weight DODGE NEON 2000 Service User Guide

OPERATION
The Automatic Shutdown (ASD) relay supplies bat-
tery voltage to the fuel injectors, electronic ignition
coil and the heating elements in the oxygen sensors.
A buss bar in the Power Distribution Center (PDC)
supplies voltage to the solenoid side and contact side
of the relay. The fuse also protects the power circuit
for the fuel pump relay and pump. The fuse is
located in the PDC. Refer to the Wiring Diagrams for
circuit information.
The PCM controls the ASD relay by switching the
ground path for the solenoid side of the relay on and
off. The PCM turns the ground path off when the
ignition switch is in the Off position. When the igni-
tion switch is in On or Start, the PCM monitors the
crankshaft and camshaft position sensor signals to
determine engine speed and ignition timing (coil
dwell). If the PCM does not receive crankshaft and
camshaft position sensor signals when the ignition
switch is in the Run position, it will de-energize the
ASD relay.
CRANKSHAFT POSITION SENSORÐPCM
INPUT
DESCRIPTION
The crankshaft position sensor mounts to the
engine block behind the generator, just above the oil
filter (Fig. 4).
The PCM uses the Crankshaft Position sensor to
calculate the following:
²Engine RPM²TDC number 1 and 4
²Ignition coil synchronization
²Injector synchronization
²Camshaft-to-crankshaft misalignment (Timing
belt skipped 1 tooth or more diagnostic trouble code).
OPERATION
The Crankshaft Position (CKP) sensor is a Hall-ef-
fect sensor. The second crankshaft counterweight has
two sets of four timing reference notches including a
60 degree signature notch (Fig. 5).
Fig. 5 Timing Reference Notches
1 ± MACHINED NOTCHES
2 ± CRANKSHAFT POSITION SENSOR
Fig. 4 Crankshaft Position Sensor
1 ± CRANKSHAFT POSITION SENSOR
2 ± OIL FILTER
3 ± GENERATOR
PLIGNITION SYSTEM 8D - 3
DESCRIPTION AND OPERATION (Continued)

The PCM sends approximately 8 volts to the Hall-
effect sensor. This voltage is required to operate the
Hall-effect chip and the electronics inside the sensor.
A ground for the sensor is provided through the sen-
sor return circuit. The input to the PCM occurs on a
5 volt output reference circuit.
The notches generate pulses from high to low in
the crankshaft position sensor output voltage. When
a metal portion of the counterweight aligns with the
crankshaft position sensor, the sensor output voltage
goes low (less than 0.5 volts). When a notch aligns
with the sensor, voltage goes high (5.0 volts). As a
group of notches pass under the sensor, the output
voltage switches from low (metal) to high (notch)
then back to low.
If available, an oscilloscope can display the square
wave patterns of each voltage pulses. From the width
of the output voltage pulses, the PCM calculates
engine speed. The width of the pulses represent the
amount of time the output voltage stays high before
switching back to low. The period of time the sensor
output voltage stays high before switching back to
low is referred to as pulse width. The faster the
engine is operating, the smaller the pulse width on
the oscilloscope.
By counting the pulses and referencing the pulse
from the 60 degree signature notch, the PCM calcu-
lates crankshaft angle (position). In each group of
timing reference notches, the first notch represents
69 degrees before top dead center (BTDC). The sec-
ond notch represents 49 degrees BTDC. The third
notch represents 29 degrees. The last notch in each
set represents 9 degrees before top dead center
(TDC).
The timing reference notches are machined at 20É
increments. From the voltage pulse width the PCM
tells the difference between the timing reference
notches and the 60 degree signature notch. The 60
degree signature notch produces a longer pulse width
than the smaller timing reference notches. If the
camshaft position sensor input switches from high to
low when the 60 degree signature notch passes under
the crankshaft position sensor, the PCM knows cylin-
der number one is the next cylinder at TDC.CAMSHAFT POSITION SENSORÐPCM INPUT
DESCRIPTION
The camshaft position sensor attaches to the rear
of the cylinder head. The PCM determines fuel injec-
tion synchronization and cylinder identification from
inputs provided by the camshaft position sensor (Fig.
6) and crankshaft position sensor. From the two
inputs, the PCM determines crankshaft position.
OPERATION
The PCM sends approximately 8 volts to the hall
affect sensor. This voltage is required to operate the
hall effect chip and the electronics inside the sensor.
A ground for the sensor is provided through the sen-
sor return circuit. The input to the PCM occurs on a
5 volt output reference circuit.
A target magnet attaches to the rear of the cam-
shaft and indexes to the correct position. The target
magnet has four different poles arranged in an asym-
metrical pattern (Fig. 7). As the target magnet
rotates, the camshaft position sensor senses the
change in polarity (Fig. 8). The sensor output switch
switches from high (5.0 volts) to low (0.5 volts) as the
target magnet rotates. When the north pole of the
target magnet passes under the sensor, the output
switches high. The sensor output switches low when
the south pole of the target magnet passes under-
neath.
The sensor also acts as a thrust plate to control
camshaft endplay.
Fig. 6 Camshaft Position SensorÐSOHC
8D - 4 IGNITION SYSTEMPL
DESCRIPTION AND OPERATION (Continued)

HEADLAMP ALIGNMENT
TABLE OF CONTENTS
page page
DESCRIPTION AND OPERATION
HEADLAMP ALIGNMENT....................4
SERVICE PROCEDURES
HEADLAMP ALIGNMENT PREPARATION........4ADJUSTMENTS
HEADLAMP ADJUSTMENT USING
ALIGNMENT SCREEN....................4
FOG LAMP ALIGNMENT....................6
DESCRIPTION AND OPERATION
HEADLAMP ALIGNMENT
Headlamps and Fog Lamps should be aligned
using the screen method which is provided in this
section.The preferred headlamp alignment set-
ting is 0 for the left/right adjustment and 0 for
the up/down adjustment.
SERVICE PROCEDURES
HEADLAMP ALIGNMENT PREPARATION
(1) Verify headlamp dimmer switch and high beam
indicator operation.
(2) Inspect and correct damaged or defective com-
ponents that could interfere with proper headlamp
alignment.
(3) Verify proper tire inflation.
(4) Clean headlamp lenses.
(5) Verify that luggage area is not heavily loaded.
(6) Fuel tank should be FULL. Add 2.94 kg (6.5
lbs.) of weight over the fuel tank for each estimated
gallon of missing fuel.
ADJUSTMENTS
HEADLAMP ADJUSTMENT USING ALIGNMENT
SCREEN
ALIGNMENT SCREEN PREPARATION
(1) Position vehicle on a level surface perpendicu-
lar to a flat wall 7.62 meters (25 ft.) away from front
of headlamp lens.
(2) If necessary, tape a line on the floor 7.62
meters (25 ft.) away from and parallel to the wall
(Fig. 1).(3) From the floor up 1.27 meters (5 ft.), tape a
line on the wall at the center line of the vehicle.
Sight along the center line of the vehicle (from rear
of vehicle forward) to verify accuracy of the line
placement.
(4) Rock vehicle side-to-side three times to allow
suspension to stabilize.
(5) Jounce front suspension three times by pushing
downward on front bumper and releasing.
(6) A small dot is molded into each headlamp lens
signifying the center of the headlamp. Measure the
distance from the center of the headlamp to the floor.
Transfer measurement to the alignment screen (with
tape). Use this line for up/down adjustment refer-
ence.
(7) Measure distance from the center line of the
vehicle to the center of each headlamp being aligned.
Transfer measurements to screen (with tape) to each
side of vehicle center line. Use these lines for left/
right adjustment reference.
HEADLAMP ADJUSTMENT
The PL headlamp low beam pattern has a distinct
horizontal cutoff line which is used to visually align
the headlamps. A properly aimed headlamp will have
the horizontal cutoff line of the low beam pattern
centered on the low beam pattern centered on the
horizontal center of headlamp line. The side to side
left edge of the low beam hot spot should be located
75 mm (3 inches) to the left of the headlamp center
line (Fig. 1). The high beams on a vehicle with aero
headlamps cannot be aligned. The high beam pattern
should be correct when the low beams are aligned
properly.
To adjust headlamp alignment, rotate alignment
screws to achieve the specified low beam hot spot
pattern.
8L - 4 LAMPSPL

HEADLAMP ALIGNMENT
TABLE OF CONTENTS
page page
DESCRIPTION AND OPERATION
HEADLAMP ALIGNMENT....................2
SERVICE PROCEDURES
HEADLAMP ALIGNMENT PREPARATION........2ADJUSTMENTS
HEADLAMP ADJUSTMENT USING
ALIGNMENT SCREEN....................2
DESCRIPTION AND OPERATION
HEADLAMP ALIGNMENT
Headlamps can be aligned using the screen method
provided in this section. This method will require the
vehicle to be parked on a flat, level surface with a
minimum of 15 meters of working room in front of a
flat, level perpendicular wall or aiming.
Each headlamp has a focal point circle molded on
the lens directly in front of each headlamp bulb.
These focal point circles are used to set up lines on a
wall, or aiming board for visually aiming the head-
lamps.
The driving (high) beam location does not require
adjustment. It will be correct when the passing (low)
beam headlamps are aimed correctly.
SERVICE PROCEDURES
HEADLAMP ALIGNMENT PREPARATION
(1) Verify headlamp dimmer switch and high beam
indicator operation.
(2) Inspect and correct damaged or defective com-
ponents that could interfere with proper headlamp
alignment.
(3) Verify that the headlamp leveling switch is in
the ª0º position.
(4) Verify proper tire inflation.
(5) Clean the headlamp lenses.
(6) Verify that the luggage area is not heavily
loaded.
(7) Fuel tank should be FULL. Add 2.94 kg (6.5
lbs.) of weight over the fuel tank for each estimated
gallon of missing fuel.
ADJUSTMENTS
HEADLAMP ADJUSTMENT USING ALIGNMENT
SCREEN
ALIGNMENT SCREEN PREPARATION
(1) Position the vehicle on a level surface 10
meters in front of a level, flat wall or aiming board.
(2) Tape a vertical line on the wall extending 1
meter up from the floor, making sure this line is even
with the centerline of the vehicle (Fig. 1).
(3) Measure the cross-car distance between the
two headlamp focal point circles (1174mm). Transfer
half of this distance (587mm) to the left of the vehicle
centerline and tape another vertical line up from the
floor 1 meter (Fig. 1). Repeat for the right side of the
centerline.
(4) Measure the distance from the floor to the focal
point circle on the headlamp lens (635mm, but may
vary due to variations in tire size and vehicle suspen-
sion height). Transfer this measurement to the wall
and tape a horizontal line extending approximately 1
meter beyond each vertical focal point line (Fig. 1).
(5) Use these lines for left and right adjustment
reference.
HEADLAMP ADJUSTMENT
Horizontal Adjustment
The horizontal position of the passing (low) beam
pattern is adjusted by turning the T-15 Torx screw.
Located through the slot in the upper-crossmember
between the two attaching straps of the headlamp.
Vertical Adjustment
The vertical position of the passing (low) beam pat-
tern is adjusted by turning the Phillips screw on top
of the headlamp leveling motor. Located between the
headlamp housing and the upper-crossmember, just
inboard of the fender.
Adjust the passing (low) beam headlamp pat-
terns to the locations shown in the chart pro-
vided (Fig. 1).
8L - 2 LAMPSPL

will clean up a bore and maintain the required lim-
its.
(2) Deglazing of the cylinder walls may be done
using a cylinder surfacing hone, recommended tool
C-3501 or equivalent, equipped with 280 grit stones,
if the cylinder bore is straight and round. 20±60
strokes depending on the bore condition, will be suf-
ficient to provide a satisfactory surface. Inspect cyl-
inder walls after each 20 strokes, using a light
honing oil.Do not use engine or transmission oil,
mineral spirits or kerosene.
(3) Honing should be done by moving the hone up
and down fast enough to get a cross-hatch pattern.
When hone marksintersectat 50-60 degrees, the
cross hatch angle is most satisfactory for proper seat-
ing of rings (Fig. 4).
(4) A controlled hone motor speed between
200±300 RPM is necessary to obtain the proper cross-
hatch angle. The number of up and down strokes per
minute can be regulated to get the desired 50±60
degree angle. Faster up and down strokes increase
the cross-hatch angle.
(5) After honing, it is necessary that the block be
cleaned again to remove all traces of abrasive.
CAUTION: Ensure all abrasives are removed from
engine parts after honing. It is recommended that a
solution of soap and hot water be used with a
brush and the parts then thoroughly dried. The bore
can be considered clean when it can be wiped
clean with a white cloth and cloth remains clean.
Oil the bores after cleaning to prevent rusting.MEASURING WITH PLASTIGAGE
PLASTIGAGE METHOD
Engine crankshaft bearing clearances can be deter-
mined by use of Plastigage or equivalent. The follow-
ing is the recommended procedure for the use of
Plastigage:
NOTE: The total clearance of the main bearings can
only be determined by removing the weight of the
crankshaft. This can be accomplished by either of
two methods:
PREFERRED METHOD
Shim the bearings adjacent to the bearing to be
checked in order to remove the clearance between
upper bearing shell and the crankshaft. This can be
accomplished by placing a minimum of 0.254 mm
(0.010 in.) shim (e. g. cardboard, matchbook cover,
etc.) between the bearing shell and the bearing cap
on the adjacent bearings and tightening bolts to
14-20 N´m (10-15 ft. lbs.). The number of main bear-
ing will vary from engine to engine.
ENGINE WITH 5 MAIN BEARINGS
²When checking #1 main bearing shim #2 main
bearing.
²When checking #2 main bearing shim #1 & 3
main bearing.
²When checking #3 main bearing shim #2 & 4
main bearing.
²When checking #4 main bearing shim #3 & 5
main bearing.
²When checking #5 main bearing shim #4 main
bearing.
ENGINE WITH 4 MAIN BEARING
²When checking #1 main bearing shim # 2 main
bearing.
Fig. 4 Cylinder Bore Cross-Hatch Pattern
1 ± CROSS-HATCH PATTERN
Fig. 5 Plastigage Placed in Lower Shell
1 ± PLASTIGAGE
9 - 4 ENGINEPL
GENERAL INFORMATION (Continued)

²When checking #2 main bearing shim #1 & #3
main bearing.
²When checking #3 main bearing shim #2 & #4
main bearing.
²When checking #4 main bearing shim #3 main
bearing.
NOTE: REMOVE ALL SHIMS BEFORE REASSEM-
BLING ENGINE
ALTERNATIVE METHOD
The weight of the crankshaft can be supported by a
jack under the counterweight adjacent to the bearing
being checked.
PLASTIGAGE PROCEDURE
(1) Remove oil film from surface to be checked.
Plastigage is soluble in oil.
(2) Place a piece of Plastigage across the entire
width of the bearing shell in the cap approximately
6.35 mm (1/4 in.) off center and away from the oil
holes (Fig. 5). (In addition, suspected areas can be
checked by placing the Plastigage in the suspected
area). Torque the bearing cap bolts of the bearing
being checked to the proper specifications.
(3) Remove the bearing cap and compare the width
of the flattened Plastigage (Fig. 6) with the metric
scale provided on the package. Locate the band clos-
est to the same width. This band shows the amount
of clearance in thousandths of a millimeter. Differ-
ences in readings between the ends indicate the
amount of taper present. Record all readings taken.
Refer to Engine Specifications.Plastigage gener-
ally is accompanied by two scales. One scale is
in inches, the other is a metric scale.
NOTE: Plastigage is available in a variety of clear-
ance ranges. Use the most appropriate range for
the specifications you are checking.
CONNECTING ROD BEARING CLEARANCE
Engine connecting rod bearing clearances can be
determined by use of Plastigage or equivalent. Thefollowing is the recommended procedure for the use
of Plastigage:
(1) Rotate the crankshaft until the connecting rod
to be checked is at the bottom of its stroke.
(2) Remove oil film from surface to be checked.
Plastigage is soluble in oil.
(3) Place a piece of Plastigage across the entire
width of the bearing shell in the bearing cap approx-
imately 6.35 mm (1/4 in.) off center and away from
the oil hole (Fig. 5). In addition, suspect areas can be
checked by placing plastigage in that area.
(4) Assemble the rod cap with Plastigage in place.
Tighten the rod cap to the specified torque.Do not
rotate the crankshaft while assembling the cap
or the Plastigage may be smeared, giving inac-
curate results.
(5) Remove the bearing cap and compare the width
of the flattened Plastigage (Fig. 6) with the scale pro-
vided on the package. Locate the band closest to the
same width. This band indicates the amount of oil
clearance. Differences in readings between the ends
indicate the amount of taper present. Record all
readings taken. Refer to Engine Specifications.Plas-
tigage generally is accompanied by two scales.
One scale is in inches, the other is a metric
scale. If the bearing clearance exceeds wear
limit specification, replace the bearing.
REPAIR OF DAMAGED OR WORN THREADS
Damaged or worn threads (including aluminum
head spark plug threads) can be repaired. Essen-
tially, this repair consists of drilling out worn or
damaged threads, tapping the hole with a special
Heli-Coil Tap, (or equivalent) and installing an insert
into the tapped hole. This brings the hole back to its
original thread size.
CAUTION: Be sure that the tapped holes maintain
the original centerline.
Heli-Coil tools and inserts are readily available
from automotive parts jobbers.
HYDROSTATIC LOCKED ENGINE
When an engine is suspected to be hydrostatically
locked, regardless of what caused the problem, the
following steps should be used.
CAUTION: DO NOT use starter motor to rotate the
engine, severe damage may occur.
(1) Inspect air cleaner, induction system and
intake manifold to insure system is dry and clear of
foreign material.
(2) Remove negative battery cable.
(3) Place a shop towel around the spark plugs
when removing them from the engine. This will catch
Fig. 6 Clearance Measurement
PLENGINE 9 - 5
GENERAL INFORMATION (Continued)

2.0L SOHC ENGINE
TABLE OF CONTENTS
page page
DESCRIPTION AND OPERATION
ENGINE IDENTIFICATION..................15
ENGINE COMPONENTS...................15
ENGINE LUBRICATION SYSTEM.............17
DIAGNOSIS AND TESTING
CHECKING ENGINE OIL PRESSURE..........18
SERVICE PROCEDURES
CYLINDER BORE AND PISTON SIZING........18
FITTING PISTON RINGS...................19
FITTING CONNECTING RODS...............19
FITTING CRANKSHAFT BEARINGS...........19
CRANKSHAFT END PLAY..................20
REMOVAL AND INSTALLATION
TORQUE STRUTS........................20
ENGINE MOUNTÐLEFT...................21
ENGINE MOUNTÐRIGHT..................23
ENGINE MOUNT BRACKETÐRIGHT..........24
STRUCTURAL COLLAR....................25
ENGINE ASSEMBLY.......................25
INTAKE MANIFOLD.......................28
EXHAUST MANIFOLD.....................30
CYLINDER HEAD COVER..................31
SPARK PLUG TUBE SEALS.................32
SPARK PLUG TUBE.......................33
CAMSHAFT.............................33
ROCKER ARM/HYDRAULIC LASH ADJUSTER . . . 34
VALVE SEALS AND SPRINGSÐIN VEHICLE....36
CYLINDER HEAD.........................37
CRANKSHAFT DAMPER...................40
TIMING BELT COVERS....................41TIMING BELT............................43
TIMING BELT TENSIONER..................46
CAMSHAFT OIL SEAL.....................46
OILPAN................................47
CRANKSHAFT OIL SEALÐFRONT............48
CRANKSHAFT OIL SEALÐREAR.............50
DRIVE PLATE...........................51
CRANKSHAFT...........................52
OIL FILTER ADAPTER.....................55
OILFILTER .............................55
OIL PUMP..............................55
PISTON AND CONNECTING ROD............57
DISASSEMBLY AND ASSEMBLY
OIL PUMP..............................60
VALVE SERVICE WITH THE CYLINDER HEAD
REMOVED............................60
CLEANING AND INSPECTION
INTAKE MANIFOLD.......................63
EXHAUST MANIFOLD.....................63
CYLINDER HEAD AND CAMSHAFT
JOURNALS............................63
OIL PUMP..............................64
CYLINDER BLOCK AND BORE..............65
ADJUSTMENTS
ENGINE TORQUE STRUT ADJUSTMENT......66
SPECIFICATIONS
2.0L SOHC ENGINE.......................68
TORQUE...............................71
SPECIAL TOOLS
2.0L SOHC ENGINE.......................72
DESCRIPTION AND OPERATION
ENGINE IDENTIFICATION
The engine identification number is located on the
left rear of the cylinder block bedplate (Fig. 1).
ENGINE COMPONENTS
CYLINDER BLOCK AND BEDPLATE ASSEMBLY
A partial open deck is used for cooling and weight
reduction with water pump molded into the block.
Nominal wall thickness is 4 mm. The bedplate incor-
porates main bearing caps. The rear oil seal retainer
is integral with the block.
Fig. 1 Engine Identification 2.0L
1 ± ENGINE IDENTIFICATION LOCATION
PL2.0L SOHC ENGINE 9 - 15

CRANKSHAFT
A nodular cast iron crankshaft is used. The engine
has five main bearings. The number three main is
flanged to control thrust. The mains and connecting
rod journals have undercut fillet radiuses that are
deep rolled for added strength. To optimize bearing
loading, eight counterweights are used. Hydrody-
namic seals provide end sealing, where the crank-
shaft exits the block. Anaerobic gasket material is
used for parting line sealing. A sintered iron timing
belt sprocket is mounted on the crankshaft nose. This
sprocket transmits crankshaft movement, via timing
belt to the camshaft sprocket providing timed valve
actuation.
PISTONS
The engineDOES NOThave provision for a free
wheeling valve train. Non free wheeling valve train
means, in the event of a broken timing belt pistons
will contact the valves. The engine uses pressed-in
piston pins to attach forged powdered metal connect-
ing rods. The connecting rods are a cracked cap
design and are not repairable. Hex head cap screw
are used to provide alignment and durability in the
assembly. Pistons and connecting rods are serviced as
an assembly.
PISTON RINGS
The piston rings include a molybdenum faced top
ring for reliable compression sealing and a taper
faced intermediate ring for additional cylinder pres-
sure control. Oil Control Ring Package consist of two
steel rails and an expander spacer.
CYLINDER HEAD
The aluminum cylinder head features a Single
Over Head Camshaft (SOHC), four-valves per cylin-
der, cross flow design. The valves are arranged in
two inline banks, with the two intake per cylinder
facing toward the radiator. The exhaust valves facing
toward the dash panel. Rocker arm shafts mount
directly to the cylinder head. It incorporates powder
metal valve guides and seats. The hollow rocker arm
shafts supplies oil to the hydraulic lash adjusters,
camshaft and valve mechanisms.
CAMSHAFT
The nodular iron camshaft has five bearing jour-
nals and three cam lobes per cylinder. Provision for a
cam position sensor is provided on the camshaft at
the rear of cylinder head which also acts as thrust
plate. A hydrodynamic oil seal is used for oil control
at the front of the camshaft.
VALVES
Four valves per cylinder are actuated by roller
rocker arms/hydraulic lash adjusters assemblies
which pivot on rocker arm shafts. All valves have
chrome plated valve stems. Viton rubber valve stem
seals are integral with spring seats. Valve springs,
spring retainers, and locks are conventional design.
INTAKE MANIFOLD
The intake manifold is a molded plastic composi-
tion, attached to the cylinder head with five fasten-
ers. This long branch design enhances low and mid-
range torque.
EXHAUST MANIFOLD
The exhaust manifold is made of nodular cast iron
for strength and high temperatures. Exhaust gasses
exit the manifold into an articulated joint connection
and exhaust pipe.
COMPONENT REPLACEMENT
If any of the following parts have been changed or
replaced:
²Camshaft
²Camshaft Position Sensor
²Camshaft Position Sensor Target Magnet
²Cylinder Block
²Cylinder Head
²Water Pump
²Powertrain Control Module (PCM)
²Timing Belt and Timing Belt Tensioner
The camshaft and crankshaft timing relearn proce-
dure must be performed. Refer to the component
Removal and Installation procedure in this section.
9 - 16 2.0L SOHC ENGINEPL
DESCRIPTION AND OPERATION (Continued)

(4) Discharge air conditioning system, if equipped.
Refer to Group 24, Heating and Air Conditioning for
procedure.
(5) Disconnect the following: air intake duct at
intake manifold, throttle cables, electrical connectors
from throttle body and air cleaner housing.
(6) Remove air cleaner housing assembly.
(7) Remove upper radiator hose and fan module.
Refer to Group 7, Cooling System for procedure.
(8) Remove lower radiator hose.
(9) Disconnect automatic transmission cooler lines
and plug, if equipped.
(10) Disconnect shift linkage, electrical connectors,
and clutch cable, if equipped with manual transaxle.
(11) Disconnect engine wiring harness.
(12) Disconnect positive cable from Power Distri-
bution Center (PDC) and ground wire from vehicle
body.
(13) Disconnect ground wire from the vehicle body-
to-engine at the right side strut tower.
(14) Disconnect heater hoses.
(15) Disconnect vacuum hose from brake booster.
(16) Disconnect coolant reserve/recovery hose.
(17) Remove accessory drive belts. Refer to Group
7, Cooling System for procedure.
(18) Remove power steering pump and reservoir
and set them aside.
(19) Hoist vehicle and remove right inner splash
shield.
(20) Drain engine oil.
(21) Remove front wheels.
(22) Remove axle shafts. Refer to Group 3, Differ-
ential and Driveline for procedure.
(23) Disconnect exhaust system from manifold.
(24) Disconnect the downstream oxygen sensor
connector.
(25) Remove lower engine torque strut.
(26) Remove structural collar. Refer to procedure
in this section.
(27) Lower vehicle and remove A/C compressor.
(28) Raise vehicle enough to allow engine dolly
and cradle, Special Tools 6135 and 6710 to be
installed under vehicle.
(29) Loosen engine support posts to allow move-
ment for positioning onto engine locating holes and
flange on the engine bedplate. Lower vehicle and
position cradle until the engine is resting on support
posts (Fig. 26). Tighten mounts to cradle frame. This
will keep support posts from moving when removing
or installing engine and transmission.
(30) Install safety straps around the engine to cra-
dle (Fig. 26). Tighten straps and lock them into posi-
tion.
WARNING: Safety straps MUST be used.(31) Raise vehicle enough to see if straps are tight
enough to hold cradle assembly to engine.
(32) Lower vehicle so weight of the engine and
transmission ONLY is on the cradle assembly.
(33) Remove the upper engine torque strut.
(34) Remove right and left engine and transaxle
mount through bolts (Fig. 24) and (Fig. 25).
(35) Raise vehicle slowly until body is approxi-
mately 15 cm (6 in.) above normal engine mounting
locations.
(36) Remove generator, lower bracket, and upper
mounting bolt.
(37) Continue raising vehicle slowly until engine/
transaxle assembly clears engine compartment. It
may be necessary to move the engine/transmission
assembly with the cradle to allow for removal around
body flanges.
INSTALLATION
(1) Position engine and transmission assembly
under vehicle and slowly lower the vehicle over the
engine/transaxle assembly until vehicle is within 15
cm (6 in.) of engine mounting locations.
(2) Install generator, lower bracket, and adjusting
bolt.
(3) Continue lowering vehicle until engine/tran-
saxle aligns to mounting locations. Install mounting
bolts at the right and left engine/transaxle mounts
(Fig. 24) and (Fig. 25). Tighten bolts to 118 N´m (87
ft. lbs.).
(4) Install upper engine torque strut. Refer to pro-
cedure in this section.
(5) Remove safety straps from engine/transaxle
assembly. Slowly raise vehicle enough to remove the
engine dolly and cradle.
(6) Install axle shafts. Refer to Group 3, Differen-
tial and Driveline for procedure.
(7) Install structural collar. Refer to procedure in
this section tightening sequence.
Fig. 24 Right Mount Through Bolt
1 ± BOLT
2 ± RIGHT ENGINE MOUNT
3 ± ENGINE MOUNT BRACKET
9 - 26 2.0L SOHC ENGINEPL
REMOVAL AND INSTALLATION (Continued)

(2) Install crankshaft damper bolt. Using Special
Tool 6847 and a torque wrench, tighten bolt to 136
N´m (100 ft. lbs.) (Fig. 63).
(3) Install accessory drive belts. Refer to Group 7,
Cooling System for procedure.
(4) Raise vehicle on hoist and install right inner
splash shield.
TIMING BELT COVERS
FRONT TIMING BELT COVER
REMOVAL
(1) Remove accessory drive belts. Refer to Group 7,
Cooling System for procedure.
(2) Remove crankshaft damper. Refer to procedure
in this section.
(3) Remove lower and upper torque struts. Refer to
procedure in this section.
(4) Position a jack under engine. Raise jack
enough to support engine weight.
(5) Remove right engine mount to engine mount
bracket bolt.
(6) Remove power steering pump assembly and set
aside.
(7) Remove right engine mount bracket.
(8) Remove front timing belt cover (Fig. 64).INSTALLATION
(1) Install front timing belt cover and tighten bolts
to 12 N´m (105 in. lbs.).
(2) Install front engine mount bracket.
(3) Install right side engine mount to engine
mount bracket bolt.
(4) Remove jack from under engine.
(5) Install power steering pump assembly.
(6) Install upper and lower engine torque struts.
Refer to procedure in this section.
(7) Install crankshaft damper. Refer to procedure
in this section.
(8) Install accessory drive belts. Refer to Group 7,
Cooling System Accessory Drive section for proce-
dure.REAR TIMING BELT COVER
REMOVAL
(1) Remove front timing belt cover following proce-
dure in this section.
(2) Remove timing belt and timing belt tensioner.
Refer to procedures in this section.
(3) Hold camshaft sprocket with Special Tools
C-4687 and modified Adaptor C-4687-1 (Fig. 66),
while removing attaching bolt.
(4) Remove camshaft sprocket.
(5) Remove rear timing cover attaching bolts (Fig.
65).
(6) Remove rear timing cover (Fig. 65).
Fig. 63 Crankshaft Damper Bolt Tightening
1 ± SPECIAL TOOL 6847
2 ± CRANKSHAFT DAMPER
Fig. 64 Front Timing Belt Cover
1 ± ACCESS PLUG
2 ± BOLTS
PL2.0L SOHC ENGINE 9 - 41
REMOVAL AND INSTALLATION (Continued)