Remove
the
fan
and
pulley
the
right
hand
engine
mounting
and
oil
filter
Remove
the
oil
pressure
switch
Remove
the
following
items
oil
level
gauge
spark
plugs
thermostat
housing
rocker
cover
carburettor
and
inlet
and
exhaust
manifolds
Remove
the
clutch
assembly
as
described
in
the
section
CLUTCH
Remove
the
left
hand
engine
mounting
crankshaft
pulley
water
pump
fuel
pump
fuel
pump
drive
earn
and
cam
shaft
sprocket
See
Fig
A
4
Remove
the
cylinder
head
bolts
in
the
sequence
shown
in
Fig
A
5
and
lift
off
the
cylinder
head
Invert
the
engine
and
remove
the
oil
sump
and
oil
strainer
oil
pump
and
drive
spindle
assembly
front
cover
and
chain
tensioner
Remove
the
timing
chain
oil
thrower
crank
shaft
worm
gear
and
chain
drive
sprocket
See
Fig
A
6
andA
7
Remove
the
connecting
rod
caps
and
push
the
pistons
and
connecting
rods
through
the
top
of
the
bores
as
shown
in
Fig
A
B
Keep
the
connecting
rod
caps
with
their
respective
rods
to
ensure
that
they
are
assembled
in
their
original
positions
Remove
the
flywheel
retaining
bolts
and
withdraw
the
fly
wheel
Fig
A
9
Remove
the
main
bearing
caps
using
the
special
puller
ST
1651
SOOO
to
withdraw
the
centre
and
rear
main
bearing
caps
as
shown
in
Fig
A
l
O
Remove
the
rear
oil
seal
and
lift
out
the
crankshaft
remove
the
baffie
plate
and
cylinder
block
net
Fig
A
II
Remove
the
piston
rings
with
a
suitable
expander
and
press
out
the
gudgeon
pins
under
an
arbor
press
using
the
special
stand
STl300001
as
shown
in
Fig
A
12
Keep
the
dismantled
parts
in
order
so
that
they
can
be
reassembled
in
their
original
positions
Slacken
the
valve
rocker
pivot
lock
nut
and
remove
the
rocker
arms
by
pressing
down
the
valve
springs
Remove
the
camshaft
taking
care
not
to
damage
the
bearings
and
earn
lobes
Withdraw
the
valves
using
the
valve
lifter
STl2070000
as
shown
in
Fig
A
13
ENGINE
Inspection
and
Overhaul
Cylinder
Head
and
Valves
Clean
all
parts
thoroughly
and
remove
carbon
deposits
with
a
blunt
scraper
Remove
any
rust
which
has
accumulated
in
the
water
passages
and
blow
through
the
oil
holes
with
compres
sed
air
to
make
sure
that
they
are
clear
Measure
the
joint
face
of
the
cylinder
head
for
out
of
true
as
shown
in
Fig
A
14
The
surface
should
be
checked
at
various
positions
using
a
straight
edge
and
feeler
gauge
The
permissible
amount
of
distortion
is
0
05
mm
0
0020
in
or
less
If
the
surface
is
out
of
true
by
more
than
the
limit
of
0
1
mm
0
0039
in
it
will
be
necessary
to
regrind
the
head
Clean
each
valve
by
washing
in
petrol
and
carefully
examine
the
stems
and
heads
If
the
stem
is
worn
damaged
or
not
straight
the
valve
must
be
discarded
Check
the
diameter
of
the
stem
with
a
micro
meter
The
diameter
of
the
inlet
valves
should
be
7
965
7
980
mm
0
3136
0
3142
in
and
the
diameter
of
the
exhaust
valves
7
945
7
960
mm
0
3128
0
3134
in
If
the
seating
face
of
the
valve
is
excessively
burned
damaged
or
distorted
it
must
be
discarded
A
badly
pitted
seating
face
should
be
refaced
on
a
valve
grinding
machine
removing
only
the
minimum
amount
of
metal
Renew
the
valve
if
the
thickness
of
the
valve
head
has
been
reduced
by
0
5
mm
0
0197
in
see
Technical
Data
for
valve
dimensions
The
valve
stem
tip
may
be
refaced
if
necessary
the
maxi
mum
allowance
however
is
0
5
mm
0
0197
in
The
valves
can
be
ground
in
to
their
seats
when
completely
satisfactory
The
valve
seats
and
valve
guides
should
be
in
good
condition
and
must
be
checked
as
described
in
the
following
paragraphs
VALVE
GUIDES
Replacement
The
valve
stem
to
valve
guide
clearance
can
be
checked
by
inserting
a
new
valve
into
the
guide
The
stem
to
guide
clearance
should
be
0
020
0
053
mm
0
0008
0
0021
in
for
the
inlet
valves
and
0
040
0
073
mm
0
0016
0
0029
in
for
the
exhaust
valves
If
the
clearance
exceeds
0
1
mm
0
0039
in
for
the
inlet
valves
and
the
exhaust
valves
then
new
guides
should
be
fitted
The
valve
guides
are
held
in
position
with
an
interference
fit
of
0
027
0
049
mm
0
0011
0
0019
in
and
can
be
removed
by
means
of
a
press
and
drift
2
ton
pressure
This
operation
can
be
carried
out
at
room
temperature
but
will
be
more
effectively
performed
at
a
higher
temperature
Valve
guides
are
available
with
oversize
diameters
of
0
2
mm
0
0079
in
if
required
The
standard
valve
guide
requires
a
bore
in
the
cylinder
head
of
11
985
11
996
mm
dia
0
4719
0
4723
in
dia
and
the
oversize
valve
guide
a
bore
of
12
185
12
196
mm
dia
0
4797
0
4802
in
dial
The
cylinder
head
guide
bore
must
be
reamed
out
at
normal
room
temperature
Heat
the
cylinder
head
to
a
temperature
of
150
2000e
302
3920F
before
pressing
in
the
new
valve
guides
Ream
out
the
bore
of
the
guides
to
obtain
the
desired
fInish
and
clearance
Fig
A
IS
The
special
valve
guid
reamer
ST
1103
SOOO
should
be
used
if
available
Valve
guide
inner
diameters
are
specified
in
Technical
Data
at
the
end
of
this
section
The
valve
seat
surface
must
be
concentric
with
the
guide
bore
and
can
be
corrected
with
the
facing
tool
STll670000
Fig
A
16
using
the
new
valve
guide
as
the
axis
VALVE
SEAT
INSERTS
Replacing
The
valve
seat
inserts
should
be
replaced
if
they
show
signs
of
pitting
and
excessive
wear
The
inserts
can
be
removed
by
boring
out
to
a
depth
which
will
cause
them
to
collapse
although
care
must
be
taken
not
to
bore
beyond
the
bottom
face
of
the
recess
in
the
cylinder
head
Select
the
valve
seat
inserts
and
check
the
outer
diameters
Machine
the
recess
in
the
cylinder
head
to
the
following
dimensions
at
room
temperature
9
The
thermostat
can
be
tested
by
suspending
it
with
a
thermometer
in
a
container
ftlled
with
water
Heat
the
water
gradually
and
stir
it
to
obtain
a
uniform
temperature
Maintain
a
constant
check
of
the
temperature
and
make
sure
that
neither
the
thermostat
or
thermometer
touch
the
sides
of
the
container
or
false
readings
will
be
obtained
The
thermostat
should
begin
to
open
at
a
temperature
of
820C
1
50C
179
60F
2
70Fj
and
should
be
fully
open
with
a
maximum
valve
lift
of
8
mm
0
315
in
at
a
temperature
of
950C
2030F
When
installing
the
thermostat
apply
adhesive
to
both
sides
of
the
gasket
before
refitting
the
water
outlet
elbow
RADIATOR
Removal
Drain
the
cooling
system
as
previously
described
and
remove
the
front
grille
2
Disconnect
the
radiator
upper
hose
lower
hose
and
hose
to
the
reservoir
tank
3
Remove
the
radiator
securing
bolts
and
lift
out
the
radiator
Fig
B
4
It
should
be
noted
that
cars
fitted
with
automatic
transmission
incorporate
a
transmission
oil
cooler
which
must
be
disconnected
Installation
is
a
reversal
of
the
removal
procedure
refill
the
system
as
previously
described
FLUID
COUPLING
The
water
pump
is
equipped
with
a
fluid
coupling
on
vehicles
fitted
with
an
air
conditioner
The
fluid
coupling
Limits
the
maximum
fan
speed
to
approximately
3000
r
p
ro
and
eliminates
noise
and
loss
of
power
at
high
engine
speeds
A
fault
in
the
coupling
may
be
caused
by
the
entry
of
foreign
matter
If
a
fault
developes
the
oupling
must
be
removed
and
dismantled
and
the
interior
cleaned
by
washing
in
solvent
The
condition
of
the
seal
and
bearing
must
be
care
fully
checked
and
the
coupling
replaced
if
the
latter
items
have
become
blackened
If
oil
leaks
occur
it
will
be
necessary
to
replace
the
water
pump
assembly
with
the
coupling
After
cleaning
the
unit
refill
with
11
5
cc
silicon
oil
using
a
suitable
syringe
TechnIcal
Data
Radiator
Radiator
cap
working
pressure
Radiator
core
heightxwidth
x
thickness
1400
and
1600
cc
engines
510
body
1600
and
1800
cc
engines
610
body
Corrugated
fin
type
0
9
kg
sq
cm
13Ib
sq
in
280x488x38mm
I
LOx
19
2x
1
49
in
360x502x32mm
l4
2x19
8x1
26
in
Thermostat
valve
opening
temperature
Standard
B20C
l
BOOF
Cold
climates
880C
1900F
Tropical
climates
76
50C
l700F
Max
valve
lift
Cooling
system
capacity
With
heater
Without
heater
Cooling
system
capacity
With
heater
Above
8
mm
0
31
in
6
8litres
1
75
US
gall
1
5
Imp
gall
6
4litres
1
75
US
gall
1
375
Imp
gall
1600
and
1800
cc
engines
610
body
6
5litres
l
7
US
gall
1
375
Imp
gall
6
0
Iitres
1
625
US
gall
1
375
Imp
gall
Without
heater
27
Fuel
System
DESCRIPTION
FUEL
TANK
FUEL
PUMP
CARBURETTOR
IDLING
ADJUSTMENT
FAST
IDLE
OPENING
ADJUSTMENT
THROTTLE
VALVES
INTERLOCK
OPENING
DASHPOT
DESCRIPTION
The
diaphragm
type
fuel
pump
shown
in
Fig
D
1
feeds
fuel
from
the
tank
to
the
carburettor
in
a
regulated
supply
according
to
the
needs
of
the
engine
A
cartridge
type
fuel
strainer
prevents
any
dirt
from
reaching
the
pump
inlet
valve
The
carburettor
fitted
to
the
engine
is
either
a
down
draught
two
barrel
type
equipped
with
a
throttle
operated
acceleration
pump
and
power
valve
mechanism
See
Fig
D
2
or
a
twin
SU
carburettor
of
the
type
shown
in
Fig
D
3
In
the
two
barrel
type
carburettor
fuel
flows
from
the
passage
at
the
bottom
of
the
float
chamber
passes
through
the
primary
main
jet
and
mixes
with
air
introduced
through
the
main
air
bleed
screw
The
petrol
and
air
mixture
is
injected
into
the
venturi
through
the
main
nozzle
Each
time
the
accelerator
pedal
is
depressed
the
throttle
opens
and
the
accelerator
pump
forces
a
jet
of
petrol
into
the
air
stream
to
allow
the
engine
to
accelerate
smoothly
See
Fig
0
4
The
power
valve
mechanism
is
operated
automatically
according
to
the
demands
made
by
the
engine
Under
light
load
i
e
part
throttle
conditions
the
intake
manifold
depression
is
transmitted
below
the
throttle
valve
the
vacuum
pulls
a
piston
upwards
against
a
spring
and
leaves
the
power
valve
closed
allowing
additional
air
to
be
admitted
through
the
air
bleed
screw
and
thereby
weaken
the
petrol
and
air
mixture
When
the
vacuum
below
the
throttle
vaJve
is
lowered
during
full
load
conditions
the
piston
is
pushed
down
opening
the
power
valve
and
providing
additional
fuel
to
enrichen
the
mixture
The
model
HJ
L
38W6
SU
twin
carburettor
is
of
the
horizontal
variable
venturi
type
and
is
used
only
on
the
1600
and
1800
cc
engines
In
this
type
of
carburettor
a
constant
flow
of
intake
air
is
maintained
by
the
automatically
adjusted
venturi
opening
this
is
accomplished
by
the
suction
piston
sliding
in
accordance
with
changes
in
the
volume
of
intake
air
Referring
to
Fig
D
5
the
suction
chamber
is
mounted
above
the
venturi
The
suction
piston
slides
vertically
within
the
chamber
and
changes
the
venturi
opening
area
The
piston
is
operated
by
a
difference
between
the
upper
vacuum
pressure
which
is
applied
through
the
suction
poct
and
the
atmospheric
pressure
which
is
introduced
through
the
air
hole
from
the
air
cleaner
The
amount
by
which
the
throttle
is
opened
causes
the
suction
piston
to
rise
or
fall
under
the
intluence
of
the
engine
suction
The
pozzle
opening
therefore
changes
and
provides
an
optimum
air
fuel
mixture
at
all
engine
speeds
The
cartridge
type
fuel
strainer
utilizes
a
fibre
strainer
element
which
should
be
replaced
every
20
000
km
12
000
miles
Removal
of
the
fuel
strainer
is
a
simple
operation
but
as
it
cannot
be
drained
the
strainer
should
not
be
removed
when
CARBURETIOR
Removal
and
Overhaul
FLOAT
LEVEL
Adjustment
SU
TWIN
CARBURmORS
Adjustments
SU
TWIN
CARBURmORS
Dismantling
SU
TWIN
CARBURETTORS
Inspection
STARTING
INTERLOCK
VALVE
OPENING
HYDRAULIC
DAMPER
the
tank
is
full
unless
absolutely
necessary
A
viscous
paper
type
air
cleaner
element
is
fitted
which
does
not
require
cleaning
and
should
be
repl
ced
every
40
000
km
24
000
miles
The
air
cleaner
fitted
on
the
single
carburettor
is
equipped
with
an
idling
compensator
to
prevent
the
mixture
from
becoming
too
rich
at
high
idling
temperatures
Additional
fresh
air
is
introduced
into
the
inlet
manifold
by
the
action
of
a
bimettalic
strip
located
in
the
air
cleaner
When
the
temperature
under
the
bonnet
is
high
the
bimetal
is
heated
by
the
hot
inlet
air
and
lifts
to
allow
the
valve
to
open
The
idling
compensator
valve
partially
opens
at
550
I310F
and
is
fully
open
at
650C
l490F
The
unit
cannot
be
dismantled
as
it
is
pre
sealed
and
correctly
adjusted
for
valve
timing
Fig
D
6
shows
the
layout
of
the
idling
compensator
piping
FUEL
TANK
Replacing
The
fuel
tank
can
be
removed
in
the
following
manner
Remove
the
rear
seat
and
back
rest
2
Take
out
the
board
behind
the
back
rest
3
Take
out
the
luggage
compartment
lining
board
and
disconnect
the
cable
to
the
petrol
gauge
unit
4
Disconnect
the
petrol
filler
tube
from
the
tank
5
Remove
the
tank
retaining
bolts
and
disconnect
the
rubber
fuel
outlet
and
return
hoses
Installation
is
a
reversal
of
the
removal
procedure
always
ensure
that
the
fuel
lines
arc
carefully
checked
for
signs
of
damage
before
replacing
the
tank
FUEL
PUMP
Testing
Pressure
and
capacity
tests
can
be
carried
out
with
the
pump
installed
in
the
following
manner
Static
pressure
test
Disconnect
the
fuel
line
at
the
carburettor
install
an
adaptor
tee
fitting
and
suitable
pressure
gauge
to
the
fuel
line
between
carburettor
and
fuel
pump
Start
the
engine
and
run
it
at
varying
speeds
The
reading
on
the
gauge
should
be
0
18
0
24
kg
sq
cm
2
6
34
Ib
sq
in
If
the
pressure
is
below
the
specified
figure
then
either
one
part
of
the
pump
has
worn
excessively
or
general
wear
has
occured
to
all
the
working
parts
The
faults
may
include
a
ruptured
diaphragm
worn
and
warped
valves
33
Carburettor
type
Throttle
opening
angle
190
200
Dimension
A
213282
341
213282
221
l
3mm
0
051
in
I
4mm
0
056in
If
adjustment
is
required
the
choke
connecting
rod
can
be
carefully
bent
until
the
required
clearance
is
obtained
THROTTLE
VALVES
INTERLOCK
OPENING
ADJUSfMENT
Open
the
primary
throttle
valve
500
from
the
fully
closed
position
as
shown
in
Fig
D
I
O
At
this
angle
the
connecting
link
2
should
be
at
the
extreme
right
of
the
groove
in
the
primary
throttle
arm
The
linkage
between
the
primary
and
the
secondary
throttles
is
operating
correctly
if
the
clearance
C
between
the
primary
throttle
valve
and
the
wall
of
the
chamber
is
as
follows
Carburettor
type
213304
361
213304
421
213282
331
213282
341
Dimension
C
6
3
mm
0
248
in
6
3
mm
0
248
in
74
mm
0
291
in
74
mm
0
291
in
Adjustment
can
be
made
if
necessary
by
bending
the
connecting
link
until
the
required
clearance
is
obtained
DASHPOT
ADJUSfMENT
This
adjustment
is
only
required
on
carburettors
fitted
to
vehicles
with
automatic
transmission
Correct
contact
must
be
made
between
the
throttle
lever
and
the
dashpot
stem
See
Fig
D
II
Adjustment
can
be
carried
out
if
necessary
by
slackening
the
locknut
2
and
then
rotating
the
dashpot
in
either
direction
so
that
the
throttle
ann
touches
the
stem
at
a
throttle
valve
opening
angle
of
110
At
this
angle
the
clearance
B
between
the
throttle
valve
and
the
wall
of
the
chamber
should
be
as
follows
Carburettor
type
213304
421
213282
341
Dimension
B
0
780mm
90
0307
in
0
586mm
0
0231
in
Retighten
the
locknut
after
completing
the
adjustment
CARBURETTOR
Removal
and
Overhaul
The
carburettor
can
be
removed
from
the
engine
in
the
following
manner
Remove
the
air
cleaner
assembly
2
Disconnect
the
fuel
and
vacuum
pipes
and
the
choke
wire
from
the
carburettor
3
Remove
the
throttle
lever
and
take
off
the
nuts
and
washers
securing
the
carburettor
to
the
manifold
4
Lift
the
carburettor
away
from
the
manifold
and
discard
the
gasket
To
dismantle
the
carburettor
for
a
complete
overhaul
remove
the
primary
and
secondary
main
jets
and
needle
valves
these
are
accessible
from
the
exterior
of
the
carburettor
Remove
the
choke
connecting
rod
pump
lever
return
spring
and
set
screws
and
take
off
the
choke
chamber
The
primary
and
secondary
emulsion
tubes
can
be
with
drawn
after
removing
the
main
air
bleed
screws
If
the
accelerator
pump
is
to
be
checked
take
off
the
pump
cover
but
take
care
not
to
lose
the
return
spring
and
inlet
valve
ball
situated
at
the
lower
part
of
the
piston
Separate
the
throttle
chamber
from
the
float
chamber
by
removing
the
retaining
screws
leave
the
throttle
valve
intact
unless
otherwise
required
All
parts
of
the
carburettor
must
be
ctifefully
cleaned
and
sediment
gum
or
other
deposits
removed
Clean
the
jets
by
blowing
through
them
with
compressed
air
Never
push
wire
through
the
j
ts
or
passages
or
the
orifices
will
be
enlarged
and
the
calibration
affected
Check
all
parts
for
signs
of
wear
and
exchange
them
if
necessary
Examine
the
float
needle
and
seat
for
wear
and
make
sure
that
the
throttle
and
choke
bores
in
the
throttle
body
and
cover
are
not
worn
or
out
of
round
If
the
idling
adjustment
needles
have
burrs
or
ridges
they
must
be
replaced
Inspect
the
gaskets
to
make
sure
that
they
are
not
hard
and
brittle
or
distorted
Oean
the
filter
screen
if
it
is
clogged
or
change
it
if
it
is
otherwist
unsatisfactory
Check
the
operation
of
the
accelerator
pump
by
pouring
petrol
into
the
float
chamber
and
operating
the
throttle
lever
Petrol
should
spurt
from
the
pump
discharge
jet
if
the
pump
is
working
correctly
If
petrol
cannot
be
ejected
from
the
jet
when
the
lever
is
actuated
clean
the
discharge
jet
by
blowing
through
it
with
compressed
air
CARBURETTOR
Assembly
and
Installation
The
assembly
and
installation
of
the
carburettor
is
a
reversal
of
the
dismantling
and
removal
procedures
noting
the
following
points
Always
replace
the
gaskets
if
they
are
not
satisfactory
and
take
care
that
the
carburettor
linkage
operates
smoothly
and
is
not
bent
or
distorted
The
performance
of
the
carburettor
will
depend
on
the
condition
of
the
jets
and
air
bleeds
As
previously
stated
these
pacts
should
be
cleaned
using
petrol
and
compressed
air
only
Replacement
jets
or
air
bleed
screws
can
be
used
to
provide
greater
economy
or
to
increase
output
whatever
the
require
ment
When
the
carburettor
is
installed
adjust
the
idling
speed
as
previously
described
37
ElectrIcal
EquIpment
DESCRIPTION
BATTERY
Maintenance
STARTER
MOTOR
Removal
and
Dismantling
STARTER
MOTOR
Testing
STARTER
MOTOR
Assembly
and
Installation
ALTERNATOR
Removal
Dismantling
and
Inspection
DESCRIPTION
A
12
volt
negative
earth
electrical
system
is
used
in
which
the
battery
is
charged
by
an
alternator
In
the
alternator
a
magnetic
field
is
produced
by
the
rotor
which
consists
of
the
alternator
shaft
field
coil
p
le
pieces
and
slip
rings
Output
current
is
generated
in
the
armature
coils
located
in
the
stator
Six
silicon
diodes
are
incorporated
in
the
alternator
caSing
to
rectify
the
alternating
current
supply
A
voltage
regulator
and
pilot
lamp
relay
are
built
in
the
regulator
box
which
nonnally
does
not
give
trouble
or
require
attention
The
starter
motor
is
a
brush
type
series
wound
motor
in
which
positive
meshing
of
the
pinion
and
ring
gear
teeth
are
secured
by
means
of
an
overrunning
clutch
BATTERY
Maintenance
The
battery
should
be
maintained
in
a
clean
and
dry
condition
at
all
times
or
a
current
leakage
may
occur
between
the
terminals
If
frequent
topping
up
is
required
it
is
an
indication
of
overcharging
or
deterioration
of
the
battery
When
refitting
the
cables
clean
them
thoroughly
and
coat
their
terminals
and
the
terminal
posts
with
petroleum
jelly
Check
the
level
of
the
electrolyte
in
the
battery
at
frequent
intervals
and
top
up
if
necessary
to
the
level
mark
on
the
battery
case
with
distilled
water
A
hydrometer
test
should
be
carried
out
to
determine
the
state
of
charge
of
the
battery
by
measuring
the
specific
gravity
of
the
electrolyte
It
should
be
pointed
out
that
the
addition
of
sulphuric
acid
will
not
normally
be
necessary
and
should
only
be
carried
out
by
an
expert
when
required
The
specific
gravity
of
the
electrolyte
should
be
ascertained
with
the
battery
fully
charged
at
an
electrolyte
temperature
of
200C
680F
The
specific
gravity
of
the
electrolyte
decreases
or
increases
by
0
0007
when
its
temperature
rises
or
falls
by
10C
1
80F
respectively
The
temperature
referred
to
is
that
of
the
electrolyte
and
not
the
ambient
temperature
to
correct
a
reading
for
an
air
temperature
it
will
be
necessary
to
add
0
0035
to
the
reading
for
every
50C
above
200C
Conversely
0
0035
must
be
deducted
for
every
SOC
below
200C
Test
each
cell
separately
and
draw
the
liquid
into
the
hydrometer
several
times
if
a
built
in
thermometer
type
is
used
The
correct
specific
gravity
readings
should
be
as
follows
ALTERNATOR
Assembly
and
Installation
HEAD
LAMPS
Replacing
HORN
INSTRUMENT
PANEL
Removal
WINDSCREEN
WIPERS
WINDSCREEN
WASHERS
IGNITION
SWITCH
AND
STEERING
LOCK
Cold
climates
Temperature
climates
Tropical
climates
Permissible
value
Over
1
22
Over
1
20
Over
1
18
Fully
charged
at
200C
680F
1
28
1
26
1
23
The
battery
should
be
recharged
if
a
low
specific
gravity
reading
is
indicated
Always
disconnect
both
terminals
of
the
battery
when
charging
and
clean
the
terminal
posts
with
a
soda
solution
Remove
the
vent
plugs
and
keep
the
electrolyte
temperature
below
450C
l130F
during
charging
Check
the
specific
gravity
after
charging
and
if
it
is
above
1
260
at
200C
680C
add
distilled
water
STARTER
MOTOR
Removal
and
Dismantling
As
previously
stated
the
starter
motor
is
brush
type
series
wound
motor
in
which
the
positive
meshing
of
the
pinion
and
ring
gear
teeth
are
secured
by
an
overrunning
clutch
The
over
running
clutch
employs
a
shift
lever
to
slide
the
pinion
into
mesh
with
the
flywheel
ring
gear
teeth
when
the
starter
is
operated
When
the
engine
starts
the
pL
lion
is
permitted
to
overrun
the
clutch
and
armature
but
is
held
in
mesh
until
the
shift
lever
is
released
An
exploded
view
of
the
starter
is
shown
in
Fig
M
2
To
remove
the
starter
motor
proceed
as
follows
Disconnect
the
battery
earth
cable
2
Disconnect
the
black
and
yellow
wire
from
the
solenoid
terminal
and
the
black
cable
from
the
battery
terminal
3
Remove
the
two
bolts
securing
the
starter
motor
to
the
clutch
housing
Pull
the
starter
motor
assembly
forwards
and
withdraw
it
from
the
v
hicle
To
dismantle
the
starter
motor
ftrst
remove
the
brush
cover
and
lift
out
the
brushes
as
shown
in
Fig
M
3
Loosen
the
nut
securing
the
connecting
plate
to
the
solenoid
M
terminal
Remove
the
solenoid
retaining
screws
take
out
the
cotter
pin
and
withdraw
the
shift
lever
pin
Remove
the
solenoid
assembly
as
shown
in
Fig
M
4
Remove
the
two
through
bolts
and
rear
cover
assembly
then
remove
the
yoke
assembly
by
lightly
tapping
it
with
a
wooden
mallet
Fig
M
S
Withdraw
the
armature
and
shift
lever
Fig
M
6
Remove
the
pinion
stopper
from
the
armature
shaft
by
removing
the
stopper
washer
pushing
the
109
Renew
the
ruter
element
at
10
000
km
6000
miles
inter
vals
Dismantling
is
a
straight
forward
operation
Remove
the
plug
from
the
cover
and
withdraw
the
washer
spring
and
by
pass
valve
Check
the
free
length
and
compressed
length
of
the
by
pass
valve
spring
and
renew
if
necessary
The
free
length
of
the
spring
should
be
54
5
to
56
0
mm
2
14
to
2
20
in
and
the
compressed
length
49
0
mm
1
93
in
EMISSION
CONTROL
SYSTEM
Crankcase
and
exhaust
gas
emissions
are
controlled
by
two
systems
The
crankcase
emissions
by
a
Positive
Crankcase
Ventila
tion
System
and
the
exhaust
emissions
by
a
Nissan
Air
Injection
System
Brief
descriptions
of
the
systems
together
with
the
test
ing
and
servicing
procedures
are
given
below
Positive
Crankcase
Ventilation
System
lbis
system
returns
the
blow
by
gases
to
the
intake
mani
fold
and
the
carburettor
air
cleaner
see
Fig
A
22
Under
part
throttle
conditions
the
intake
manifold
draws
the
gases
through
a
variable
orifice
valve
Control
valve
into
the
combustion
chambers
Ventilating
air
is
then
drawn
from
the
carburettor
air
cleaner
and
passes
throy
gh
a
tube
in
to
the
crankcase
With
the
throttle
fully
open
the
manifold
vacuum
is
insuf
ficient
to
draw
the
gases
through
the
valve
Under
these
conditions
the
gases
flow
tluough
the
tube
to
the
air
cleaner
in
the
reverse
direction
The
gases
are
therefore
retained
or
burnt
to
lessen
the
risk
of
air
pollution
Servicing
and
testing
Once
a
year
or
every
20
000
km
12
000
miles
the
Posi
tive
Crankcase
Ventilation
System
should
be
serviced
as
follows
Check
all
hoses
and
connectors
for
signs
or
leakage
Discon
nect
the
hoses
and
blow
through
them
with
compressed
air
to
make
sure
they
are
not
blocked
Fit
a
new
hose
if
air
cannot
be
forced
through
Check
the
ventilation
control
valve
for
servicability
and
renew
it
if
defective
To
test
the
valve
run
the
engine
at
idling
speed
see
under
IGNITION
TIMING
AND
IDLING
SPEED
and
disconnect
the
ventilation
hose
from
the
rocker
cover
If
the
valve
is
working
correctly
a
hissing
noise
will
be
heard
as
air
passes
through
the
valve
and
a
strong
vacuum
should
be
felt
immediately
a
fInger
is
placed
over
the
valve
inlet
The
valve
cannot
be
serviced
and
must
be
renewed
if
unsatisfactory
Exhaust
emission
control
system
The
Nissan
Air
Injection
System
comprises
an
air
cleaner
belt
driven
air
injection
pump
check
valve
anti
backfIre
valve
and
the
related
connecting
tubes
and
hoses
The
sealed
pump
is
driven
by
the
engine
and
injects
clean
mtered
air
into
the
exhaust
port
of
each
cylinder
The
clean
air
combines
with
unbumt
gases
as
they
are
expelled
into
the
exhaust
manifolds
and
reduces
the
emissions
to
below
the
permissible
level
required
by
air
pollution
laws
A
modified
carburettor
and
distributor
is
fitted
with
this
type
of
system
The
air
injection
system
is
shown
in
Fig
A
23
The
anti
backfrre
valve
is
controlled
by
intake
manifoLd
vacuum
and
is
fitted
to
prevent
the
exhaust
system
from
back
fIring
during
deceleration
When
decelerating
the
mixture
in
the
intake
manifold
is
too
rich
to
bum
and
ignites
as
it
combines
with
air
injected
by
the
pump
The
valve
shuts
off
the
air
delivered
SI2
to
the
exhaust
system
during
the
flrstpredetennined
period
of
dCl
cleration
and
prevents
back
firing
from
occuring
To
check
valve
is
located
between
the
air
pump
and
air
injection
nozzle
and
is
fitted
to
prevent
a
backflow
of
exhaust
gases
from
entering
the
system
The
valve
doses
when
the
exhaust
manifold
pressure
exceeds
air
injection
pressure
as
It
will
at
high
speed
or
if
the
pump
drive
belt
fails
A
relief
valve
is
mounted
in
the
discharge
cavity
of
the
air
pump
and
is
incorporated
to
hold
the
exhaust
gas
temperatures
to
a
minimum
to
minimize
any
loss
of
power
caused
by
the
air
injection
system
and
to
protect
the
pump
from
excessive
back
pressures
Testing
The
following
tests
should
be
carried
out
to
make
sure
that
the
exhaust
emission
control
system
is
operating
correctly
The
engine
must
be
at
normal
operating
temperature
to
perfonn
the
tests
Before
the
system
can
be
tested
the
engine
itself
must
be
checked
to
ensure
that
It
is
functioning
correctly
Disconnect
the
ant
backflTe
valve
sensing
hose
and
insert
a
plug
into
the
hose
to
close
the
passage
to
the
intake
manifold
Make
sure
that
the
engine
operates
normally
and
then
reconnect
the
parts
Testing
the
check
valve
Run
the
engine
until
it
reaches
its
nonnal
operating
tem
pemture
and
check
all
hoses
and
connectors
for
signs
of
leakage
Disconnect
the
air
supply
hose
from
the
check
valve
and
check
the
position
of
the
plate
inside
the
valve
body
The
plate
should
be
lightly
positioned
against
the
valve
seat
and
away
from
the
air
distributor
manifold
Insert
a
suitable
probe
into
the
valve
and
depress
the
plate
When
released
the
plate
should
return
freely
to
its
position
against
the
valve
seat
Leave
the
hose
disconnected
and
start
the
engine
Slowly
increase
the
engine
speed
to
1500
r
p
m
and
examine
the
valve
to
make
sure
that
the
exhaust
gases
are
not
leaking
The
valve
may
flutter
or
vibrate
at
idling
speed
but
this
is
quite
nonnal
Renew
the
valve
if
necessary
Testing
the
ant
backftre
valve
Run
the
engine
until
it
reaches
its
normal
operating
tem
perature
Check
the
hoses
and
connections
for
signs
of
leakage
Rectify
any
leakage
before
testing
the
vaNe
Accelerate
the
engine
in
neutral
and
allow
the
throttle
to
close
quickly
The
valve
is
operating
correctly
if
the
exhaust
system
does
not
backfire
Further
test
can
be
made
with
the
by
pass
hose
to
the
air
pump
suction
line
disconnected
from
the
valve
Open
and
close
the
throttle
valve
rapidly
Hold
a
fInger
over
the
valve
outlet
and
check
that
air
flows
for
between
a
half
and
one
second
If
air
does
not
flow
or
alternatively
if
it
flows
continuously
for
more
than
two
seconds
the
valve
is
faulty
and
must
be
renewed
Disconnect
the
vacuum
sensing
hose
from
the
valve
Insert
a
suitable
plug
securely
into
the
hose
The
valve
is
not
functioning
correctly
if
the
idling
speed
now
differs
excessively
from
the
speed
at
which
the
engine
operated
with
the
hose
connected
Testing
the
air
pump
Special
tools
are
required
to
test
the
air
pump
The
vehicle
should
therefore
be
taken
to
an
Approved
Agent
capable
of
BrakIng
System
Description
Front
disc
brake
Friction
pads
Front
disc
brake
Removal
and
Installation
Rear
drum
brake
Removal
and
Installation
Master
Vac
Servo
Unit
Handbrake
cables
Removing
Handbrake
Adjusting
Brake
pedal
Adjusting
Rear
drum
brake
Adjusting
Bleeding
the
hydraulic
system
DESCRIPTION
The
vehicle
is
fitted
with
disc
brakes
for
the
front
wheels
and
leading
trailing
shoe
type
drum
brakes
for
the
rear
wheels
A
conventional
single
master
cylinder
is
fitted
to
the
Standard
and
DeLuxe
models
See
Fig
D
I
for
details
The
DeLuxe
models
are
however
additio
ally
equipped
with
a
Master
Vae
servo
unit
which
provides
a
much
higher
braking
performance
with
minimum
force
required
on
the
brake
pedal
A
tandem
master
cylinder
and
Master
Vac
servo
unit
are
fitted
as
standard
equipment
to
the
Datsun
CL30UA
and
CL3
OUT
models
Fig
D
2
gives
an
exploded
view
of
this
type
of
master
cylinder
The
handbrake
is
of
the
mechanical
type
with
the
handle
linked
to
the
rear
shoe
operating
lever
through
a
system
of
rods
and
wires
See
Fig
D
3
As
on
previous
models
a
brake
pressure
differential
warn
ing
light
switch
is
incorporated
with
dual
brake
circuits
The
front
and
rear
brake
systems
are
connected
to
the
switch
which
provides
a
warning
via
a
warning
light
on
the
instnllnent
panel
when
a
pressure
difference
of
13
to
17
kg
sq
cm
IB5
to
242
lb
sq
in
occurs
between
the
front
and
rear
systems
Brake
piping
layouts
of
the
single
and
tandem
master
cylinder
systems
are
shown
in
Figs
D
4
and
0
5
FRONT
DISC
BRAKE
Friction
pads
The
disc
brakes
are
self
adjusting
but
the
friction
pads
should
be
checked
for
wear
after
the
fIrst
6
000
un
4
000
miles
and
then
every
5
000
km
3
000
miles
The
pads
must
be
replaced
if
the
friction
lining
on
any
pad
has
worn
to
less
than
1
0
mm
0
04
in
The
thickness
of
the
pads
can
easily
be
checked
after
remov
ing
the
anti
rattle
clip
from
the
calliper
plate
Full
servicing
procedures
are
given
in
the
section
BRAKING
SYSTEM
for
vehicles
fitted
with
Ll4
Ll6
and
Ll8
engines
FRONT
DISC
BRAKE
Removal
and
Installation
Refer
to
the
section
BRAKING
SYSTEM
for
the
Ll4
L16
and
LIB
engines
for
full
details
of
the
removal
and
installation
procedures
Check
the
thickness
of
the
friction
pads
as
previously
described
and
replace
them
if
necessary
Check
the
brake
disc
for
scoring
and
out
of
round
The
standard
diSc
thickness
is
10
0
mm
0
394
in
and
must
not
be
reground
below
8
40
mm
0
331
in
The
run
out
of
the
disc
should
be
less
than
0
06
mm
0
0024
in
and
can
be
checked
with
a
dial
gauge
positioned
near
the
outer
diameter
of
the
disc
as
previously
described
REAR
DRUM
BRAKE
Removal
and
Installation
The
rear
drum
brakes
See
Fig
D
6
can
be
removed
and
inspected
as
described
in
the
section
BRAKING
SYSTEM
for
vehicles
fItted
with
L14
L16
LIB
engines
Examine
the
brake
drums
for
scoring
and
out
of
round
The
maximum
inner
diameter
of
the
drum
must
not
exceed
229
6
mm
9
040
in
after
reconditioning
Out
of
round
should
be
below
0
05
mm
0
002
in
Renew
the
brake
shoe
linings
if
they
are
contaminated
or
incorrectly
seated
or
if
the
thickness
of
the
lining
has
been
reduced
to
1
5
mm
0
06
in
or
less
Oil
or
grease
can
be
re
moved
from
the
linings
by
cleaning
thoroughly
with
carbon
tetrachloride
or
petrol
Check
the
shoe
return
springs
and
replace
them
if
they
have
become
weakened
Check
the
bores
of
the
wheel
cylinders
for
signs
of
wear
damage
or
corrosion
Renew
the
cylinders
and
pistons
if
the
clearance
between
the
two
parts
exceeds
to
0
15
mm
0
006
in
Renew
the
c
ps
when
overhauling
the
wheel
cylinders
MASTER
V
AC
SERVO
UNIT
Removing
and
Dismantling
The
servo
unit
should
be
removed
and
overhauled
at
yearly
intervals
A
Master
Vac
repair
kit
is
available
and
all
parts
marked
in
Fig
D
7
should
be
renewed
after
dismantling
the
unit
These
items
are
all
supplied
as
part
of
the
repair
kit
The
unit
can
be
removed
as
follows
Remove
the
clevis
pin
from
the
push
rod
and
detach
the
Master
V
ac
unit
from
the
brake
pedal
2
Disconnect
the
brake
tube
from
the
master
cylinder
and
the
vacuum
hooe
from
the
Master
Vac
3
Take
off
the
retaining
nuts
and
remove
the
Master
Vac
and
spacer
then
separate
the
master
cylinder
from
the
Master
Vac
Mark
the
front
cylinder
shell
and
the
rear
shell
and
stud
assembly
before
dismantling
the
unit
then
proceed
as
follows
S31