Mitsubishi Fuso Canter. Manual - part 2

 

  Index      Mitsubishi     Mitsubishi Fuso Canter - service repair manual

 

Search            

 

 

 

 

 

 

 

 

 

Content   ..  1  2  3   ..

 

 

Mitsubishi Fuso Canter. Manual - part 2

 

 

5

A. Kerb Weight

The sum of weights of cab and chassis with full tank of fuel, specified quantity of oil and
coolant, exclusive of spare-tire and tools. Spare tire carrier and tool box, however, are
included, if supplied. The truck must be in running order.

B. Empty Vehicle Weight 

The sum of kerb weight and weight of body.

C. Gross Vehicle Weight (G.V.W.)

This is the empty vehicle weight plus weights of payload and crew. The actual G.V.W.
may be less than but must not exceed the max. G.V.W. rating because the weight on each
axle of the vehicle with load evenly distributed must not exceed the axle’s weight rating.
This is explained in detail in the next paragraph on  payload capacity and weight distri-
bution.” The MITSUBISHI FUSO specifications for special types of vehicles, such as
tankers, which can carry only specified load will list only the actual G.V.W. figures,
omitting the maximum G.V.W. 

D. Maximum Gross Vehicle Weight (Max. G.V.W.) 

・The sum of the weight ratings of the front and rear axles. The gross axle weight rating

is defined as the lowest capacity of any load-carrying components-springs, tires and
brake capacity.

・Some models, however, have their G.V.W. suppressed to less than the sum of front and

rear weight ratings so as to secure the reliability upon the power line. 

・The G.V.W. given in the upper part of each specification in this material represents the

maximum G.V.W.

E. Payload Capacity and Weight Distribution 

In order to ensure good stability and ride, the weight of the payload (cargo) must be
properly distributed, so that the gross axle weight rating of neither front nor rear axle is
exceeded. Improper distribution of the load may cause over-loading of the front or rear
axle, even if the max. G.V.W. is not exceeded. The specification of payload capacity of
MITSUBISHI FUSO trucks has been established to be compatible with the requirements of
proper load distribution.

5. WEIGHTS DEFINITION

6

As illustrated in Fig. 1, when the load center coin-
cides with the center of rear axle, the payload
distribution on the front axle is zero. This would
make the weight on the front axle extremely light
and render steering difficult-if not impossible.
Furthermore, since total payload would be placed
on the rear axle, it cannot be greater than the capac-
ity of the rear axle. In other words, the payload
capacity of the vehicle would be less than when
the load is optimally distributed between the front
and rear axles.

Fig.1

Fig.2

When the load is uniformly applied to the body, the load center will be at its center. The
distance between the load center and the rear axle center is the offset (O.S.). In this
example it is 670 mm:

O.S.

= 670 mm

The distribution of payload on the front axle (Pf) and rear (Pr) can be readily calculated
from the following formulae-in accordance with the lever principle:

From these two, the following equations are derived:

F. Maximum Gross Combination Weight (Max. G.C.W.) 

This gives the total weight allowance of tractor plus trailer, crew and cargo; it is deter-
mined by the tractor’s engine horsepower, running performance and hill-climbing ability.
The max. G.V.W. for each model of MITSUBISHI FUSO tractors is given in its specifi-
cations. It is important that this total weight limit not be exceeded. 

G. Weight of Crew 

The weight of each person of a crew is assumed to be 65 kg, unless otherwise specified
by local regulations. In Japan, Korea and Taiwan, it is assumed to be 55 kg. 

H. Carrying Capacity

This term is not used by MITSUBISHI FUSO. Occasionally it can be found in the sales
literature of other manufacturers. It indicates the max. G.V.W. less the kerb weight.

Pf

= 

P

× 

(1)

O.S.
W.B.

Pr

= 

P

× 

(2)

W.B.– O.S.

W.B.

P

= 

Pf

× 

(1)’

W.B.
O.S.

P

= 

Pr

× 

(2)’

W.B.

W.B.– O.S.

7

6. SPECIFIC GRAVITY OF GOODS

Specific gravity or apparent specific weight of a cargo varies depending on its ambient
conditions (temperature, humidity, barometric pressure, etc.) and moisture content. For
practical purposes, MFTBC uses the figures given in the following table for the specific
gravity of cargoes, unless otherwise specified by local regulations or customer’s require-
ment. The table gives data only on cargoes commonly hauled.

In specifying dump vessel capacity, MFTBC assumes apparent specific gravity of cargo to be
1.5 ton / cu.m for medium and heavy-duty models, and 1.3 ton / cu.m for light duty models
(CANTER)-in accordance with Japanese Vehicle Inspection Rules.

Goods

Goods

Weight

ton/cu.m

Apparent

Weight

ton/cu.m

Petrol

Kerosene

Gas Oil

Heavy Oil

Lubricating Oil

Liquid Asphalt

Alcohol

Formalin

Ready Mixed Concrete

Bulk Cement Powder

Aggregate

Carbon Black

0.75

0.80

0.85

0.93

0.95

0.90

0.80

1.05

2.4

1.0

2.2

0.32

Coal

Dry Soil

Wet Soil

Dry Clay

Wet Clay

Snow

Feed Stuffs

Wheat Flour

Vinyl Powder

Water, Milk

1.65-1.70

(20-25ømm)

1.50-1.65

(1.0-2.5ømm)

0.75-0.87

1.6

2.0

1.8

2.0

0.2-0.8

0.5

0.5

0.45

1.0

Gravel

Sand

8

7. CONVERSION TABLE

deg.

θ 

1

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

deg.

θ 

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

sin.

θ 

0.01745

0.03490

0.05234

0.06976

0.08716

0.10453

0.12187

0.13917

0.15643

0.17365

0.19081

0.20791

0.22495

0.24192

0.25882

0.27564

0.29237

0.30902

sin.

θ 

0.32557

0.34202

0.35837

0.37461

0.39073

0.40674

0.42262

0.43837

0.45399

0.46947

0.48481

0.50000

0.51504

0.52992

0.54464

0.55919

0.57358

tan.

θ 

0.01746

0.03492

0.05241

0.06993

0.08749

0.10510

0.12278

0.14054

0.15838

0.17633

0.19438

0.21256

0.23087

0.24933

0.26795

0.28675

0.30573

0.32492

tan.

θ 

0.34433

0.36397

0.38386

0.40403

0.42447

0.44523

0.46631

0.48773

0.50953

0.53171

0.55431

0.57735

0.60086

0.62487

0.64941

0.67451

0.70021

% (in tan

θ)      

1.746

3.492

5.241

6.993

8.749

10.510

12.278

14.054

15.838

17.633

19.438

21.256

23.087

24.933

26.795

28.675

30.573

32.492

% (in tan

θ)      

34.433

36.397

38.386

40.403

42.447

44.523

46.631

48.773

50.953

53.171

55.431

57.735

60.086

62.487

64.941

67.451

70.021

A

C

B

deg.

θ 

 

AC
BC

AC
BC

tan.

θ= 

sin.

θ= 

AC
AB

%

= 

(in tan

θ)

 x100 (%)

MEASURES AND WEIGHTS

DEGREE

Measure

Area

Volume

Weight

Horse Power

Torque

cm

1

2.540

in

0.39370

1

sq. cm

1

6.4516

cu. m

1

0.02832

0.76455

g

1

28.350

PS

1

1.0142

1.3596

hp

0.9860

1

1.340

kW

0.7355

0.7459

1

kgf

・m

1

0.1383

0.1020

lb

・ft

7.2329

1

0.7375

N

・m

9.8067

1.3558

1

ounce

0.03527

1

kg

1

0.45360

lb

2.20459

1

cu. ft

35.3147

1

27.00

cu. yd

1.3079

0.37037

1

L

1

3.78543

4.5460

U.S. gal

0.26417

1

1.20091

lmp. gal

0.21997

0.83327

1

sq. in

0.1550

1

sq. m

1

0.092903

0.083613

sq. ft

10.7639

1

9.00

sq. yd

1.19599

0.1111

1

sq. km

1

2.58999

sq. mile

0.38610

1

m

1

0.30480

0.9144

ft

3.28084

1

3.0000

yd

1.09361

0.3333

1

km

1

1.60934

mile

0.62137

1

 

 

 

 

 

 

 

Content   ..  1  2  3   ..