8A
- 4
ELECTRICAL
•
IGNITION
OFF
DRAW
(IOD)
Ignition off draw refers to power being drained
from the battery with the ignition turned off. A nor
mal vehicle electrical system will draw from 5 to 20
milliamps. A vehicle that has not been operated for
an extended period of time (approximately 20 days)
may discharge the battery to an inadequate level.
Battery drain should not exceed approximately 20
MA (20 milliamps = 0.020 amps). The 20 MA are needed to supply PCM memory,
digital clock memory, and ETR (electronically tuned
radio) memory. Excessive battery drain is caused by items left
turned on, internally shorted generator, or intermit
tent short in wiring.
If the IOD is excessive (over 20 milliamperes), the
defect must be found and corrected before replacing a
battery. In most cases the battery can be charged and returned to service.
TEST PROCEDURE Testing for higher amperage IOD must be per
formed first to prevent damage to most milliamp
meters.
Verify that all electrical accessories are OFF. Turn
off all lights, remove ignition key, and close all
doors.
If the vehicle is equipped with electronic acces
sories (illuminated entry, high line radio), allow the
systems to automatically shut off (time out), up to 3
minutes.
(1) After determining that the underhood lamp is
operating properly then disconnect bulb. (2) Disconnect negative cable from battery.
(3) Connect a typical 12 volt test light (low watt
age bulb) between the negative cable clamp and the
battery negative terminal. The test light may light brightly for up to 3 min
utes or may not light at all (depending on the elec
trical equipment). The term brightly being used
throughout the following tests, implies the bright ness of the test light will be the same as if it were
connected across the battery.
The test light must be securely clamped to the neg
ative cable and battery terminal. If the test light be
comes disconnected during any of the IOD test, the electronic timer function will be activated and all
tests must be repeated.
(4) After 3 minutes, the test light should turn OFF
or be DIMLY lit (depending on the electrical equip
ment).
If the test light remains brightly lit do not
disconnect it. Remove each fuse or circuit breaker (refer to Group 8 - Wiring Diagrams) until test light
is either OFF or DIMLY lit. This will eliminate the
higher amperage draw.
If test light is still bright after disconnecting each
fuse and circuit breaker, disconnect the wiring har ness from the generator. Refer to Generator Testing
in this group. Do not disconnect the test light. After higher amperage IOD has been corrected, low
amperage IOD may be checked.
It is now safe to install milliamp meter to check for
low amperage IOD.
(5) With test light still connected, securely clamp
an ammeter between battery negative terminal and
negative battery cable.
If the test light or the milliamp meter circuit is
broken the various timer circuits will start. Do
not open any doors or turn on any electrical ac cessories with the test light disconnected or the
meter may be damaged.
(6) Disconnect test light. The current draw should
not exceed 0.020 amp. If it exceeds 20 milliamps iso
late each circuit by removing circuit breakers and
fuses.
The meter reading drops once the high current
problem is found. Repair this section of the circuit,
whether it is a wiring short or component failure.
BATTERY
OPEN CIRCUIT VOLTAGE TEST
A battery voltage (no load) test will indicate the
state of charge of a battery that will pass the Battery
Load Test described in this section. Before proceed
ing with this test or the Battery Load Test the
battery must be completely charged as de scribed in Battery Charging in this section. If a battery has a no load voltage reading of 12.4
volts or greater but will not endure a load test, it is
defective and should be replaced. Refer to Group 8B,
Battery/Starter Service for instructions. To test bat
tery no load voltage, perform the following operation: (1) Before measuring open circuit voltage, the sur
face charge must be removed from plates. Turn head lights on for 15 seconds then allow up to 5 minutes
for voltage to stabilize. (2) Remove both battery cables, negative first.
(3) Using a voltmeter connected to the battery
posts,
see instructions provided with voltmeter, mea sure open circuit voltage (Fig. 6). This voltage reading will indicate state of charge,
but will not reveal cranking capacity. Refer to Bat
tery Open Circuit Voltage chart.
BATTERY OPEN CIRCUIT VOLTAGE
Open
Circuit
Volts
Percent
Chang©
11.7
volts
or
less
0%
12.0 25%
12.2 50%
12.4 75%
12.6
or more 100%
918A-3
•
ELECTRICAL
8A - 13 GENERATOR TEST PROCEDURES ON
VEHICLE
INDEX
page
Current
Output
Test
......................
14
Diagnostic Procedures
13
General
Information
13
Generator
Output
Wire Resistance Test
.......
13
page
How
to
Use
Malfunction
Indicator
(Check Engine) Lamp
for
Fault
Codes
17
Operational Check
with
Voltmeter
............
13
Using
On-Board Diagnostic System
15
GENERAL
INFORMATION
The generator
is
belt-driven
by the
engine.
All en
gines
use
serpentine drive. The amount
of DC
current produced
by the
gener
ator
is
controlled
by the
Powertrain Control Module (PCM).
All vehicles
are
equipped with
On
Board Diagnos
tics (OBD).
All OBD
sensing systems
are
monitored
by
the PCM. The PCM
will store
in
electronic mem ory
any
detectable failure within
the
monitored cir
cuits.
Refer
to
USING ON-BOARD DIAGNOSTIC SYSTEM
in
this group
for
more information.
OPERATIONAL CHECK
WITH
VOLTMETER
When
the
ignition switch
is
turned
to the RUN po
sition, battery potential will register
on the
voltme
ter. During engine cranking
a
lower voltage will appear
on the
meter. With
the
engine running,
a
voltage reading higher than
the
first reading (igni
tion
in RUN)
should register.
DIAGNOSTIC PROCEDURES
If
the
indicator does
not
operate properly,
or if an
undercharged
or
overcharged battery condition
oc
curs,
the
following procedures
may be
used
to
diag
nose
the
charging system. Remember that
an
undercharged battery
is
often
caused
by:
• accessories being left
on
overnight
•
or by a
defective switch which allows
a
bulb, such
as a
trunk
or
glove
box
light,
to
stay
on
(refer
to
Ignition
Off
Draw).
WISUAL
INSPECTION
• Inspect condition
of
battery cable terminals, bat
tery posts, connections
at
engine block, starter motor solenoid
and
relay. They should
be
clean
and
tight.
Repair
as
required.
• Inspect
all
fuses
in the
fuse block
for
tightness
in
receptacles. They should
be
properly installed
and
tight. Repair
or
replace
as
required.
• Inspect generator mounting bolts
for
tightness.
Re
place
or
torque bolt
as
required (refer
to
Torque Specifications).
• Inspect generator drive belt condition
and
tension.
Tension
or
replace belt
as
required. Refer
to
Belt
Tension Specifications. • Inspect connection
at
generator
B+
output.
It
should
be
clean
and
tight. Repair
as
required.
GENERATOR
OUTPUT
WIRE RESISTANCE TEST
(FIG.
1)
Generator output wire resistance test will show
amount
of
voltage drop across generator output wire
between generator
BAT
terminal
and
battery posi tive post.
PREPARATION
(1) Before starting test make sure vehicle
has a
fully charged battery. Test
and
procedures
on how to
check
for a
fully charged battery
are
shown
in
Bat
tery section
of
this Group.
(2) Turn
OFF
ignition switch.
(3)
Disconnect negative cable from battery.
(4)
Disconnect generator output wire from genera
tor output Battery terminal. (5) Connect
a 0-150
ampere scale
D.C.
ammeter
in
series between generator
BAT
terminal
and
discon
nected generator output wire. Connect Positive lead
to generator
BAT
terminal
and
Negative lead
to
dis connected generator output wire. (6) Connect Positive lead
of a
test voltmeter
(Range
0-18
volts minimum)
to
disconnected genera
tor output wire. Connect negative lead
of
test voltme
ter
to
battery positive cable
at
positive post. (7) Connect
one end of a
Jumper Wire
to
ground
and with other
end
probe green
K20
lead wire
at
back
of
generator
(Fig. 1).
(This will generate
a
fault
code).
CAUTION:
Do not
connect blue
A142
lead
of
wiring
to ground. Refer
to
Group
8W
-
Wiring Diagrams
for
more information.
(8) Connect
an
engine tachometer
and
connect neg
ative cable
to
battery.
(9) Connect
a
variable carbon pile rheostat
be
tween battery terminals.
Be
sure carbon pile
is in
"Open"
or "Off
position before connecting leads.
See
Battery Section, Load Testing
for
instructions.
TEST
(1) Start engine. Immediately after starting,
re
duce engine speed
to
idle.
•
INSTRUMENT PANEL
AND
GAUGES
8E - 19
MESSAGE
CENTER
PRINTED CIRCUIT BOARD
J918E-33
Fig.
5
Message
Center Printed Circuit
Board—Manual
Transmission
LOW FUEL MODULE
>
PRINTED CIRCUIT BOARD
J918E-34
Fig.
6
Message
Center Printed Circuit
Board—Diesel
(5) Remove overdrive lockout switch from module.
INSTALLATION
(1) Install overdrive lockout switch into module.
(2) Position module on bezel and install screws and
clip.
(3) Connect lockout switch and message center
connectors.
(4) Install instrument cluster bezel to panel.
(5) Install map lamp.
FUSE
BLOCK AND
FLASHERS
FUSE
BLOCK
The fuse block is located directly below the steer
ing column, on the lower steering column cover.
REMOVAL
Push fuse block locking tab on column cover down
ward and lower fuse block. The following components
plug into the fuse block.
• Fuses. • 30 amp circuit breakers.
• Turn signal flasher. • Horn relay.
• Hazard Warning Flasher.
INSTALLATION
(1) Position fuse block to steering column cover. (2) Push locking tab to lock fuse block in position.
HOOD
RELEASE
REMOVAL
(1) Disengage cable from hood latch in engine com
partment. (2) Remove 4 screws holding handle assembly to
instrument panel.
(3) Remove assembly by pulling cable rearward
through dash panel grommet.
INSTALLATION
(1) Feed cable assembly forward through dash
panel grommet.
(2) Mount handle assembly to instrument panel
with four screws.
(3) Connect cable to hood latch.
FOUR
WHEEL
DRIVE
INDICATOR
REMOVAL
(1) Remove map lamp.
(2) Remove cluster bezel (refer to Cluster Bezel Re
moval).
(3) Remove 2 screws and remove indicator from be
zel (Fig. 7).
o
J928E-48
Fig.
7
Four
Wheel
Drive Indicator
Bezel
•
LAMPS
LAMPS
8L - 1
CONTENTS
page page
BULB
APPLICATION 11 EXTERIOR
LAMPS
SERVICE
PROCEDURES
... 3
EXTERIOR
LAMPS
1 INTERIOR
LAMPS
10
EXTERIOR LAMPS
GENERAL
INFORMATION Each vehicle is equipped with various lamp assem
blies.
A good ground is necessary for proper lighting operation. When changing lamp bulbs check the socket for
corrosion. Clean corrosion with a wire brush. Coat
the inside of the socket lightly with Mopar® Multi- Purpose Grease or equivalent.
DIAGNOSTIC
PROCEDURES
Always begin any diagnosis by testing all of the
fuses and circuit breakers in the system. Refer to Group 8W, Wiring Diagrams. Conventional and halogen headlamps are inter
changeable. It is recommended that they not be in
termixed on a given vehicle.
MULTI-FUNCTION
SWITCH TESTING
PROCEDURES
The multi-function switch contains electrical cir
cuitry for:
• Headlamp Dimmer Switch
• Passing Lights
• Turn Signals
• Hazard Warning • Windshield Wiper
• Pulse Wiper
• Windshield Washer
HEADLAMPS
HIM
ENGINE
IDLING
OR
IGNITION
OFF
TEST CHARGING
SYSTEM
HEADLAMP
DIAGNOSIS
SEALED
BEAM
OR
BULB
BURNS
OUT
FREQUENTLY
][
TEST CHARGING SYSTEM
HEADLAMPS
DIM
ENGINE
RUNNING
ABOVE
IDLE
][
TEST CHARGING SYSTEM
HEADLAMPS
RANDOM
FLASH
[
HEADLAMPS
WILL
NOT
LIGHT
POORLY GROUNDED HEADLAMP CIRCUIT
LOOSE
CONNECTION
IN HEADLAMP CIRCUIT
HIGH RESISTANCE IN HEADLAMP CIRCUIT
LOOSE
CONNECTION
IN HEADLAMP CIRCUIT HIGH RESISTANCE
IN HEADLAMP CIRCUIT
LOOSE
CONNECTION
IN HEADLAMP CIRCUIT OPEN OR CORRODED
CONTACT
IN
HEADLAMP SWITCH
CRACKED
LENS ON HALOGEN SEALED BEAM ONLY
FAULTY
SEALED
BEAMS
OR BULBS OPEN OR CORRODED
CONTACT IN DIMMER SWITCH
FAULTY
SEALED
BEAMS
OR BULBS
FAULTY
SEALED
BEAMS
OR BULBS
RR8LD21
-
CHIME/BUZZER WARNING SYSTEMS
8U - 1
CHIME/BUZZER
WARNING SYSTEMS
CONTENTS
page
DIAGNOSIS
GENERAL
INFORMATION
page
1
KEY-IN SWITCH REPLACEMENT
3
1
OPERATION
1
GENERAL
INFORMATION
The buzzer module is located to the right of the
steering column (Fig. 1). The buzzer sounds an audi
ble warning tone in any of the following conditions: • Vehicle lights are ON when the driver's door is
opened.
• The key is in the ignition and the driver's door is
open. • The ignition is switched ON and the driver's seat
belt is not buckled. Buzzer will quit after 4 to 8 sec
onds.
In addition to the buzzer, a seat belt light in
dicator turns on as a reminder to fasten seat belt.
BUZZER
MODULE
INTERMITTENT
WIPE MODULE
Fig, 1 Buzzer Module Location
OPERATION
Battery voltage for module operation is supplied to
two pins. Battery voltage is present at pin 7 at all
times (Figs. 2 and 3). Pin 1 receives voltage when
the ignition switch is turned ON.
SEA T BELT WARNING To sound the seat belt warning, the module needs:
• battery voltage at the ignition switch input (Pin 1)
• a ground at the seat belt switch.
• a ground at Pin 3 to activate the timer. This occurs when the seat belt switch is closed be
cause the driver's seat belt is not buckled. The "fas
ten belt" light will also turn on along with the
warning sound. KEY IN IGNITION
To sound the "key in ignition" alarm, the module
needs:
• the ignition key warning switch must be closed
• the driver's door jamb switch must be closed. These conditions ground pin 6 of the module. These
switches are closed when the driver's door is open
and the key is in the ignition.
LIGHTS ON To sound the "lights on" warning, the module
needs:
• the headlamp switch must be closed
*> the driver's door jamb switch must be closed. These conditions ground pin 6 of the module. These
switches are closed when the driver's door is open
and the headlamp switch is on.
DIAGNOSIS
If the buzzer unit does not operate as described,
check the two fuses for pins 1 and 7 (Figs. 2, 3 and 4) and replace as required. If the fuses are not defec
tive,
perform the following tests to determine if the
problem is in the module or in the wiring. Using a flat blade screwdriver, release the locking plastic clip
while carefully pulling out the module. Plug in a known good module and check its operation. If the
problem is not corrected by replacing the module, re move the module and continue as follows:
VOLTAGE TESTS Ignition in run, measure between the following
pins and vehicle ground.
• Measure voltage at buzzer module connector pin 1.
Meter should read battery voltage. If not, repair open
to ignition switch.
Turn ignition off and remove key from igni
tion.
• Measure voltage at buzzer module connector pin 7.
Meter should read battery voltage. If not, repair open
to fuse. Battery voltage is present at Pin 7 at all
times regardless of key position.
•
WIRING DIAGRAMS
8W
- 1
CONTENTS
page page
COMPONENT IDENTIFICATION
.............
9
SPLICE LOCATIONS
29
GENERAL
INFORMATION
1
WIRING DIAGRAMS AD-BODY
37
GENERAL
INFORMATION
INDEX
page
Circuit
Identification
2
Component
Identification
3
Connectors
3
Fusible Links
3
Harness
Repair
3
Locating
A
System
or
Component
2
page
Secondary
Ignition
Wiring
1
Splice Locations
3
Symbols
and
Fuses
5
Troubleshooting
Wiring
Problems
3
Wire Code
Identification
2
Wiring
Diagram Sheets
and
Indexes
1
The wiring diagrams contain
the
latest information
available
at
time
of
publication. Throughout
out
this
group references
may
be
made
to a
particular vehicle
by letter
or
number designation.
A
chart showing
the
breakdown
of
these designations
is
included
in the
Introduction Section
of
this service manual.
SECONDARY
IGNITION WIRING
Secondary ignition wiring
is
shown
in
Figures
1
and 2.
For
information
on
ignition systems
or
distrib
utor operation refer
to
Group
8D
Ignition Systems.
SPARK
PLUGS
RIGHT
BANK
3.9L
SIX-CYLINDER
ENGINE
DISTRIBUTOR—CLOCKWISE
ROTATION
FIRING
ORDER
1-6-5-4-3-2
RN755
Fig.
1
Secondary
Ignition Wiring 3.9L
Engine
WIRING DIAGRAM SHEETS AND INDEXES
The wiring diagram sheets
are
organized
so
that
systems relating
to the
basic vehicle
and all of
its op
tions
are
shown. Add-on
or
non-factory options
are
SPARK
PLUGS
LEFT
BANK
EIGHT
CYLINDER
DISTRIBUTOR-CLOCKWISE
ROTATION
FOR
318
AND
360
CUBIC
INCH
ENGINES
FIRING
ORDER-1-8^-3-63-7-2 RP899 Fig.
2
Secondary
Ignition Wiring 5.2L and 5.9L
Engine
not covered.
The
diagram pages
are
identified
by a
sheet number which
is
located
at the
lower right
or
left hand corner
of
each sheet. Page numbers
at the
top
of
each page
do not
apply
to
diagram sheets.
Diagram sheets show
all
information relating
to
the system. This includes feeds, grounds, switch
in
ternal circuity, connectors, splices,
and
pin
identifica
tion
for
controllers
and
modules.
In certain instances
a
wire
may be
referenced
to
another sheet. When this happens,
the
wire will
be
identified
as to
where
it is
going.
The index used
for the
diagrams
is
located
at the
beginning
of the
diagrams.
It
covers
all
systems shown
in the
diagrams
and is in
alphabetical order.
WIRING
DIAGRAMS
•
WIRING
DIAGRAMS
8W - 3 fer to a components name in the index if you are
unclear as to what a system may be called.
Diagram pages are arranged starting with the bat
tery and fuses. Then working into charging, starting, and ignition systems. After this they start at the
front of the vehicle and work to rear of the vehicle.
The diagrams end with connector identification
pages.
COMPONENT
IDENTIFICATION
To find a components actual location on the vehicle
refer to the wiring and components section index. This section shows the wire harness routing and the compo
nents location in the vehicle. When using this section
refer to the wiring diagrams for the general location of
the component. Then use the component identification index to locate the proper figure number.
SPLICE
LOCATIONS
Splices are indicated in the wiring diagrams by a
diamond with splice circuit code within it (Fig. 5 ex ample 1). If there is more than one splice per circuit
splice code a small box will be connected to the dia
mond with the splice number in it (Fig. 5 example 2). To locate a splice in the wire harness determine
the splice number from the wiring diagrams, then re
fer to the splice location index. This section shows
the general location of the splice in the harness.
EXAMPLE
1
EXAMPLE
2 918W-18
Fig.
5 Wiring
Splice
Examples
CONNECTORS
The connectors shown in the diagram are viewed from
the terminal end unless otherwise specified. For view ing bulkhead and engine controller connectors refer to
the back of the wiring diagrams. This area shows major connectors for pin and cavity identification.
TROUBLESHOOTING
WIRING
PROBLEMS
When troubleshooting wiring problems there are
six steps which can aid in the procedure. The steps
are listed and explained below. (1) Verify the problem.
(2) Verify any related symptoms. Perform opera
tional checks on components in the same circuit as the problem area. Refer to the wiring diagram fuse
application chart for circuit information. (3) Analyze the symptoms. Use the wiring dia
grams to determine what the circuit is doing, where
the problem most likely is occurring and where the diagnosis will continue. (4) Isolate the problem area. (5) Repair the problem.
(6) Verify proper operation. For this step check for
proper operation of all items on the circuit repaired. Refer to the wiring diagram fuse application chart.
FUSIBLE
LINKS
Vehicle wiring harnesses are equipped with fusible
links.
For protection against harness damage in the
event of a short. Fusible links are color coded as to
wire gauge size. Refer to the fusible link chart for color and gauge identification (Fig. 6).
Wire and
Gauge
Color
Code
Color
12 Ga.
BK
Black
14 Ga.
RD
Red
16 Ga.
DB
Dark
Blue
18 Ga.
GY
Gray
20 Ga.
OR
Orange
22 Ga.
WT
White
918W-19
Fig.
6 Fusible
Link
Chart
HARNESS
REPAIR
FUSIBLE
LINK
REPLACEMENT
CAUTION:
Do not replace blown fusible
links
with
a
standard
wire.
Only
use fusible type
wire
with
hyp-
alon
insulation or
damage
to the electrical
system
could
occur.
Also
make
sure
correct
gauge
of
wir
ing
is
used.
Refer to the wiring
diagrams
for proper
gauge
and
color.
When a fusible link blows it is important to find
out what the problem is. They are placed in the elec
trical system for protection against shorts to ground
that can be caused by a component or various wiring
failures. Do not just replace the fusible link to correct the problem.
When diagnosing a faulty fusible link it is impor
tant to check the wire carefully. In some instances
the link may be blown and it will not show through the insulation, the wire should be checked over its
entire length for internal breaks.
(1) Disconnect battery negative cable.
(2) Cut out the blown portion of the fusible link.
(3) Strip 1 inch of insulation from each end of the
existing fusible link.
(4) Place a piece of heat shrink tubing over one
side of the fusible link. Make sure the tubing will be
long enough to cover and seal the entire repair area.
(5) Cut a replacement piece of fusible link approx
imately two inches longer than the piece removed. (6) Remove one inch of insulation from each end of
the replacement fusible link.
WIRING DIAGRAMS
SW - 5
CONNECTOR
LOCKING WEDGE
CONNECTOR
LOCKING
FINGER
If
928W-144
Fig.
9
Connector
Locking
Finger
and
Locking
Wedge
(6) Stagger cut the matching wires on the repair
connector assembly in the opposite order as was done
on the harness side of the repair. Allow extra length
for soldered connections. Check that the overall length is the same as the original (Fig. 10).
REPAIR SIDE STAGER CUTS WIRES
HARNESS
WIRES
928W-145
Fig.
10
Stagger
Cutting Wires (7) Remove 1 inch of insulation from each wire.
(8) Place a piece of heat shrink tubing over one
side of the wire. Make sure the tubing will be long
enough to cover and seal the entire repair area.
(9) Spread the strands of the wire apart on each
part of the exposed wires (Fig. 7 example 1).
(10) Push the two ends of wire together until the
strands of wire are close to the insulation (Fig. 7 exam
ple 2).
(11) Twist the wires together (Fig. 7 example 3).
(12) Solder the connection together using rosin
core type solder only. Do not use acid core solder.
(13) Center the heat shrink tubing over the joint
and heat using a heat gun. Heat the joint until the
tubing is tightly sealed and sealant comes out of both ends of the tubing. (14) Repeat steps 8 thru 13 for each wire.
(15) Re-tape the wire harness starting 1-1/2 inches
behind the connector and 2 inches past the repair. (16) Reconnect the repaired connector.
(17) Connect battery and test all affected systems.
TERMINAL
REPLACEMENT
(1) Disconnect battery.
(2) Disconnect the connector being repaired form
its mating
half.
(3) Remove connector locking wedge (Fig. 8).
(4) Position the connector locking finger away from
the terminal. Pull on the wire to remove the termi nal from the connector (Fig. 9).
(5) Cut the wire 6 inches from the back of the con
nector. (6) Remove 1 inch of insulation from the wire on
the harness side.
(7) Select a wire from the terminal repair assem
bly that best matches the color wire being repaired. (8) Cut the repair wire to the proper length and re
move 1 inch of insulation.
(9) Place a piece of heat shrink tubing over one of
side of the wire. Make sure the tubing will be long
enough to cover and seal the entire repair area.
(10) Spread the strands of the wire apart on each
part of the exposed wires (Fig. 7 example 1). (11) Push the two ends of wire together until the
strands of wire are close to the insulation (Fig. 7 ex
ample 2).
(12) Twist the wires together (Fig. 7 example 3).
(13) Solder the connection together using rosin
core type solder only. Do not use acid core solder.
(14) Center the heat shrink tubing over the joint
and heat using a heat gun. Heat the joint until the
tubing is tightly sealed and sealant comes out of both ends of the tubing.
(15) Insert the repaired wire into the connector.
(16) Install the connector locking wedge and recon
nect the connector to its mating
half.
(17) Re-tape the wire harness starting 1-1/2 inches
behind the connector and 2 inches past the repair. (18) Connect battery and test all affected systems.
SYMBOLS
AND
FUSES
Various symbols are used throughout wiring dia
grams. These symbols can be identified by referring
to symbol identification chart (Fig. 11). For fuse block and relay bank information refer to
(Fig. 12).
CAUTION:
When replacing
a
blown fuse,
it is
impor
tant
to
replace
it
with
a
fuse having
the
correct
am
perage rating.
The use of a
fuse
with
a
rating other
than indicated
may
result
in a
dangerous
electrical
overload.
If a
proper
rated
fuse continues
to
blow,
it
indicates
a
problem
that
should
be
corrected.