1969 DATSUN 610 check oil

carrying
out

extensive
tests

with
the

necessary
equipment
The

hoses
and
connectors
can
of
course
be
checked
for

signs
of

leakage
and
corrected
as

necessary
Also
the
tension
of
the
air

pump
belt

IGNITION
TIMING
AND
IDLING
SPEED

Emission
control

system

The

ignition
timing
should

be
set
and
the

idling
speed

mixture

adjusted
in
the

folloWing
manner

Run
the

engine
until
it
reaches
its
normal

operating
tem

perature
Connect
an

ignition
tachometer
and

timing
light
observ

ing
the
manufacturers
instructions

NOTE
If
the
vehicle
is

equipped
with
automatic
transmission

make
sure
that
the

dashpot
does
not

prevent
the
throttle
from

closing
Turn

the
throttle
shaft
arm

adjusting
screw
anti
clock

wise
so
that
the

tip
of
the
screw

is
clear
of
the
throttle
shaft

arm
see

Fig
A

26

Turn
the
throttle

adjusting
screw
to
set
the

idling
speed
to

700
r

p
m
650

rpm
for

automatic
transmission

Adjust
the

ignition
timing
to
5
A

T
D
C
Refererence
should
be
made
to

the
instructions

given
in
the
section
IGNITION
SYSTEM
for

the
L14
L16
and
LI8

engines
for

ignition
timing
details

Turn
the

idling
adjustment
screw
and

throttle
adjusting
screw

until
the

engine
runs

smoothly
a
t
the
correct

idling
speed
Turn

the

idling
adjustment
screw
clockwise
until
the

engine
speed

starts
to

drop
as
a
weaker
mix
ture
is

obtained
Now
turn

the

idling
adjustment
screw
anti
clockwise

by
one
turn
one
and
a

half
turns
for
automatic

transmission
to
obtain
a
richer
mix

ture

Adjust
the

idling
speed
to
700

rpm
650

rpm
for

automatic

transmission

by
turning
the
throttle

adjusting
screw
Make
sure

that
the
ignition
timing
remains
at
50
A
T
D

C

Turn
the
throttle
shaft
ann

adjusting
screw
clockwise
until

the

tip
of
the
screw

just
contacts

the
throttle
shaft
ann
The

screw
must
not
exert

pressure
on
the
throttle
shaft
arm

EMISSION
CONTROL
SYSTEM
Maintenance

The

system
should
be

inspected
and
serviced

every
I
2

months
or
20
000
km

12
000
miles
whichever
comes
fIrst
to

make
sure
that
the
exhaust
emissions
are
maintained
at
the

minimum
level

Check
the
carburettor
choke

setting
and

adjust
as
described

in
the
section
FUEL

SYSTEM

Check
the
carburettor

idling
speed
mixture

and

adjust
if
necessary
as
described
under
the

heading
IGNITION

TIMING
AND
IDLING
SPEED

in
this
section

2
Check

the
distributor
earn

dwell

angle
and
also
the
condi

tion
of
the
contact
breaker

points
Check
the

ignition

timing
and

adjust
if

necessary
The

distributor
dwell

angle

should
be

adjusted
to
49
55

degrees
and
the

points
gap
to

0
45

0
55
mm
0
0177
0
0217
in

3
Remove

and
clean
the

sparking
plugs
Renew

any
plug
with

badly
worn
electrodes
Set
the

plug

gaps
to
0

80
0
90
mm

0
0315
0
0355
in

by
adjusting
the
earth
electrode

IGNITION
SYSTEM

The

maintenance
and

servicing
procedures
for

the

compo

nents
of
the

ignition
system
on

vehicles
fitted

with
the
GIS

engine
are

basically
similar
to

the
instructions

previously
given

for
the
Ll4
LI6
and
LIS

engines
The
distributor
is
however

of

a
different

type
Either
an
Hitachi
0416
57
distributor

being

fitted
or
an

Hitachi
0423
53
if

the
vehicle
is

equipped
with
an

emission

control

system
The
distributors
have
different

advance

curve
characteristics
as
shown

in
Technical
Data

IGNITION
TIMING

Check
the

ignition

timing
with
a

timing
light
as

previously

described

for
the
LI4
L16
and
L

8

engines
Disconnect

the

distributor
vacuum
line

and
run

engine
at

idling
speed
or

slightly
below
The

timing
should

be
set
at
8

BTDCj600

rpm

for
the
D416

57
distributor
or
at
5

ATDCj600

rpm
for

the

D423
53
distributor
fItted
to

engines
with
emission
control

systems

IGNITION
DISTRIBUTOR

Maintenance

Maintenance
instructions
are

similar
to
those

given
for

the
L14
LI6
and
L18

engines
Set
the
contact
breaker

points

gap
to
0
45
0
55
mm
0
0177

0
0217
in
as

previously

described

SPARKING
PLUGS

The

sparking
plugs
should
be

inspected
and
cleaned
at

regular
intervals
and
renewed
at

approximately
20
000
kIn

12
000
miles
Clean
the

plugs
thoroughly
and
make
sure

they

are
of

the
same

type
and
heat

range
File

the
centre

electrode

nat
before

adjusting
the

gap
Set
the

gap
to

0
8
0
9mm
0
031

0
035
in
if
the

engine
is
fItted
with
emission
control

system

or
to

0
7
0
8
mm
0
028

0
031
in
if
emission
control
is
not

fitted

Adjustment
must

always
be
made

by
bending
the
earth

electrode

TechnIcal

Data

GENERAL
SPECIFICATION
GI8

Engine

Cylinders

Bore
and
stroke

Displacemen
t

Valve

arrangemen
t

Firing
order

Engine
idler

speed

Compression
ratio

Oil

pressure
at

3000
r

p
m
4
in
line

85x80
mm

3
346x3
150

in

1
815
cc

110
8
cu
in

OHC

134
2

600

r

p
m
STD

8
3
I

4
7
to
5
5

kgjsq
cm
66
8

to
78
2

Ibjsq
in
LIQUID
PACKING

APPLICATION

Cylinder
block

2

Cylinder
head

Oil

gallery
blind

plug

Expansion

plug

Gas
breather

guide

Rear

bearing

cap
fitting

surface

Rear

bearing

cap
side
seal

both
ends
Expansion
plug

Rubber

plug
Rea

Manifold
heat

pipe

3
Chain
cover

gasket
both
sides

S13

Crank
shaf
bend
Less
than
0
02
mm

0
0008
in

e
Piston

Pis
on
diameter

Ellipse
difference

Ring
groove
wid

h
84
968
85
0
mm

3
345
3
346
in

0
4
mm
0
01
7

in

Top
0
05
0
0020

0
0
03
mm
0
0787
0
001
in

Second
I
03
0
0012

2
0
0
01
mm
0
0787
0
0004
in

Oil
0
03
0
0012

4
0
0
01
mm
0
1575
0
0004
in

Piston

ring
side
clearance
0
035
0
55
mm

0
0014
0
0022
in

Top
0
04
0
08
mID

0
0016
0
0031
in

Second
0
02
0
06
mm

0
0008
0
0024
in

Oil
0
02
0
06
mm

0
0008
0
0024
in
Piston
to
bore
clearance

Ring

gap
Top
0
35
0
55
mm

0
0138
0
0217
in

Second
0
3
0
5
mm

0
0118
0
0197
in

Oil
0
35
0
55
mm

0
0138
0
0217
in

Top
0
01
0
0004

2
0
03
mm
0
0787
0
0012
in

Second
0
01
0
0004

2
0
03
mm
0
0787
0
0012
in

Oil
0
Q1
0
0004

4
0
03mm
0
I575
0
0012in
Ring
height

Piston

pin

interferenl
c
fit
of

piston
pin
to

piston
o
0
09
mm

0
0
0035

in

0
003
0
013
mm

0
0001
0
0005
in
Clearance
between

piston

pin
a

connecting
rod

bushing

Piston

pin
outer

diameter
21
991
22
0
mm

0
8658
0
8661

in

Connecting
rod

bushing
inner
diameter
21
995
22
008
mm

0
8659
0
8664
in

EMISSION
CONTROL

Crankcase
emission
con
trol
Closed

type

Exhaust
emiision
control
Nissan

Air
Injec
ion

System
Anti
backIrre
valve

Carburettor

Nihonkikaki
D3034C
Type

Model

Duration
time
Air

by

pass

DV54

1
3
L7
sec
at
500

Hg
9
7

in
Hg
Distribu

or
Hitachi
D423

Spark
plugs
BP

6E
Check

valve

Air

pump
Type

Opening
pressure
AMC

0
15

mAq
5
91
in

Aq

Model

Capacity

Pulley
ratio
ECP
20Q
IA

200
cc
rev

120
120
1
00
Cooling
fan

Type

No
of
blades
Spider

4

S16

1

D
1

1
I

i
l

I

1
j
j

w
n

I

UJ
1

j

e

tOll
i

j25z
t2JZ2
21

1
S
Mizin
nozzk

2
S
SmtzJJ
v
nturi

3
S
Main

air
bleed

4
S

Slow
jet

5
S

Slow
air
bleed

6
Needle
WIlve

7
Float

8
S
Emulsion
tube

9

S

Mainjd

10

S

Jly
paD
hol

11
S
Throttle

alve

12

Chob
I1tzhe

13
P
Main
air
bleed
14
P
Afuin
nozzle

15
Economizer
bleed

16
P
Slow

jet

17
Slow
onomiur

18
P
Slow
air
bleed

19
Airl
e
nt

20
Lnel

gauge

21

PMainjel

22
Idle

limitler

23
1dl

24
P

Jly

pa
hol

2S
P
Throttle
vahe

Fig
B
l
Sectional
view
of
the
DAK340
carburettor

Coil

Piiton

Strainer

v

cero

Fig
S
3
Electrical
fuel

pump

SI8
A
It
I

IL

o
l

Cfd

rj
1

l
o

j

11
111

r
J

l
l

b

I
1

1
F700
t
vahle

2
Vacuum

piJton

3
P

Slow
air
bleed

4
Slow

jtt

5
Slow

onomUt
T

6
P
Slow
air
bleM

7

Air
Fent

8
P
Main
air
bl
d

9
P
MiJin
nozzle

10
P
SmaU
venturi

1
J
Ozokt
valPe

12

Pumpnozzk

13

Pump
wd6h1

14

Discharft
check
valve

15
S

SnwU
venturi

17
S
Main
air
bleed

18

Step
air
bleed

19

Pump
arm

Fig
B
2
Sectional
view
of
the
D3034C
carburet
tor

fitted
to

engines
with
emiss
ion
control

5Y5tem
20

Step
jet

21

Pump
plunger

22
Inlet
c1r
k
l
aIve

23
S
Mizin

jet

24

lRtzp
uaun

25

lRtzplrragm

26

Step
port

27
Idle

port

28
P
T1vottk
valve

29
Idk

port

30
S
Dw

port

31

Idkadjust
screw

32
P
MiIin

jet

33
Po
NU

jet

34
Float

I

Ul

l

2

1
Fibre
mat

Nvlon
6

Fig
B
4
Fuel

strainer
Fig
Ii

s

Removing
the
fuel

pump
cover

1

The

type
D3034C
carburettor
has
certain
additional

features

These
include
a

power
valve
mechanism
to

improve
the

performance

at

high
speed
a
fuel
cut
off
valve
which
cuts
the
fuel

supply

when
the

ignition
key
is
turned
to
the
off
position
and
an

idling

limiter
to

maintain
the

emissions
below
a

certain
level

Sectional
views
of
the
two

types
of

pumps
are
shown
in

Figs
8
1
and
B
2
An
EP
3
electrical
fuel

pump
is

located
in
the

centre

of
the
spare
wheel

housing
in
the
boot

Fig
B
3
shows
a

sectional
view
of
the

pump
with
its
contact

the
pump
mechanisms

solenoid

relay
and
built
in
filter

The
air
cleaner
uses
a

viscous

paper
type
element
which

should
be

replaced
every
40
000
km
24
000
miles

Cleaning

is
not

required
and
should
not
be

attempted

The

cartridge
type
fuel
strainer

incorporates
a
fibre
clement

which
should
be
renewed
at
inervals
not

exceeding
40
000
km

24
000
miles
Fit
B
4
shows
a
sectional
view
of

the
assembly

The
fuel
lines
should
not
be
disconnected
from
the
strainer
when

the
fuel
tank
is
full

unless
absolutely
necessary
as
the
strainer

is
below
the
fuel
level

FUEL
PUMP

Testing

Disconnect
the
fuel
hose
from
the

pump
outlet
Connect

a
hose
with

an
inner
diameter
of
approximately
6
mm
0
024

in
to

the

pump
outlet
and

place
a

container
under
the
end
of

the

pipe
Note
that
the
inner

diameter
of
the

pipe
must
not
be

too

small
or

the
pipe
will
be

incapable
of

delivering
the
correct

quantity
of
fuel
when

testing
Hold
the
end
of
the
hose
above
the

level
of
the

pump
and

operate
the

pump
for
more
than
IS

seconds
to
check
the

delivery
capacity
The

capacity
should
be

I
400
cc

3
24
U
S

pts
in
one
minute
or
less
The

pump
must

be
removed
from
the
vehicle
if
it
does
not

operate
or
if
a

reduced

quantity
of
fuel
flows
from
the
end
of
the
hose
Remove

the
pump
from
the
vehicle
and
test
as
follows

Connect
the

pump
to
a

fully
charged
battery
If
the

pump

now

operates
and

discharges
fuel

correctly
the
fault
does
not

lie
in
the

pump
but

may
be
attributed
to

any
of
the

following

causes

Battery
voltage
drop

poor
battery
earth
loose

wiring

loose
connections
blocked
hoses
or
a

faulty
carburettor

If
the

pump
does
not

operate
and

discharge
fuel
when

connected
to
the

battery
then
the

pump
itself
is

faulty
and

must
be
checked
as
follows

First
make
sure
that
current
is

flowing
This
will
be
indica

ted

by
sparking
at

the
tenninals
If
current
flows
the
trouble
is

caused

by
a

sticking

pump
plunger
or

piston
The

pump
must

be
dismantled
in

this
case
and
the

parts
thoroughly
cleaned
in

petrol

If

the
current
does
not
flow
a
coil
or
lead
wire
is
broken

and
the

pump
must

be
renewed
A

reduced
fuel
flow
is
caused

by
a

faulty
pump
inlet
or

discharged
valve
or
blocked
filter

mesh
The

pump
must

of
course

be
dismantled
and
serviced
as

necessary

FUEL
PUMP

Removing
and

Dismantling

Remove
the
bolts

attaching
the
fuel

pump
cover
to

the

floor

panel
see

Fig
B
S
Remove
the
bolts

attaching
the

pump
to
the
cover

2
Disconnect
the
cable
and
fuel
hoses
Withdraw

the

pump
Dismantle
as
follows

Slacken
the

locking
band
screws
and

remove
the
strainer

strainer

spring
filter
strainer
seal
and

locking
band

Remove
the

snap
ring
Withdraw
the
four
screws
from
the

yoke
and
remove

the
electromagnetic
ulJ
it
Press
the

plunger
down
and
withdraw
the
inlet
vaive

the

packing

and
the
cylinder
and

plunger
assembly

A
defective
eledrical
unit

cannot
be
dismantled
as

it
is

sealed
and
must

be
renewed
as
a

complete
unit

FUEL
PUMP

Inspection
and

Assembly

Wash
the
strainer
filter
and

gasket
in

petrol
and

dry
using

compressed
air
Renew
the
filter
and

gasket
if

necessary
Note

that
the
filter
should
be
cleaned
every
40
000

km
24
000

miles
Wash
the

plunger
piston
and
inlet
valve
in

petrol
and

make
sure
the

piston
moves

smoothly
in
the

cylinder
Replace

the

parts
if
found
to
be
defective

Insert
the

plunger
assembly
into
the

cylinder
of
the
electri

cal
unit
and
move

the

assembly
up
and
down
to

make
sure
tha
t

the
contacts
are

operated
If
the
contacts
do
not

operate
the

electrical
unit
is

faulty
and
must

be
renewed

Assembly
is
a
reversal
of

the
dismantling
procedures
tak

ing
care
to
renew
the

gaskets
as

necessary

CARBURETIOR

Idling
Adjustment

The
D3034C
carburettor
fitted
to

engines
equipped
with

an
emission
control

system
must
be

adjusted
as
described
under

the

heading
IGNITION
TIMING
AND
IDLING
SPEED
in
the

section
EMISSION
CONTROL
SYSTEM

Reference
should
be
made
to
carburettor

idling
adjustment

procedures
for
the
L14
L16

and
LI8

engines
when

adjusting

the
type
DAK
340
carburettor
fitted
to
the
G
18

engine
A
smooth

engine
speed
of

approximately
550

rpm
should
be
attained
in

this
case

FUEL
lEVEL

Adjustment
DAK
340earburettor

A
constant
fuellevcl
in
the
float
chamber
is
maintained

by

the
float
and
needle
valve
See

Fig
8
6
If

the
fuel
level
does
not

correspond
with
the
level

gauge
line
it
will
be

necessary
to

care

fully
bend
the
float
seat
until
the
float

upper
position
is

correctly

set

The
clearance
H
between
valve
stem
and
float
seat

should

be
I
5
mm
0
0059
in
with
the
float

fully
lifted

Adjustment

can
be
carried
out

by
carefully
bending
the
float
stopper
3

FUEL
lEVEL

Adjustment
D3034Ccarburettnr

The
fuel
level
should

correspond
with
the
level

gauge
line

Adjustment
can

be
carried
out
if

necessary
by
changing
the

gaskets
between
the
float
chamber

body
and
needle
valve
seat

The
gaskets
are
shown
as
item
4
in

Fig
B
7
When

correctly

adjusted
there
should
be
a

clearance
of

approximately
7
mm

0
027
in
between
float
and
chamber
as
indicated

STARTING

INTERLOCK
VALVE
OPENING

The

choke
valve
at
its

fully
closed
position
automatically

opens
the
throttle
valve
to
an

optimum
angle
of
14

degrees
on

the

type
DAK
340
carburettor
and
13
5

degrees
on
the
D3034C

carburettor
With
the
choke
valve

fully
closed
the
clearance

G

I
in

Fig
8
should
be
1

I
mm
0
0433

in
This
clearance

S19

Accelerator

pump

Piston
diameter

Pump
discharge

Outer
hole

position

Middle
hole

position

Inner
hole

position

Pump
nozzle
diameter

Main
nozzle

diameter

Primary

Secondary
14
0
mm
0
551
in

0
2
cc

per
stroke

0

4
cc

per
stroke

0
6
cc

per
stroke

0

5
mm
0
020

in

2
3
mm
0
0906
in

2
8
mm
0
110
in

Throttle

valve

fully
closed

angle

Primary
10

degrees

Secondary
20

degrees

Idling
opening
5

degrees
approx

Choke
valve

fully
closed

angle
10

degrees

Throttle

opening
at
full
choke
13
5

degrees

FUEL
PUMP

Type

Delivery
Electric

1400
cc
in
one
minute
Emission

control

system

Air

pump
bracket
to

cylinder

head
nut

Adjusting
bar
to
bracket
bolt

Air

pump
to

bracket
bolt

Air

pump
to

adjusting
bar

nut

Anti
backfrre
bracket
to

rocker

cover
0
4Q
0
65

kgm
2
94
7
lb
ft

Anti
backfire
valve
to

bracket
0
4Q
O
65

kgm
2
94

7
lb
ft

Sensing
hose

clamp
to
rocker

cover
0
4Q
0
65

kgm
2
M
7
Ib
ft

Air

gallery
to
exhaust
manifold

plug
5
Q
6

0

kgm
36
243
4lb
ft

Check

valve
to
air

gallery
9

0
10
5

kgm
65

1
75
9Ib
ft
1
6
2
4

kgm
I
1
6
17
4Ib
ft

1
6
2
4

kgm
I
1
6
17
4Ib
ft

1
6
2
4

kgm
I
1
6
17
4
lb
ft

1
6

2
4

kgm
11
6
17
4Ib
ft

Front

SuspensIon
SteerIng

Description

Steering
Maintenance

Wheel
hub
and

bearing

Stabilizer

Spring
and
strut

assembly

Transverse
link
and
lower
ball

joint

Suspension
member

Front
wheel

alignment

Steering
wheel
and
column

Rack
and

pinion
and
tie
rod

Collapsible
steering

DESCRIPTION

The
front

suspension
is
of
the
strut

type
with

the
coil

spring
and

hydraulic

damper
units
mounted
on
the
crossmember

and
transverse
link

assembly
See

Fig
C
I
Vertical
movement

of
the

suspension
is
controlled

by
the
strut

assembly
Forward

and
rearward
movement
is
absorbed

by
compression
rods
6

and
side
movement
controlled

by
the
transverse
links
Front

suspension
servicing
procedures
are
similar
to
those

given
for

vehicle
fitted
with
L14
Ll6
and
LIB

engines
and
can

be
carried

out

by
reference
to

the
instructions

given
in
the

appropriate

section
Camber
and
castor

angles
are

preset
and
cannot

be

adjusted
and
a

check
must

be
made
for

signs
of

damage
to

the

suspension
system
if
the

angles
do
not
confonn
to
the

figures

given
in
Technical
Data

The

steering
is
of
the
direct

acting
rack
and

pinion

type

See

Fig
C
2
A
rubber

coupling
which
absorbs
vibration
and

two
universal

join
ts
are

incorpora
ted
between
the

steering
wheel

and

gear
assembly
The

collapsible
type
of

steering
column

assembly

Fig
C3
is
an

optional
fitting
A
full

description
of
this

type
of

assembly
i

given
in
the

Steering
section
for
L14

L16
and
L18

engines

STEERING
Maintenance

The

steering
system
should
be
lubricated

every
two

years

or
50
000
km
30
000
miles
whichever
comes

fIrst

A
lithium
base

multipurpose
grease
must
be
used
for
the

rack
and

pinion
and
rack
and
tie
rod

joints
The

plug
on
the

steering
gear
housing
should
be
removed
and
a

grease
nipple

fitted
so
that
the
recommended

quantity
of
10
to

15

gram

0
35
to

0
53
oz
of

grease
can
be

injected
Remove
the

grease

nipple
and

replace
the
plug
when
lubrication
is

completed

The

grease
reservoir
on
the
tube
side
should
be

replenished
when

the
level
of

grease
falls
to

approximately
one
third
ofits

capacity

WHEEL
HUB
AND
BEARING
Removal
and
Installation

Wheel
hub
and

bearing
servicing
procedures
are
similar
to

those

previously
given
for
vehicles
fitted
with
L14
LI6
and
LIB

engines

S23

Gean
all

parts
thoroughly
and
renew
if

damaged
If
the

column
shaft
or

jacket
is

excessively
damaged
the

steering
gear

housing
must

be
checked
A

damaged
bearing
must

be

replaced

together
with
the
column

jacket
assembly

Assembly
is
a

reversal
of
the

dismantling
procedures
The

column
shaft

journal
should
be
lubricated
with

multipurpose

grease
which
can
also
be
used
to
fill

up
the
dust
cover
Grease

the
needle

bearing
when

assembling
the
universal

joint
Use

the

tightest
snap

ring
available
when

fitting
the
needle

bearing
Snap

rings
are

supplied
in
oversizes
of
0
95
mm
05
mm
and
1

5

mm

0
0374
0
0413
and
0
0453

in

Installation
of
the
column

assembly
is
a
reversal
of
the

removal

procedures
Tighten
the
rubber

coupling
bolts
to
a

torque
reading
of
I
S
to
1
8

kgm
I
0
8
to

13
0
Ib
ft
Refit
the

steering
wheel
and

tighten
the
nut
to
a

reading
of
4
0
to
5
0

kgm
28
9
to
36
2Ib
ft

RACK
AND
PINION
AND
TIE
ROD

Removing
and

Dismantling

1

Jack

up
the
vehicle
and

support
it
on
stands
Remove
the

road
wheels

2
Slacken
the
bolts

connecting
the

pinion
to
the

steering

lower

joint
See
Figs
C

16

3
Remove
the
bolts
from
the
steering
column
rubber
coupl

ing
See

Fig
C
15
and
remove
the

splash
board

Fig
C
17

4

Remove
the
tie
rod
ball
stud
nut
and
disconnect
the
tie

rod
from
the
knuckle
arm

Fig
C
I8

5
Lift
the

engine
slightly
with
suitable
tackle
but
take
care

not
to

damage
the
accelerator
or
remote
control

linkage

Remove
the
bolts

securing
the
steering
gear
housing
to
the

suspension
member
Withdraw
the
rack
and

pinion

assem

bly

Dismantle
as
follows

Detach
the

steering
lower

joint
from
the
rack
and

pinion

assembly
Clamp
the
unit
in
a
vice

taking
care
not
to

damage

the

steering
gear
housing

Refer
to

Fig
C
16
and
take
off
the
dust
cover
and
boot

clamps
at

both
sides
Slacken
the
stopper
nut

remove
the
tie

rod
inner
socket
and
disconnect
the
tie
rods
from
the
rack

Withdraw
the

spring
seat
and
tie

rod

spring
Take
off
the

steering

gear
boots
at
both
sides
Slacken
the
locknut
and

disconnect
the
tie
rod
outer
socket
from
the
ball

Slacken
the
locknut
remove
the
retainer

adjusting
screw

and
withdraw
the
steering

gear
retainer
See

Fig
C
19

Take
off
the
oil
seal
remove
the
snap
ring
and
withdraw

the

pinion
Remove
the

snap
ring
and
withdraw
the

bearing
from

the

pinion
Remove
the
filler

plug
and
take
out
the
rack
Remove

the

grease
reservoir

Clcan
all

parts
thoroughly
and

replace
any
which
show

signs
of
wear
or

damage
Check
the
axial
play
of
the
inner

and

outer
ball

joints
The

play
should
be
0
06
mm
0
0024
in
for

the
inner
ball
joint
and
from
0
1
to
0
5
mm
0
0039
to
0
0197

in
for
the
outer

joints
Use
a

spring
balance
to
check
the
force

required
to

swing
the
ball

joints
this
should
be
between
0
8
to

LS

kgm
5
8
to
10
8Ib
ft
Renew
the
oil
seal
Examine
the
retainer
and

tie
rod

springs

and

compare
them
with
the
values

given
in

Figs
C
20
and
c
n

RACK
AND
PINION
AND
TIE
ROD

Assembling
and
Adjusting

Press
the

bearing
on
to

the
pinion
gear
and
fi
t

the
tigh
test

snap
ring
available

Snap
rings
are

supplied
in
the

following
over

sizes

Snap

Ring
Thicknesses

1
04
to
1
09
mm
0
0409
to
0
0429
in

1
09
to
I
14
mm

0
0429
to
0
0449
in

1

14toI19mm
0
0449toO
0469in

Ll9
to
1
24
mm

0
0469
to
0
0488
in

1

24
to
1
29
mm
0
0488
to
0
0502
in

Clamp
the

steering
gear
housing
in
a

vice
Grease

the
teeth

and
friction
surfaces
of
the
rack
with

multipurpose
grease

Lubricate
the

gear
housing
from
the

pinion
housing
side

Ensure
that
the
rack

projects
by
an

equal
amount

of

96
mm

3
8
in
in
both
ends
of
the

housing
with
the
rack

teeth

directed
towards
the

pinion
shaft

Grease
the
pinion
teeth
end

bushing
and

pinion
bearing

Engage
the
tccth
of
the

pinion
with
the
rack
and
insert
the

pinion
Make
sure
that
the

bushing
does
not
become
damaged

The
rack
must

project
from
the

housing
by
an

equal
amount

at
each
side
with
the

groove
on
the

pinion
serration

facing

upwards

Fit
the

snap
ring
into
the
housing
groove
to
hold
the

bearing
outer
race

in

position
The

snap
ring
must

fit

tightly

and
can
be
selected
from
the

following
oversizes

Snap
Ring
Thicknesses

LS5
to

1
60
mm
0
0610
to
0
0630
in

1
60
to
1
65
mm
0
0630
to
0
0650

in

1
65
to
I
70
mm
0
0650
to
0
0669
in

1
70
to
I
75
mm
0
0669
to
0
0689

in

Fit
the
oil
seal
Use
a
dial

gauge
as

shown
in

Fig
C
22
to

check
the
thrust

play
of
the
pinion
The

play
should
be
less

than
0
09mm
0
0035
in

Grease
the
retainer
and
insert
it

with
the
spring
Tighten

the
retainer
adjusting
screw

fully
then
back
it
off

by
20
to

25

degrees
Tighten
the
locknut
to
a

torque
reading
of
4
0
to

6
0

kgm
28
9
to
43
4lb
ft
Coat
the
locknut
with

liquid
pack

ing
Three
Bond

When
the
rack
and

pinion
is
assembled
measure
the
force

required
to
rotate

the
pinion
and
also
the

preload
of
the
rack

Use
a

spring
balance
as
shown
in
Figs
C
23
and
C
24
and
check

that
the

pinion
torque
is
8
to
20

kg
cm
7
to
17
Ib
in
and
the

rack

preload
is
from
8
to
18

kg
17
6
to
39
7Ibs
Take
care

to
slide
the

assembly
over
the

complete
range
of
the
stroke

Fit
a
dust
cover

clamp
at

each
end
of
the
housing
Install

the

stop
nut
on
the
threads
of
the
rack

Liberally

grease
the
ball
joint
friction
area
of
the
tie
rod

assembly
Assemble
the
spring
and
ball
seat
and
fit
the
inner

socket

part
of
the
tie
rod

assembly
to
the
rack
Make
sure
the

boot
is

positioned
at
the
ball
stud
end
Note
that
the
left
hand

tie
rod
is
marked
with
an

L
the

right
hand
rod
is
not
marked

527

Tighten
the
inner

socket
until
the
ball
seat
is
at

the
rack

end
then
back

off
the
socket

by
30
to

40

degrees
and

tighten

the

stop
nut

to
a

torque

reading
of
8
0
to
10
0

kgm
57
8
to

72
3
Ib
ft
as

shown
in

Fig
C
25

With
the

tie
rod
assembled
measure
the
force

required
to

swing
the
tie
rod
Hook
a

spring
balance
at
the
end
of

the
rod

as
shown
in

Fig
C

26
and
check
that
the
force
is
from
3
0
to

6

0

kgm
6
6
to
13
2
lb
Measure

the
stroke
of
the

rack
which

should
be
73
0
mm

2
874
in
Fit

grease
nipples
at
both

ends
of
the
rack
and

pinion
housing
Apply
multipurpose
ase

to
each

joint
until

a
small

quantity
of

grease
appears
at

the
out

let

hole
in
the
boot
Do
not
use
an
excessive

amount
of

grease

The

pinion
housing
should

be
lubricated
until
a
small

quantity

of

grease

appears
between

rack
and

housing

Remove

the

grease
nipple
and
fit
the

plug
Fit
the
boot

Fill

the
grease
reseIVoir
with

grease
and
attach
it
to

the
rack

housing
Adjust
the

length
of

the
tie
rods
at
both

sides
as

des
ribed
under
FRONT
WHEEL

ALIGNMENT

Assemble
the

steering
lower

joint
to
the

rack
and

pinion

and

tighten
the
lower

joint
bolt
to

a

torque
reading
of
4
0
to

5
0

kgm
29
0
to

36
0
Ib
ft
Installation
of

the
rack
and

pinion
assembly
is
a
reversal

of

the
removal

procedure

COLLAPSIBLE

STEERING

Removi
8
and

Dismantti
8

The

steering
coluJllfl
See

Fig
C
3
can
be
removed

in
a

similar
manner
to
the
standard

type
of
column

Take
care
not

to

drop
the
column

when
it
is
removed
from
the

vehicle
or
the

shaft

may
collapse
Do
not
exert

any
pressure
on

the
column
or

the
bellows
may
be
defonned
To
dismantle

proceed
as
follows

Remove
the

retaining
wire
and

pull
out

the
lower
shaft

Disconnect
the
control

linkage
if
the
vehicle
is
fitted
with
auto

matic
transmission
Slide
the

steering
shaft
bracket

away
With

draw
the

screws
and

separate
the

upper
and
lower
tubes

Assembly
is
a
reversal
of

the

dismantling
procedure
Note

that
the
slot
in
the
universal

joint
must
be

aligned
with
the

punch

mark
at
the

top
of
the

upper

steering
shaft
as
shown
in

Fig
C
28

When

installing
the
column
make
sure
that

the
bellows
do
not

become
bent
of
twisted

as
the

clamp
and
bottom

plate
bolts

are

tightened

TechnICal
Data

TYP

Gear
I1ltio
Rack
and

pinion

17
8
I

Steerin
column
shaft

spring
Wire
diameter

Freelenath

CoiltW
llJ

Load

length

Retainer

sprinJ
dimension
Wire
diameter

F

CoilturnJ

l
oadxlensth

Side
rod

SPrina
dimeruion
Wire
diameter

Fn
elenath

Coil
turns

Load
x

lensth

Side
rod
inner
ball

joint
ax
ia
I

play

Side
rod

outer
ball

joint
uiaJ

play

Pinion

thrultplay

Retainer
float

play

Rack
moke

Side
rod
inner
ball

joint

swinsinl
torque

Side
rod
uter
ball

joint

swingina
torque

Pinion
oration

torque

Rack

pre1
d

Wheel

alipment
1IIl1a
a
ondition

Cut

c
m

Kinl
pin
inclination

Toe
in

S
In

teerinlan

eOut
10
40

8005

12

15
mm
0
47
0

59
in

38024

35036
2
9

mm
0
11
2
in

36
5
mm

1
4370
in

3

25q
551
18mm
0
7087

2

6
mm
1
102in

26
3
mm
1
035
in

5
5

20

kl
lbs

16
3

mm
0
642
in

26
mm

0
102

in

19
0
mm
0
748

in

6
3

40

q
88Ibs
17
0

mm
0
669
in

0
06
mm
0
002
m

0
1
0
5
mm

0
0039
0

0197
in

less
than
0
3
mm
0

0118
in

0
09
mm
0
0035
in

73
mm
t

2
87
in

0
8
1

5

q
m

5
8
10

8Ib
n

0
8
J
S

kg
m
5
8
JO
8Ib
ft

8

20q
7
17
lb

in

8
18

q
l7
6
39

7Ibs

Strut

DlelDbly

Strut
outer
Ilia

50
8
mm

2
0
in

Piston
rod
di
a

20
mm

0
787
in

Cylinder
inner
dia
30mm
I
181
in

Dampinl
force
at

pistonlpeed

0
3
m
I

1
08
ft
I

Expansion
67

IOq
I47
7
221bs

Compression
25

4kl
55
1

8
81bs

Shock
absorber
inner

cylinderlcngth
IOmm
16
1

in

R
IlD
vchicle

LH
D

ehide

CoiIsprina

LIi
IlIi
OOIh

Wire
diameter
mm

in
12
0
472
12
0
472
12
0
472

Coil
diameter
mm
in

130
5
12
130
5

12
130
5
12

Coil
Ium
S

Coil

effective
turnl

6
5
6
5
6
5

Free

lenJth
mm
in
371
5
14
6
386
5
15

2
371
5
14
6

Installed
hei
ht
load

mmq
180
270
200

270
180
270

in
lb
7
1
594
7

9
594
7
1
594

SpriDgCOfl
ltant

ka
mm

1
45
US
1
45

529

1

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