Mitsubishi Eclipse. Technical Information Manual (1994) - part 58

 

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Mitsubishi Eclipse. Technical Information Manual (1994) - part 58

 

 

 

   Front Suspension

VARIATION IN CAMBER DURING CORNERING
When the steering wheel is turned, camber varies
as shown below because of increased caster angle
and reduced kingpin angle. On the vehicle with 
link suspension, the change in “camber to ground”
caused by the body rolling during cornering is small

<Variation in Camber during Up-and-Down

Bump

Strut type suspension

Negative

Camber to ground

Positive

Multi-link suspension 

Rebound

by the same action as the one experienced in a
double-wishbone suspension. These effects help
provide outstanding directional stability by making
the most of the tire performance.

<Variation in Camber during Cornering>

Inner

wheel

steering
angle

Multi-link 

Negative

12X0104

OPERATION <TURBO>
When the shock absorber piston speed is at less
than 0.1 

 the control of the damping force

is impossible with the conventional fixed opening
orifice alone. This control has been made possible
by adding a relief valve for very low and low speed
range operation. As a result, the damping force

SHOCK ABSORBER WITH DAMPING FORCE CONTROL VALVE FOR VERY LOW AND LOW SPEED

characteristics have become linear as shown below,
so that the vehicle provides better feeling when

it rolls and shows better responsiveness to the steer-
ing wheel operation.

Piston section

Base Valve Area

Very low and
low speed
relief valve

Notched
relief valve

 With control valve

 With control valve

---- Without control valve

---- Without control valve

Piston speed 

12x0095

 

   Rear Suspension

 

The rear suspension is similar to that introduced
on the 1994 

 It is a new development in

multi-link design. By properly arranging the 
al control arms and properly selecting their bushings

for well balanced rigidity, a best compromise 
tween high-level directional stability and riding 
fort has been realized in the suspension.

Shock absorber

Upper arm

Toe control arm

Lower arm

Stabilizer bar

Trailing arm

12x0214

DRIVE-CONTROL COMPONENTS 

 

 

SPECIFICATIONS

Items

Medium price

High price,

Premium price 

Premium price

Suspension type

Wheel alignment

Toe-in

mm (in.)

Camber

Coil spring

Wire dia. x O.D. x free length

mm (in.)

Identification color

Spring constant

N/mm 

Shock absorber

Stroke

mm (in.)

Damping force
[at 0.3 

 

 

Expansion

N (Ibs.)

Contraction

N (Ibs.)

   30’

11.0x75.0-

117.0 x 297.0

 x 2.953 

4.606 x 11.692)

Light Blue   Purple

Hydraulic cylindrical

double acting type

164 (6.5)

 1,128

(187   254)

314   471

(71   106)

Multi-link type

3   3 

   

   
   

10.8 x 74.6 

116.6 x 288.0

 x 2.937 

4.591 x 11.339)

Light Blue   Green

 1.4 

Hydraulic cylindrical

double acting type

154 (6.1)

 1,128

(187   254)

314   471
(71   106)

   
   

11.2x75.4-

117.4 x 294.5

 x 2.968 

4.622 x 11.594)

Light Blue   Orange

Hydraulic cylindrical

double acting type

154 (6.1)

(187   254)

314   471
(71   106)

NOTE

 Vehicles with 

 wheels

Vehicles with 

 wheels

(3) 

 

 

   Rear Suspension

A high-mounted upper arm and a combination of

lower arm and trailing arm act like a double-wish-
bone configuration having a virtual kingpin axis.

This construction, like that of the front suspension,

provides the following features:

Small offset between the virtual kingpin axis

and wheel center provides better directional sta-
bility.

The high-mounted upper arm helps improve

the tire supporting rigidity and riding comfort.

l

Like a double-wishbone suspension, the 
link suspension features small change in “cam-
ber to ground” at the time of a roll, which assures
better stability during cornering.

In addition, optimum arrangement of the individual

arms and proper selection of the individual bushings
for well balanced rigidity have provided the following
effects:

l

Changes in toe angle caused by the up and
down strokes of the suspension are properly
controlled for better stability during cornering.

l

Changes in toe angle caused by a lateral force
acting on the tire are properly controlled for
better stability during cornering.

l

Even under the effect of a rearward force on

the tire, the wheel alignment does not increase
the “toe-out” tendency. This helps retain the
straight-line motion of the vehicle.

 

 

 

 

 

 

 

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