tra DODGE NEON 2000 Service Repair Manual
[x] Cancel search | Manufacturer: DODGE, Model Year: 2000, Model line: NEON, Model: DODGE NEON 2000Pages: 1285, PDF Size: 29.42 MB
Page 1109 of 1285

Pending ConditionsÐThere are not conditions
or situations that prompt conflict or suspension of
testing. The oxygen sensor heater test is not run
pending resolution of MIL illumination due to oxygen
sensor failure.
SuspendÐThere are no conditions which exist for
suspending the Heater Monitor.
CATALYST MONITOR
To comply with clean air regulations, vehicles are
equipped with catalytic converters. These converters
reduce the emission of hydrocarbons, oxides of nitro-
gen and carbon monoxide.
Normal vehicle miles or engine misfire can cause a
catalyst to decay. A meltdown of the ceramic core can
cause a reduction of the exhaust passage. 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 strategy is based on the fact that as a cat-
alyst deteriorates, its oxygen storage capacity and its
efficiency are both reduced. By monitoring the oxy-
gen storage capacity of a catalyst, its efficiency 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 converter. The
PCM calculates the A/F mixture from the output of
the O2S. A low voltage indicates high oxygen 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 atotally 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 (check
engine lamp) will be illuminated.
Monitor OperationÐTo monitor catalyst effi-
ciency, the PCM expands the rich and lean switch
points of the heated oxygen sensor. With extended
switch points, the air/fuel mixture runs richer and
leaner to overburden the catalytic converter. Once
the test is started, the air/fuel mixture runs rich and
lean and the O2 switches are counted. A switch is
counted when an oxygen sensor signal goes from
below the lean threshold to above the rich threshold.
The number of Rear O2 sensor switches is divided by
the number of Front O2 sensor switches to determine
the switching ratio.
The test runs for 20 seconds. As catalyst efficiency
deteriorated over the life of the vehicle, the switch
rate at the downstream sensor approaches that of the
upstream sensor. If at any point during the test
period the switch ratio reaches a predetermined
value, a counter is incremented by one. The monitor
is enabled to run another test during that trip. When
the test fails three times, the counter increments to
three, a malfunction is entered, and a Freeze Frame
is stored. When the counter increments to three dur-
ing the next trip, the code is matured and the MIL is
illuminated. If the test passes the first, no further
testing is conducted during that trip.
The MIL is extinguished after three consecutive
good trips. The good trip criteria for the catalyst
monitor is more stringent than the failure criteria. In
order to pass the test and increment one good trip,
the downstream sensor switch rate must be less than
80% of the upstream rate (60% for manual transmis-
sions). The failure percentages are 90% and 70%
respectively.
Enabling ConditionsÐThe following conditions
must typically be met before the PCM runs the cat-
alyst monitor. Specific times for each parameter may
be different from engine to engine.
²Accumulated drive time
²Enable time
²Ambient air temperature
²Barometric pressure
²Catalyst warm-up counter
²Engine coolant temperature
²Accumulated throttle position sensor
²Vehicle speed
²MAP
²RPM
²Engine in closed loop
²Fuel level
25 - 22 EMISSION CONTROL SYSTEMSPL
DESCRIPTION AND OPERATION (Continued)
Page 1111 of 1285

PCM CONNECTOR ENGAGEMENT
The PCM may not be able to determine spread or
damaged connector pins. However, it might store
diagnostic trouble codes as a result of spread connec-
tor pins.
HIGH AND LOW LIMITS
OPERATION
The PCM compares input signal voltages from each
input device with established high and low limits forthe device. If the input voltage is not within limits
and other criteria are met, the PCM stores a diagnos-
tic trouble code in memory. Other diagnostic trouble
code criteria might include engine RPM limits or
input voltages from other sensors or switches that
must be present before verifying a diagnostic trouble
code condition.
LOAD VALUE
ENGINE IDLE/NEUTRAL 2500 RPM/NEUTRAL
2.0L 2% to 8% of Maximum Load 8% to 15% of Maximum Load
25 - 24 EMISSION CONTROL SYSTEMSPL
DESCRIPTION AND OPERATION (Continued)
Page 1112 of 1285

EVAPORATIVE EMISSION CONTROLS
TABLE OF CONTENTS
page page
DESCRIPTION AND OPERATION
EVAPORATION CONTROL SYSTEM..........25
EVAP CANISTER.........................25
PROPORTIONAL PURGE SOLENOIDÐPCM
OUTPUT..............................25
LEAK DETECTION PUMP..................26
LEAK DETECTION PUMP PRESSURE
SWITCH..............................27
POSITIVE CRANKCASE VENTILATION (PCV)
SYSTEMS.............................28POSITIVE CRANKCASE VENTILATION VALVE. . . 28
VEHICLE EMISSION CONTROL
INFORMATION LABEL...................29
REMOVAL AND INSTALLATION
EVAP CANISTER.........................29
LEAK DETECTION PUMP..................30
PROPORTIONAL PURGE SOLENOID VALVE....30
DESCRIPTION AND OPERATION
EVAPORATION CONTROL SYSTEM
OPERATION
The evaporation control system prevents the emis-
sion of fuel tank vapors into the atmosphere. When
fuel evaporates in the fuel tank, the vapors pass
through vent hoses or tubes to an activated carbon
filled evaporative canister. The canister temporarily
holds the vapors. The Powertrain Control Module
(PCM) allows intake manifold vacuum to draw
vapors into the combustion chambers during certain
operating conditions.
All engines use a proportional purge solenoid sys-
tem. The PCM controls vapor flow by operating the
purge solenoid. Refer to Proportional Purge Solenoid
in this section.
NOTE: The evaporative system uses specially man-
ufactured hoses. If they need replacement, only use
fuel resistant hose. Also the hoses must be able to
pass an Ozone compliance test.
NOTE: For more information on Onboard Refueling
Vapor Recovery (ORVR), refer to the Fuel Delivery
section.
EVAP CANISTER
DESCRIPTION
The vacuum and vapor tubes connect to the top of
the canister (Fig. 1).
OPERATION
All vehicles use a, maintenance free, evaporative
(EVAP) canister. Fuel tank vapors vent into the can-
ister. The canister temporarily holds the fuel vapors
until intake manifold vacuum draws them into the
combustion chamber. The Powertrain Control Module
(PCM) purges the canister through the proportional
purge solenoid. The PCM purges the canister at pre-
determined intervals and engine conditions.
Purge Free Cells
Purge-free memory cells are used to identify the
fuel vapor content of the evaporative canister. Since
the evaporative canister is not purged 100% of the
time, the PCM stores information about the evapora-
tive canister's vapor content in a memory cell.
The purge-free cells are constructed similar to cer-
tain purge-normal cells. The purge-free cells can be
monitored by the DRB III Scan Tool. The only differ-
ence between the purge-free cells and normal adap-
tive cells is that in purge-free, the purge is
completely turned off. This gives the PCM the ability
to compare purge and purge-free operation.
PROPORTIONAL PURGE SOLENOIDÐPCM
OUTPUT
DESCRIPTION
OPERATION
All vehicles use a proportional purge solenoid. The
solenoid regulates the rate of vapor flow from the
EVAP canister to the throttle body. The PCM oper-
ates the solenoid.
During the cold start warm-up period and the hot
start time delay, the PCM does not energize the sole-
noid. When de-energized, no vapors are purged.
PLEMISSION CONTROL SYSTEMS 25 - 25
Page 1113 of 1285

The proportional purge solenoid operates at a fre-
quency of 200 hz and is controlled by an engine con-
troller circuit that senses the current being applied
to the proportional purge solenoid (Fig. 2) and then
adjusts that current to achieve the desired purge
flow. The proportional purge solenoid controls the
purge rate of fuel vapors from the vapor canister and
fuel tank to the engine intake manifold.
LEAK DETECTION PUMP
DESCRIPTION
The leak detection pump is a device used to detect
a leak in the evaporative system.
The pump contains a 3 port solenoid, a pump that
contains a switch, a spring loaded canister vent valve
seal, 2 check valves and a spring/diaphragm.
OPERATION
Immediately after a cold start, when the engine
temperature is between 40ÉF and 86ÉF, the 3 port
solenoid is briefly energized. This initializes the pump
by drawing air into the pump cavity and also closes
the vent seal. During non-test test conditions, the
vent seal is held open by the pump diaphragm assem-
bly which pushes it open at the full travel position.
The vent seal will remain closed while the pump is
cycling. This is due to the operation of the 3 port sole-
noid which prevents the diaphragm assembly from
reaching full travel. After the brief initialization
period, the solenoid is de-energized, allowing atmo-
spheric pressure to enter the pump cavity. This per-
mits the spring to drive the diaphragm which forces
air out of the pump cavity and into the vent system.
When the solenoid is energized and de-energized, the
cycle is repeated creating flow in typical diaphragm
pump fashion. The pump is controlled in 2 modes:
1 ± FUEL CAP
2 ± RECIRCULATION TUBE
3 ± LIQUID SEPARATOR
4 ± PURGE
5 ± W/LDP
6 ± BREATHER ELEMENT
7 ± W/O LDP8 ± CANISTER
9 ± ROLLOVER VALVE
10 ± FUEL TANK
11 ± CHECK VALVE
12 ± LIQUID TRAP
13 ± CONTROL VALVE
ORVR System Schematic
25 - 26 EMISSION CONTROL SYSTEMSPL
DESCRIPTION AND OPERATION (Continued)
Page 1114 of 1285

PUMP MODE:The pump is cycled at a fixed rate
to achieve a rapid pressure build in order to shorten
the overall test time.
TEST MODE:The solenoid is energized with a
fixed duration pulse. Subsequent fixed pulses occur
when the diaphragm reaches the switch closure
point.
The spring in the pump is set so that the system
will achieve an equalized pressure of about 7.5 inches
of water.
When the pump starts, the cycle rate is quite high.
As the system becomes pressurized, pump rate drops.
If there is no leak, the pump will quit. If there is a
leak, the test is terminated at the end of the test
mode.If there is no leak, the purge monitor is run. If the
cycle rate increases due to the flow through the
purge system, the test is passed and the diagnostic is
complete.
The canister vent valve will unseal the system
after completion of the test sequence as the pump
diaphragm assembly moves to the full travel position.
LEAK DETECTION PUMP PRESSURE SWITCH
OPERATION
The leak detection pump LDP assembly incorpo-
rates two primary functions: it detects a leak in the
evaporative system, and it seals the evaporative sys-
tem so that the required leak detection monitor test
can be run.
The primary components within the leak detection
pump assembly are: a three-port leak detection sole-
noid valve, a pump assembly that includes a spring
loaded diaphragm, a reed switch which is used to
monitor the pump diaphragm movement (position),
two check valves, and a spring loaded vent seal
valve.
The three-port LDP solenoid valve is used to
expose either engine vacuum or atmospheric pressure
to the top side of the leak detection pump diaphragm.
When the LDP solenoid valve is deenergized its
port (opening) to engine vacuum is blocked off. This
allows ambient air (atmospheric pressure) to enter
the top of the pump diaphragm. The spring load on
the diaphragm will push the diaphragm down, as
long as there is no pressure present in the rest of the
evaporative system. If there is sufficient evaporative
system pressure present, then the pump diaphragm
will stay in the ªupº position. If the evaporative sys-
tem pressure decays, then the pump diaphragm will
eventually fall. The rate of this decent is dependent
upon the size of the evaporative system leak (Large
or small).
When the LDP solenoid valve is energized the port
(opening) to atmosphere is blocked off. At the same
time, the port to engine vacuum is opened. Engine
vacuum replaces atmospheric pressure. When engine
vacuum is sufficient, it over comes the spring pres-
sure load on the pump diaphragm and causes the
diaphragm to rise to its ªupº position. The reed
switch will change state depending upon the position
of the pump diaphragm.
If the diaphragm is in the ªupº position the reed
switch will be in its ªopenº state. This means that
the 12 volt signal sense to the PCM is interrupted.
Zero volts is detected by the PCM. If the pump dia-
phragm is in the ªdownº position the reed switch will
be in its ªclosedº state. 12 volts is sent to the PCM
via the switch sense circuit.
Fig. 1 EVAP Canister
Fig. 2 Proportional Purge Solenoid
PLEMISSION CONTROL SYSTEMS 25 - 27
DESCRIPTION AND OPERATION (Continued)
Page 1118 of 1285

BODY
TABLE OF CONTENTS
page page
PAINT................................... 1
STATIONARY GLASS........................ 4
SEATS ................................... 8BODY COMPONENTS...................... 12
SPECIFICATIONS......................... 60
PAINT
TABLE OF CONTENTS
page page
DESCRIPTION AND OPERATION
PAINT CODE.............................1
BASE COAT/CLEAR COAT FINISH.............1
WET SANDING, BUFFING, AND POLISHING.....1PAINTED SURFACE TOUCH-UP..............1
SPECIFICATIONS
AFTERMARKET PAINT REPAIR PRODUCTS.....2
DESCRIPTION AND OPERATION
PAINT CODE
A paint code is provided on the body code plate
located in the engine compartment. Refer to the
Introduction section at the front of this manual for
body code plate description. The paint and trim codes
are also included on the Vehicle Safety Label located
on the driver's door end frame.
BASE COAT/CLEAR COAT FINISH
On most vehicles a two-part paint application (base
coat/clear coat) is used. Color paint that is applied to
primer is called base coat. The clear coat protects the
base coat from ultraviolet light and provides a dura-
ble high-gloss finish.
CAUTION: Do not use abrasive chemicals or com-
pounds on painted surfaces. Damage to finish can
result.
Do not use harsh alkaline based cleaning sol-
vents on painted surfaces. Damage to finish or
color can result.
WET SANDING, BUFFING, AND POLISHING
Minor acid etching, orange peel, or smudging in
clear coat or single-stage finishes can be reduced
with light wet sanding, hand buffing, and polishing.
If the finish has been wet sanded in the past, itcannot be repeated. Wet sanding operation
should be performed by a trained automotive
paint technician.
CAUTION: Do not remove clear coat finish, if
equipped. Base coat paint must retain clear coat for
durability.
PAINTED SURFACE TOUCH-UP
When a painted metal surface has been scratched
or chipped, it should be touched-up as soon as possi-
ble to avoid corrosion. For best results, use Mopart
Scratch Filler/Primer, Touch-Up Paints and Clear Top
Coat. Refer to Introduction group of this manual for
Body Code Plate information.
CAUTION: USE A OSHA APPROVED BREATHING
FILTER WHEN SPRAYING PAINT OR SOLVENTS IN
A CONFINED AREA. PERSONAL INJURY CAN
RESULT.
TOUCH-UP PROCEDURE
(1) Scrape loose paint and corrosion from inside
scratch or chip.
(2) Clean affected area with MopartTar/Road Oil
Remover, and allow to dry.
(3) Fill the inside of the scratch or chip with a coat
of filler/primer. Do not overlap primer onto good sur-
PLBODY 23 - 1
Page 1125 of 1285

SEATS
TABLE OF CONTENTS
page page
REMOVAL AND INSTALLATION
FRONT SEAT.............................8
FRONT SEAT BACK........................8
FRONT SEAT BACK COVER.................9FRONT SEAT CUSHION COVER..............9
FRONT SEAT CUSHION....................9
REAR SEAT BACK........................10
REAR SEAT CUSHION.....................11
REMOVAL AND INSTALLATION
FRONT SEAT
REMOVAL
(1) Move seat to forward position.
(2) Remove bolts attaching rear of seat track to
floor.
(3) Move seat to rearward position.
(4) Remove bolts attaching front of seat track to
floor crossmember (Fig. 1).
(5) Remove seat from vehicle.
INSTALLATION
(1) Move seat to mid-position andverifythat both
seat tracks are locked into same position with eight
teeth behind the latch mechanism.
(2) Move seat into position in vehicle. Do not use
the head restraint, side shield, recliner handle, or the
adjuster lift bar to move the seat.(3) Ensure that the locating tabs on the front
mounting feet are installed through the slits in the
carpet and into the openings in the floor pan cross-
member.
(4) Install and tighten front inboard bolt attaching
seat track to floor crossmember.
(5) Install front outboard bolt attaching seat track
to floor crossmember. Tighten front seat bolt to 55
N´m (40 ft. lbs.) torque.
(6) Install rear seat track attaching bolts to floor.
Tighten rear seat bolts outboard first then inboard to
55 N´m (40 ft. lbs.) torque.
FRONT SEAT BACK
REMOVAL
(1) Remove seat from vehicle.
(2) Remove seat cushion side shields.
(3) Remove bolts attaching recliner to seat back
cushion frame (Fig. 2).
(4) Remove inboard pivot bolt (Fig. 3).
(5) Disconnect any electrical connectors to the seat
back, if equipped.
(6) Remove seat back from seat cushion.
Fig. 1 Front Seat
1 ± SEAT
2 ± SEAT BELT BOLT
Fig. 2 Recliner Attaching Bolt
1 ± RECLINER BOLT
23 - 8 BODYPL
Page 1126 of 1285

INSTALLATION
(1) Position seat back on cushion.
(2) Connect electrical connectors to the seat back,
if equipped.
(3) Install inboard pivot bolt. Tighten bolt to 40
N´m (30 ft. lbs.) torque.
(4) Install bolts attaching recliner to seat cushion
frame. Tighten bolts to 12 N´m (9 ft. lbs.) torque.
(5) Install seat cushion side shields.
(6) Install seat in vehicle.
FRONT SEAT BACK COVER
REMOVAL
(1) Remove seat from vehicle.
(2) Remove head restraint.
(3) Remove front seat back.
(4) Disengage the J-strap retainer.
(5) Roll cover upward to hog rings. Cut hog rings
to free cover (Fig. 4).
(6) Roll cover to top of seat back and remove head
restraint sleeve guides.
(7) Remove cover from seat back.
INSTALLATION
NOTE: Do not reuse the recliner assembly attach-
ing bolts.
(1) Position cover at the top of seat back.
(2) Carefully roll cover down to the area that hog
rings are to be installed.
(3) Install hog rings.
(4) Roll cover downward.
(5) Engage the J-strap retainer
(6) Install new head restraint sleeve guides.(7) Install seat back to seat cushion. Tighten bolts
to 40 N´m (30 ft. lbs.) torque.
(8) Install seat in vehicle.
(9) Install head restraint.
(10) Check seat back and headrest operation.
FRONT SEAT CUSHION COVER
REMOVAL
(1) Remove seat from vehicle.
(2) Remove front seat cushion side shields.
(3) Remove seat back.
(4) Remove track and recliner assembly.
(5) Disengage J-strap attaching seat cover from
the seat cushion frame.
(6) Pull cover off to the hog rings.
(7) Cut hog rings attaching seat cover to seat cush-
ion pad.
(8) Remove seat cushion cover from seat cushion.
INSTALLATION
(1) Position seat cover on cushion.
(2) Align seat cover with cushion alignment inden-
tations.
(3) Install hog rings.
(4) Engage J-strap attaching seat cover to front of
seat cushion frame.
(5) Install track and recliner assembly. Tighten
front track to pan bolts to 12 N´m (9 ft. lbs.) torque.
(6) Install seat back.
(7) Install front seat cushion side shields.
(8) Install seat in vehicle.
FRONT SEAT CUSHION
REMOVAL
(1) Remove seat from vehicle.
(2) Remove front seat cushion side shield.
Fig. 3 Remove Seat Back
1 ± RECLINER BOLT HOLE
2 ± SEAT BACK BOLT HOLE
3 ± J-STRAP RETAINER
Fig. 4 Front Seat Back Hog Rings
1 ± SEAT COVER
2 ± HOG RINGS
3 ± CUSHION
PLBODY 23 - 9
REMOVAL AND INSTALLATION (Continued)
Page 1127 of 1285

(3) Remove seat back.
(4) Remove track and recliner assembly.
(5) Remove seat cushion (Fig. 5).
INSTALLATION
(1) Connect seat cushion heater element connector,
if equipped.
(2) Install track and recliner assembly. Tighten
bolts to 12 N´m (9 ft. lbs.) torque.
(3) Install seat back. Tighten bolts to 40 N´m (30
ft. lbs.) torque.
(4) Install cushion side shields.
(5) Install seat in vehicle.
REAR SEAT BACK
REMOVAL
(1) Remove rear seat cushion.
(2) Remove bolts attaching rear seat back and seat
belts to floor.
(3) Push rear seat back upward to disengage hooks
at top of seat back (Fig. 6).
(4) Remove rear seat from vehicle.
INSTALLATION
(1) Move rear seat back into position in vehicle.
(2) Push seat back downward to engage hooks at
top of seat back.
(3) Install bolts attaching rear seat back and seat
belts to floor.
NOTE: The torque specification for the inner seat
belt/rear seat back retaining bolts is 57 N´m (42 ft.
lbs.).
(4) Install rear seat cushion.
Fig. 5 Front Seat Cushion
1 ± FRONT SEAT CUSHION
Fig. 6 Rear Seat Back
1 ± REAR SEAT BACK
2 ± REAR OUTER RIGHT SEAT BELT
3 ± REAR INNER LEFT SEAT BELT
4 ± REAR INNER RIGHT SEAT BELT
23 - 10 BODYPL
REMOVAL AND INSTALLATION (Continued)
Page 1129 of 1285

BODY COMPONENTS
TABLE OF CONTENTS
page page
DESCRIPTION AND OPERATION
GRILLE................................13
HOOD.................................13
FRONT DOOR...........................14
SPLASH SHIELD.........................16
DIAGNOSIS AND TESTING
WATER LEAKS..........................18
WIND NOISE............................19
SERVICE PROCEDURES
HEAT STAKING..........................19
PLASTIC BODY PANEL REPAIR..............19
REMOVAL AND INSTALLATION
GRILLE................................23
HOOD LATCH...........................24
HOOD LATCH STRIKER....................24
HOOD RELEASE CABLE...................25
HOOD.................................26
HOOD SILENCER........................26
HOOD HINGE...........................26
COWL COVER...........................27
FRONT WHEELHOUSE SPLASH SHIELD......28
FENDER...............................28
EXTERIOR BADGEING ATTACHED WITH
DOUBLE SIDED FOAM TAPE..............28
EXTERIOR BADGEING/TAPE STRIPES
ATTACHED WITH ADHESIVES.............28
FRONT/REAR DOOR WINDOW CRANK........29
FRONT DOOR TRIM......................30
FRONT DOOR WATER DAM................30
DOOR OUTER BELT WEATHERSTRIP.........30
FRONT/REAR DOOR INNER BELT
WEATHERSTRIP........................32
FRONT DOOR GLASS RUN WEATHERSTRIP . . . 32
FRONT DOOR OUTSIDE HANDLE............33
DOOR LOCK CYLINDER...................33
FRONT DOOR LATCH.....................33
FRONT DOOR LATCH STRIKER.............34
FRONT VERTICAL GUIDE BAR..............34
FRONT DOOR GLASS.....................36
FRONT DOOR CHECK STRAP..............36
FRONT DOOR...........................36
FRONT DOOR HINGE.....................38
FRONT/REAR DOOR APPLIQUE.............38
SIDE VIEW MIRROR......................39
SIDE VIEW MIRROR TRIM BEZEL............39
DOOR UPPER SECONDARY WEATHERSTRIP . . 39
SILL SECONDARY WEATHERSTRIP..........40
REAR DOOR TRIM.......................40REAR DOOR WATER DAM.................40
REAR DOOR OUTSIDE HANDLE.............40
REAR DOOR LATCH......................41
REAR DOOR LATCH STRIKER..............43
REAR DOOR GLASS......................43
REAR DOOR WINDOW REGULATOR.........43
REAR DOOR GLASS RUN WEATHERSTRIP....43
REAR DOOR CHECK STRAP................45
REAR DOOR............................45
REAR DOOR HINGE......................45
FUEL FILL DOOR.........................46
DECKLID LATCH.........................47
DECKLID...............................47
DECKLID LIFT SPRINGS...................47
DECKLID LOCK CYLINDER.................48
DECKLID LATCH STRIKER.................48
DECKLID OPENING WEATHERSTRIP.........49
TRUNK CARPET.........................49
DECKLID COVER.........................50
ROOF RAIL WEATHERSTRIP................50
ROOF RAIL WEATHERSTRIP RETAINER
CHANNEL.............................50
B-PILLAR WEATHERSTRIP CHANNEL.........51
A-PILLAR TRIM..........................51
DOOR SILL TRIM.........................51
SIDE COWL TRIM........................52
B-PILLAR TRIM..........................52
UPPER QUARTER TRIM...................53
LOWER QUARTER TRIM...................53
FLOOR CONSOLE........................54
FRONT SEAT BELT BUCKLE................54
FRONT SEAT BELT RETRACTOR............54
FRONT SHOULDER BELT ADJUSTER.........54
REAR SEAT BELT BUCKLE.................55
REAR SEAT BELT RETRACTOR.............55
CARPET...............................56
SUN VISOR.............................56
HEADLINER.............................57
INSIDE REAR VIEW MIRROR...............57
REAR SHELF TRIM PANEL.................57
BODY VENT.............................58
ADJUSTMENTS
FRONT DOOR LATCH ADJUSTMENT.........58
REAR DOOR LATCH ADJUSTMENT..........58
SPECIFICATIONS
BODY LUBRICATION......................59
SPECIAL TOOLS
BODY.................................59
23 - 12 BODYPL