a
California
models
Non
california
modeli
Except
Canada
Canada
III
C
A4
A15
A14
AI5
A
4
a
M
T
AfT
AfT
M
T
A
T
M
T
FU
A
r
MfT
AfT
11
1
4
DCH306
61
DCH306
63
DCH306
69
DCH306
60E
DCH306
68
DCH306
67
DCH306
68
DCH306
60
DCH306
12
0
a
Fuel
level
adjustment
Fuel
level
from
top
of
19
0
75
19
0
75
19
0
75
19
0
75
19
0
75
19
0
75
19
0
75
19
0
75
19
0
75
carburetor
body
mm
in
H
Gap
between
vlave
stem
and
float
scat
mm
in
t5
0
59
IS
0
59
IS
0
59
IS
0
59
IS
0
59
IS
0
59
IS
0
59
IS
0
59
IS
0
59
H
1
3
to
1
7
1
3
to
1
7
1
3
to
1
7
1
3
to
1
7
1
3
to
1
7
1
3to17
1
3
to
1
7
1
3
to
1
7
1
3
to
1
7
h
0
051
to
0
051
to
0
051
to
0
051
to
0
051
to
0
051
to
0
051
ro
0
051
to
0
051
to
0
067
0
067
0
067
0
067
0
067
0
067
0
067
0
067
0
067
Bi
metal
setting
Center
of
Center
of
Center
of
Center
of
Center
of
Center
of
Center
of
Center
of
Center
of
Bi
metal
setting
index
mark
index
mark
index
mark
index
mark
index
mark
index
mark
index
mark
index
mark
index
mark
Bi
metal
resistance
3
7
ro
8
9
3
7
to
8
9
3
7
to
8
9
3
7
to
8
9
3
7
to
8
9
3
7
to
8
9
3
7
to
8
9
3
7
to
8
9
3
7
to
8
9
at
210C
700F
n
m
Fast
idle
adjustment
Fast
idle
0
73
to
0
84
1
00
to
1
14
1
00
to
1
14
0
73
to
0
84
1
00
to
1
14
0
73
to
0
84
1
00
to
1
14
0
73
to
0
84
m
earn
2nd
step
1
00
to
1
14
CO
T1
0
0287
to
0
0394
to
0
0394
to
0
0287
to
0
0394
to
0
0287
to
0
0394
to
0
0287
to
0
0394
to
S
W
Gap
between
throttle
valve
and
0
0331
0
0449
0
0449
0
0331
0
0449
0
0331
0
0449
0
0331
0
0449
Cl
carburetor
body
mm
in
Fast
idle
speed
at
2nd
earn
step
1
900
to
2
700
2
400
to
3
200
2
400
to
3
200
1
900
to
2
700
2
400
to
3
200
1
900
to
2
700
2
400
to
3
200
1
900
to
2
700
2
400
to
3
200
Cl
rpm
Vacuum
break
adjustment
1
80
to
1
98
1
80
to
1
98
1
80
to
1
98
1
80
to
1
98
1
80
to
1
98
1
98
to
2
16
1
80
to
1
98
1
80
to
1
98
1
80
to
1
98
Gap
between
choke
valve
0
0709
to
0
0709
to
0
0709
to
0
0709
to
0
0709
to
0
0780
to
0
0709
to
0
0709
to
0
0709
to
and
carburetor
body
mm
in
0
0780
0
0780
0
0780
0
0780
0
0780
0
0850
0
0780
0
0780
0
0780
Choke
unloader
adjustment
Gap
between
choke
valve
and
2
36
0
0929
2
36
0
0929
2
36
0
0929
2
36
0
0929
2
36
0
0929
2
17
0
0854
2
36
0
0929
2
36
0
0929
2
36
0
0929
carburetor
body
mmOn
Interlock
opening
of
primary
and
5
83
0
2295
5
83
0
2295
5
83
0
2295
5
83
0
2295
5
83
0
2295
5
83
0
2295
5
83
0
2295
5
83
0
2295
5
83
0
2295
secondary
throttle
valves
mm
On
Dash
pot
adjustment
1
900
to
2
100
1
900
to
2
100
1
900
to
2
100
2
300
to
2
500
1
900
to
2
100
1
900
to
2
100
1
900
to
2
100
2
300
to
2
500
1
900
to
2
100
without
loading
rpm
Throttle
opener
operating
pressure
560
20
560
20
560
20
520
20
520
20
520
20
5
0
20
520
20
0
m
sea
level
and
760
mmHg
22
05
22
05
22
05
20
47
20
47
20
47
20
47
20
47
29
9
inHg
atmospheric
pressure
0
79
0
79
0
79
0
79
0
79
0
79
0
79
0
79
mmHg
inHg
Remove
snap
ring
CD
and
lock
bolt
@
and
the
following
parts
can
be
detached
from
heat
control
valve
shaft
Key
ID
Counterweight
@
Thermostat
spring
@
Coil
spring
@
Note
As
previously
descnbed
heat
control
valve
j
is
welded
to
valve
shaft
@
at
exhaust
manifold
and
cannot
be
disassembled
To
install
reverse
the
removal
procedure
INSPECTION
1
With
engine
stopped
visually
check
the
quick
heat
manifold
system
for
the
following
items
I
Check
heat
control
valve
for
malfunction
due
to
break
of
key
that
locates
counterweight
to
valve
shaft
2
Rotate
heat
control
valve
shaft
with
fingers
and
check
for
binding
between
shaft
and
bushing
in
closing
and
opening
operation
of
heat
control
valve
If
any
binding
is
felt
in
rotating
operation
move
valve
shaft
in
the
rotation
direction
several
times
If
this
operation
does
not
correct
binding
condition
it
is
due
to
seizure
between
shaft
and
bushing
and
exhaust
mani
fold
should
be
replaced
as
an
assem
bly
Emission
Control
System
Counterweight
Heat
control
valve
Stopper
pin
EC249
Fig
EC
IO
Checking
Heat
Control
Valve
Movement
2
Run
engine
and
visually
check
counterweight
to
see
if
it
operates
properly
I
When
engine
speed
is
increased
discharge
pressure
of
exhaust
gases
causes
counterweight
to
move
down
ward
clockwise
2
For
some
time
after
starting
engine
in
cold
weather
counterweight
turns
counterclockwise
until
it
comes
into
contact
with
stopper
pin
installed
to
exhaust
manifold
EC
9
Counterweight
gradually
moves
down
clockwise
as
engine
warms
up
and
ambient
temperature
goes
higher
around
exhaust
manifold
If
it
does
not
move
at
all
check
and
replace
thermostat
spring
AIR
INJECTION
SYSTEM
A
I
S
DESCRIPTION
The
Air
Injection
System
A
I
S
is
adopted
on
U
S
A
models
except
FU
models
and
injects
compressed
air
secondary
air
coming
from
the
air
pump
into
the
exhaust
port
of
the
cylinder
head
to
reduce
hydrocarbons
He
and
carbon
monoxide
CO
in
exhaust
gas
through
recombustion
There
are
two
types
of
Air
Injection
System
Fresh
outside
air
is
drawn
by
the
air
pump
through
the
air
pump
air
cleaner
Compressed
air
is
injected
into
the
exhaust
manifold
through
the
check
valve
The
A
B
valve
supplies
air
from
the
carburetor
air
cleaner
to
the
intake
manifold
so
as
to
prevent
after
fire
during
deceleration
The
amount
of
injected
air
is
con
trolled
by
C
A
C
valve
California
models
or
air
relief
valve
Non
California
models
Emission
Control
System
r
@
@
CD
L
I
1
Air
pump
drive
hub
5
V
ne
2
Housing
6
Carbon
shoe
3
Rotor
rins
7
Shoe
spri
ng
4
End
cover
8
Stripper
with
needle
bearing
9
Rotor
shaft
Anti
backfire
A
B
valve
This
valve
is
actuated
by
intake
manifold
vacuum
to
prevent
backfire
in
the
exhaust
system
at
the
initial
period
of
deceleration
At
this
period
the
mixture
in
the
intake
manifold
becomes
too
rich
to
ignite
and
burn
in
the
combustion
chamber
and
burns
easily
in
the
ex
haust
system
with
injected
air
in
the
exhaust
manifold
The
A
B
valve
provides
air
to
the
intake
manifold
to
make
the
air
fuel
mixture
leaner
and
prevents
backfire
To
in
take
manifold
vacuum
EC069
Fig
EC
15
A
B
Valve
10
Ball
bearing
11
Front
bearing
cOYer
12
Pulley
13
Pulley
for
air
conditioner
Check
valve
A
check
valve
is
located
in
the
air
pump
discharge
lines
The
valve
pre
vents
the
backflow
of
exhaust
gas
which
occurs
in
the
following
cases
I
When
the
air
pump
drive
belt
fails
2
When
relief
valve
spring
fails
1
11
rom
pump
1
Spring
2
Rubber
valve
3
Seat
SecondarY
air
4
J
Exhaust
gas
EC322
Fig
EC
16
Check
Valve
Air
gallery
The
secondary
air
fed
from
the
air
pump
goes
through
the
check
valve
to
the
air
gallery
in
the
cylinder
head
It
EC
lt
14
Inlet
cavity
15
Outlet
cavity
EC066A
Fig
EC
14
Air
Pump
two
vane
lype
is
then
distributed
to
each
exhaust
port
and
injected
near
the
exhaust
valve
0
iJl
Ai
gallery
2
Exhaust
port
3
Exhaust
manifold
EC316
Fig
EC
17
Air
Gallery
Air
pump
relief
valve
Non
California
models
The
air
pump
relief
valve
controls
the
injection
of
secondary
air
into
the
exhaust
system
when
the
engine
is
running
at
high
speed
under
a
heavily
loaded
condition
It
accomplishes
the
following
functions
without
affecting
the
effectiveness
of
the
exhaust
emis
sion
control
system
Minimizes
exhaust
gas
tempera
ture
rise
2
Minimizes
horsepower
losses
reo
sulting
from
air
injection
into
the
exhaust
system
3
Protects
pump
from
excessive
back
pressure
To
carburetor
air
cleaner
Secondary
ir
Not
actuated
To
carburetor
air
cleaner
J
l
Secondary
sir
Actuated
EC294
Fig
EC
18
Air
Pump
Relief
Valve
c
A
C
valve
Californiamodels
The
C
A
C
valve
controls
the
quantity
of
secondary
air
fed
from
the
air
pump
according
to
the
load
condi
tion
and
it
discharges
the
secondary
air
into
the
atmosphere
to
prevent
overheating
of
the
catalytic
converter
This
valve
is
operated
by
intake
manifold
vacuum
and
air
pump
dis
charge
pressure
When
intake
manifold
vacuum
is
small
or
in
the
high
load
range
the
No
2
valve
opens
when
it
is
great
or
in
the
low
load
range
the
No
I
valve
opens
If
air
pump
discharge
pressure
is
large
or
the
engine
is
running
at
a
high
speed
the
No
3
valve
opens
admitting
the
air
pump
discharge
pressure
to
the
No
2
dia
phragm
chamber
of
the
C
A
C
valve
mission
Control
System
and
opening
ihe
No
i
valve
At
this
point
the
No
2
valve
serves
as
a
relief
valve
F
111
air
pump
No
3
valve
EC787
Fig
EC
19
C
A
C
Valve
I
Engine
in
low
speed
and
light
load
When
the
engine
is
operating
under
these
conditions
intake
vacuum
is
high
The
No
2
valve
unitized
with
the
No
I
diaphragm
is
lifted
by
the
intake
manifold
vacuum
pushing
up
the
No
I
valve
These
valves
will
then
stop
at
a
position
where
a
balanced
condition
exists
between
air
pump
discharge
pressure
an
d
spring
tension
acting
on
the
No
I
and
No
2
valves
The
No
2
jiaphragm
however
does
not
move
due
to
low
engine
speed
low
air
pump
discharge
pressure
and
spring
tension
acting
on
the
No
3
valve
For
this
reason
these
valves
are
brought
to
a
balanced
condition
To
intake
manifold
t
i
l
3
Spring
4
ValveNo
3
5
Di
phragm
No
I
I
@
6
Spring
7
Valve
No
1
8
Valve
No
2
EC683
Fig
EC
20
Operation
of
C
A
C
Valve
1
2
Engine
in
low
speed
and
heavy
load
EC12
Wheo
the
engine
is
operating
under
these
cooditions
intake
manifold
vacuum
is
low
and
all
valves
are
balanced
t
To
intake
manUol
U
E
ii
ji
j
Ii
5
LL
jj
Ii
JI
l
Jij
ulJC
1t
To
atmosphere
EC685
Fig
EC
21
Operation
of
C
A
C
Valve
2
3
Engine
in
high
speed
and
middle
load
When
the
engine
is
operating
under
these
conditions
intake
manifold
vacuum
lies
midway
between
1
and
2
above
The
No
3
valve
moves
to
the
left
because
of
high
air
pump
discharge
pressure
To
intake
manifold
t
L
J
f
E
bt
I
5
tfi
11
I
LJr
To
tmg
J
j
1
EC
4
Fig
EC
22
Operation
of
C
A
C
Volve
3
REMOVAL
AND
INSTALLATION
Air
pump
air
cleaner
Loosen
nuts
securing
air
pump
air
cleaner
to
bracket
then
detach
air
cleaner
from
bracket
Air
cleaner
filter
and
air
cleaner
lower
body
are
built
into
a
unit
construction
Replace
air
cleaner
filter
and
lower
body
as
an
assembly
Note
When
tho
vaCUUm
hose
is
dis
connected
plug
it
up
or
engine
will
stumble
EC
47A
FiJ
Fig
EC
49
Disconnecting
Vacuum
Hose
from
C
A
C
Valve
5
Connect
hand
operated
vacuum
pump
in
place
and
manipulate
it
in
order
to
apply
a
pressure
of
2oo
to
250
mmHg
7
87
to
9
84
inHg
to
C
A
C
valve
Increase
engine
speed
to
3
000
rpm
and
confIrm
that
no
air
leaks
from
C
J
C
valve
Fig
EC
50
Checking
C
A
C
Valve
1
6
With
the
above
condition
discon
nect
air
hose
at
check
valve
and
plug
it
up
At
this
point
confirm
the
air
leaks
from
C
A
C
valve
ECl48A
Fig
EC
51
Checking
C
A
C
Volve
2
Emission
Control
System
7
If
teshesults
satisfy
3
4
5
and
6
the
C
A
C
valve
is
properly
function
ing
AIR
INDUCTION
SYSTEM
A
I
S
DESCRIPTION
The
air
induction
system
A
1
s
is
adopted
on
the
FU
model
and
Canada
models
and
is
designed
to
send
see
ondary
air
to
the
exhaust
tube
utiliz
ing
a
vacuum
caused
by
exhaust
pulsa
tion
in
the
exhaust
tube
Air
inductIon
valve
A
reed
valve
type
check
valve
is
installed
in
the
air
cleaner
When
the
exhaust
pressure
is
below
atmospheric
pressure
negative
pressure
secondary
air
is
sent
to
the
exhaust
manifold
When
the
exhaust
pressure
is
above
atmospheric
pressure
the
reed
valve
prevents
secondary
air
from
being
sent
back
to
the
air
cleaner
EC
t8
The
exhaust
pressure
in
the
exhaust
tube
usually
pulsates
in
response
to
the
opening
and
closing
of
the
exhaust
valve
and
it
decreases
below
atmos
pheric
pressure
periodically
If
a
secondary
air
intake
is
opened
to
the
atmosphere
under
vacuum
con
ditions
secondary
air
can
be
drawn
into
the
exhaust
tube
in
proportion
to
the
vacuum
Therefore
the
air
induction
system
A
I
s
reduces
CO
and
HC
emissions
in
exhaust
gases
operatiug
the
same
as
the
air
injection
system
A
I
s
The
system
cpnsistsof
an
air
in
tJctio
valve
a
filter
an
A
B
valve
and
hoses
fl
V
t
5
1
Air
ind9ction
valve
2
Air
c
eancr
3
Carburetor
4
Exhaust
manifold
5
Anti
obRcldlre
valve
EC919
Fig
EC
52
Ai
Induction
SYltem
1
Reed
valvo
2
Stopper
EC920
Fig
EC
53
Air
Induction
Val
INSPECTION
Entire
system
I
Make
a
thorough
vjsual
check
of
E
G
R
control
system
If
necessary
wipe
away
oil
to
facilitate
inspection
If
any
hoses
are
cracked
or
broken
replace
2
With
engine
stopped
inspect
E
G
R
control
valve
for
any
indication
of
binding
or
sticking
by
moving
dia
phragm
of
control
valve
upwards
with
a
finger
3
With
engine
running
inspect
E
G
R
control
valve
and
thermal
vacu
um
valve
for
normal
operation
1
When
engine
coolant
tempera
tun
is
low
Make
sure
that
E
G
R
control
valve
does
not
operate
when
engine
speed
is
increased
from
idling
to
3
000
to
3
500
rpm
Place
a
finger
on
the
diaphragm
of
E
G
R
control
valve
to
check
for
valve
operation
EC773
Fig
EC
73
Checking
E
G
R
Control
2
When
engine
coolant
tempera
tureishigh
Emission
Control
System
Make
sure
that
E
G
R
control
valve
operates
when
engine
speed
is
in
creased
from
idling
to
3
000
to
3
500
rpm
Place
fingers
on
the
diaphragm
of
E
G
R
control
valve
to
check
for
valve
operation
If
E
G
R
control
valve
does
not
operate
check
as
follows
Disconnect
one
end
E
G
R
control
valve
side
of
vacuum
hose
connect
ing
ihermal
vacuum
valve
to
E
G
R
control
valve
Increase
engine
speed
from
idling
to
3
000
to
3
500
rpm
Make
sure
that
thermal
vacuum
valve
is
open
2
port
type
or
closed
3
port
type
and
that
car
buretor
vacuum
is
present
at
the
end
E
G
R
control
valve
side
of
vacuum
hose
If
vacuum
is
weak
or
not
present
at
all
replace
thermal
vacuum
valve
If
vacuum
is
present
check
E
G
R
control
valve
or
B
P
T
valve
If
any
difficulty
is
encountered
in
judging
the
condition
of
any
com
ponent
during
above
inspection
check
the
questionable
component
in
dependently
as
follows
U
S
A
models
Ie
EC160A
Canada
models
ET429
Fig
EC
74
Checking
Vacuum
of
E
G
R
Control
Valve
EC
25
E
G
R
control
valve
Dismount
E
G
R
control
valve
from
engine
I
Apply
vacuum
to
E
G
R
control
valve
referring
to
the
following
figure
If
the
valve
moves
to
full
position
it
is
normal
E
G
R
control
valve
will
remain
open
for
more
than
30
seconds
after
vacuum
has
cut
off
5t
orr
rl
1
1
Fig
EC
75
EC129A
Checking
E
G
R
Control
Valve
2
Visually
check
E
G
R
control
wive
for
damage
wrinkle
or
deforma
tion
3
Clean
the
seating
surface
of
E
G
R
control
valve
with
a
brush
and
compressed
air
and
remove
foreign
matter
from
around
the
valve
and
port
Fig
EC
76
Cleoning
E
G
R
Control
Valve
Thermal
vacuum
valve
3
port
type
Remove
thermal
vacuum
valve
from
engine
Inhale
air
from
port
ofE
G
R
system
and
check
to
be
sure
that
thermal
vacuum
valve
opens
or
closes
in
response
to
its
temperature
Thermal
vacuum
valve
dosing
temperature
Above
50
to
630
C
122
to
1450
F
e
In
o
L
1
Ignition
switch
2
Vacuum
switching
v3
lve
3
Top
detecting
switch
4
Function
check
connector
EC330A
i
Fig
EC
99
Checking
Top
Detecting
l
Switch
Vacuum
dela
valve
Remove
vacUum
delay
valve
2
Blow
air
from
th
port
of
the
distributor
side
The
vacuum
delay
valve
is
in
go
ij
condition
if
the
air
flows
through
the
valve
3
Try
again
from
the
opposit
side
of
the
valve
Th
valve
is
in
goo
condition
if
th
a
flow
resistance
is
greater
than
the
step
2
abov
Distributor
side
Carburetor
side
Distribu
tor
side
Carburetor
side
EC346
Fig
EC
100
Checking
Vocuum
Dewy
Valve
Emission
Control
Syst
m
4
If
the
condition
of
spark
delay
valve
is
questionable
dip
port
into
a
cup
filled
with
water
Blow
air
from
brown
face
side
Small
air
bubbles
should
appear
CAUTION
Be
c
areful
to
avoid
entry
of
oil
or
dirt
into
valve
7
E
C279
Fig
EC
101
Checking
Vacuum
D
lDy
Valve
CATALYTIC
CONVERTER
California
dels
DESCRIPTION
1
The
catalytic
converter
accelerates
the
chemical
reaction
of
hydrocarbons
CD
0
He
and
carbon
monoxide
O
in
the
exhaust
gas
and
changes
them
into
non
harmful
carbon
dioxide
C02
and
water
H20
This
chemical
reac
tiOD
process
requires
the
proper
a
mount
of
air
which
is
supplied
by
the
air
pump
Refer
to
the
item
AJ
S
This
air
is
called
secondary
air
The
Catalytic
converter
is
mounted
0
the
models
destinbd
for
California
OPERATION
Exhaust
gas
emitted
from
the
en
gine
contains
some
harmful
substances
due
to
incomplete
combustion
in
the
combustion
chamber
The
air
injection
stem
i
designed
to
reduce
the
con
tent
of
such
substances
in
the
exhaust
gas
In
this
system
the
secondary
air
is
led
from
the
ch
ck
valve
and
injected
in
o
the
exhaust
manifold
With
this
injection
of
the
secondary
air
hydro
carbons
He
and
carbon
monoxide
CO
in
the
exhaust
gas
are
gradually
oxidized
with
oxygen
02
in
the
secondary
air
and
converted
into
nOD
harmful
carbon
dioxide
C02
and
water
HP
The
catalytic
converter
further
cleans
engine
exhaust
gas
Through
catalytic
action
it
changes
residual
hydrocarbons
and
carbon
monoxide
contained
in
exhaust
gas
into
carbon
dioxide
and
water
before
exhaust
gas
is
discharged
to
the
atmosphere
0
Secondary
air
Carbon
monoxide
hydrocarbon
Carbon
dioxide
gas
Nater
EC
i
A
I
Front
tube
2
Catalytic
converter
3
Center
tube
4
Main
murner
EC
33
EC215
Fig
EC
I02
Function
of
Catalytic
Converter
The
3N71
B
trammission
is
a
fully
automatic
unit
consisting
primarily
of
a
3
element
hydraulic
torque
converter
and
two
planetary
gear
sets
Two
multiple
disc
c1utclies
a
multiple
disc
brake
brake
band
and
one
way
clutch
provide
the
friction
elements
necessary
to
obtain
the
desired
function
of
the
two
planetary
gear
ets
A
hydraulic
control
system
is
used
to
operate
the
friction
elements
and
automatic
shift
controls
TORQUE
CONVERTER
The
torque
converter
is
attached
to
the
crankshaft
through
a
flexible
drive
plate
Heat
generat
in
the
t
rque
converter
is
dissipated
by
circulating
the
transmission
fluid
through
an
oil
to
water
type
cooler
in
the
radiator
lower
tank
The
welded
comtruction
of
the
torque
co
verter
prevents
di
3
ssembly
or
service
unless
highly
specialized
equipment
is
available
Qj
gJ
Autpmatic
Trimsmissi6n
DEScRIPTION
FLUID
RECOMMENDAnON
Use
DEXRON
type
automatic
transmission
fluid
only
IDENTIFICATION
NUMBER
Stamped
position
The
plate
is
attached
to
the
right
han
side
of
transmission
case
AT
M
Fig
AT
l
Identification
Number
Identification
of
number
arranaemanta
JAPAJllUTOIlATlC
TRAJISIIISSIO
C8
Ull
MODEL
X
0
12
3
NO
7
6
0
1
2
34
Number
designation
76
0
I
2
34
L
Serial
productioo
number
for
the
month
Month
of
production
1
Jan
2
Feb
X
Oct
Y
Nov
Z
Dec
Lut
IJgUre
denotins
the
year
A
D
IJ
III
J
W
f
r
lrr
G
1
Transmission
case
2
Oil
pump
3
Front
clutch
4
Band
brake
5
Rear
dutch
6
Front
planetary
geat
7
Rear
planetary
gear
8
One
way
clutch
9
Low
4
Reverse
brake
10
Oil
distributor
11
Governor
12
utput
shaft
13
Rear
extension
14
Oil
pan
IS
Control
valve
16
Input
shaft
17
Torque
converter
18
Converter
housi
19
Drive
pia
te
Tightening
torque
T
of
bolts
and
nuts
kg
m
ft
lb
@
T
4
to
5
29
to
36
@
T
14
to
16
101
to
116
@
T
4
5
to
5
5
33
to
40
@
T
0
6
to
0
8
4
3
to
5
8
@
T
0
5
to
0
7
3
6
to
5
1
T
2
0
to
2
5
14
to
18
@
T
1
3
to
1
8
9
to
13
@
T
0
55
ta
0
75
4
0
to
5
4
CD
T
0
25
to
0
35
1
8
to
2
5
AT312
Fig
AT
2
3N71B
Automatic
Trammiuion
AT
2