASSEMBLY, TRANSFER CASE . . . 21-230
NV242 - CLEANING, TRANSFER CASE . . . 21-227
NV242 - DESCRIPTION, TRANSFER CASE . . . 0-3
NV242 - DESCRIPTION, TRANSFER CASE . 21-215
NV242 - DIAGNOSIS AND TESTING,
TRANSFER CASE....................21-216
NV242 - DISASSEMBLY, TRANSFER
CASE.............................21-218
NV242 - INSPECTION, TRANSFER CASE . . 21-228
NV242 - INSTALLATION, TRANSFER
CASE.............................21-243
NV242 - OPERATION, TRANSFER CASE . . 21-215
NV242 - REMOVAL, TRANSFER CASE....21-217
NV242 - TRANSFER CASE.............21-244
NV242 TRANSFER CASE,
SPECIFICATIONS....................21-244
NV3550 - ASSEMBLY, MANUAL.........21-48
NV3550 - CLEANING, MANUAL..........21-46
NV3550 - DESCRIPTION, MANUAL.......21-33
NV3550 - DISASSEMBLY, MANUAL.......21-35
NV3550 - INSPECTION, MANUAL........21-46
NV3550 - INSTALLATION, EXTENSION
HOUSING BUSHING...................21-74
NV3550 - INSTALLATION, EXTENSION
HOUSING SEAL......................21-74
NV3550 - INSTALLATION, MANUAL......21-70
NV3550 - MANUAL...................21-71
NV3550 - OPERATION, MANUAL
.........21-33
NV3550 - REMOVAL, EXTENSION
HOUSING BUSHING
...................21-73
NV3550 - REMOVAL, EXTENSION
HOUSING SEAL
......................21-74
NV3550 - REMOVAL, MANUAL
..........21-34
ODOMETER - DESCRIPTION
............8J-25ODOMETER - OPERATION..............8J-25
OFF INDICATOR - DESCRIPTION,
OVERDRIVE.........................8J-26
OFF INDICATOR - OPERATION,
OVERDRIVE.........................8J-26
OIL - DESCRIPTION, REFRIGERANT......24-53
OIL - OPERATION, REFRIGERANT........24-54
OIL - STANDARD PROCEDURE, ENGINE....9-61
OIL FILTER - INSTALLATION.............9-63
OIL FILTER - REMOVAL.................9-63
OIL GALLERY PLUGS - STANDARD
PROCEDURE, ENGINE CORE.............9-10
OIL LEAK - DIAGNOSIS AND TESTING,
ENGINE.............................9-60
OIL LEVEL - STANDARD PROCEDURE,
REFRIGERANT.......................24-54
OIL PAN - CLEANING..................9-63
OIL PAN - DESCRIPTION................9-63
OIL PAN - INSPECTION.................9-63
OIL PAN - INSTALLATION...............9-64
OIL PAN - REMOVAL...................9-63
OIL PRESSURE - DIAGNOSIS AND
TESTING, ENGINE.....................9-60
OIL PRESSURE INDICATOR -
DESCRIPTION, LOW..................8J-23
OIL PRESSURE INDICATOR -
OPERATION, LOW....................8J-23
OIL PRESSURE SENSOR/SWITCH -
DESCRIPTION........................9-65
OIL PRESSURE SENSOR/SWITCH -
INSTALLATION........................9-65
OIL PRESSURE SENSOR/SWITCH -
OPERATION..........................9-65
OIL PRESSURE SENSOR/SWITCH -
REMOVAL...........................9-65
OIL PUMP - ASSEMBLY................9-67
OIL PUMP - ASSEMBLY..............21-151
OIL PUMP - CLEANING...............21-150
OIL PUMP - DESCRIPTION............21-147
OIL PUMP - DISASSEMBLY.............9-65
OIL PUMP - DISASSEMBLY............21-149
OIL PUMP - INSPECTION...............9-66
OIL PUMP - INSPECTION.............21-150
OIL PUMP - INSTALLATION.............9-67
OIL PUMP - OPERATION..............21-147
OIL PUMP - REMOVAL.................9-65
OIL PUMP FRONT SEAL - INSTALLATION . 21-152
OIL PUMP FRONT SEAL - REMOVAL....21-152
OIL PUMP VOLUME CHECK - STANDARD
PROCEDURE.......................21-148
OIL SEAL - FRONT - INSTALLATION,
CRANKSHAFT........................9-47
OIL SEAL - FRONT - REMOVAL,
CRANKSHAFT........................9-46
OIL SEAL - REAR - INSTALLATION,
CRANKSHAFT........................9-48
OIL SEAL - REAR - REMOVAL,
CRANKSHAFT........................9-48
ON-BOARD DIAGNOSTICS (OBD) -
DIAGNOSIS AND TESTING...............7-3
ON/OFF RELAY - DESCRIPTION, WIPER . . . 8R-25
ON/OFF RELAY - DIAGNOSIS AND
TESTING, WIPER.....................8R-26
ON/OFF RELAY - INSTALLATION, WIPER . . 8R-26
ON/OFF RELAY - OPERATION, WIPER....8R-25
ON/OFF RELAY - REMOVAL, WIPER......8R-26
OPEN-CIRCUIT VOLTAGE TEST -
STANDARD PROCEDURE...............8F-12
OPENING DIMENSIONS -
SPECIFICATIONS....................23-111
OPENING FLARE MOLDINGS -
INSTALLATION, FRONT WHEEL.........23-145
OPENING FLARE MOLDINGS -
INSTALLATION, REAR WHEEL..........23-145
OPENING FLARE MOLDINGS -
REMOVAL, FRONT WHEEL............23-145
OPENING FLARE MOLDINGS -
REMOVAL, REAR WHEEL.............23-145
OPENING REINFORCEMENT -
INSTALLATION, GRILLE...............23-142
OPENING REINFORCEMENT - REMOVAL,
GRILLE
...........................23-142
OPENING TRIM LACE - INSTALLATION
. . . 23-180
OPENING TRIM LACE - REMOVAL
......23-180
OPENING WEATHERSTRIP -
INSTALLATION, SWING GATE
..........23-186
OPENING WEATHERSTRIP - REMOVAL,
SWING GATE
.......................23-186
KJINDEX 17
Description Group-Page Description Group-Page Description Group-Page