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Worksheets

Day-3 ESD 24-04-2020

Total questions: 40

Worksheet time: 37mins

Name
Class
Date
1.

What is compression member?

a)

structural member subjected to tensile force

b)

structural member subjected to compressive force

c)

structural member subjected to bending moment

d)

structural member subjected to torsion

2.

The strength of column does not depend on

a)

width of building

b)

material of column

c)

cross sectional configuration

d)

length of column

3.

The length of member should be _________ for a short column. (Hint: The slenderness ratio of column defines the column as short or long column)

where, r is radius of gyration

a)

L ≤ 88.5r

b)

L ≥ 88.5r

c)

L ≥ 125r

d)

L > 150r

4.

Long compression members will ______

a)

a)

not buckle

b)

buckle inelastically

c)

buckle plastically

d)

buckle elastically

5.

What is squash load?

a)

load at which member will not deform axially

b)

load at which member deforms laterally

c)

load at which member deforms axially

d)

load at which member will not deform axially

6.

The design compressive strength of member is given by________. where, Ae is effective sectional area, fcd is design compressive stress.

a)

Aefcd

b)

Ae/fcd

c)

fcd

d)

0.5Aefcd

7.

What is the value of imperfection factor for buckling class a?

a)

0.34

b)

0.75

c)

0.21

d)

0.5

8.

If imperfection factor α = 0.49, then what is the buckling class?

a)

a

b)

c

c)

b

d)

g

9.

The compressive strength for ISMB 400 used as a column for length 5m with both ends hinged is

a)

275 kN

b)

375.4 kN

c)

453 kN

d)

382 kN

10.

Slenderness ratio of lacing is limited to

a)

200

b)

145

c)

500

d)

380

11.

Thickness of lacing member should be

a)

less than 1/40th of the effective length for single lacing

b)

not less than 1/60th of the effective length for double lacing

c)

less than 1/60thof the effective length for double lacing

d)

less than 1/60th of the effective length for single lacing

12.

Effective slenderness ratio of laced column shall be ________

a)

equal to the maximum slenderness ratio of column

b)

1.05 times the maximum slenderness ratio of column

c)

0.5 times the maximum slenderness ratio of column

d)

2 times the maximum slenderness ratio of column

13.

Minimum radius of gyration for lacing flats is

a)

t/√12

b)

t/12

c)

t/√24

d)

t/24

14.

Thickness of batten plates shall be

a)

not less than 1/50th of distance between innermost connecting transverse bolts/rivets

b)

less than 1/50th of distance between innermost connecting transverse bolts/rivets

c)

less than 1/60th of distance between innermost connecting transverse bolts/rivets

d)

less than 1/80th of distance between innermost connecting transverse bolts/rivets

15.

Effective slenderness ratio of battened column shall be ____ of actual slenderness ratio of column

a)

0.5 times

b)

1.1 times

c)

2 times

d)

2.5 times

16.

Maximum spacing of batten should be such that slenderness ratio of component member should be

a)

not greater than 50

b)

greater than 50

c)

greater than 0.7 times slenderness ratio of member as a whole

d)

greater than slenderness ratio of member as a whole

17.

Depth of intermediate batten = _______ depth of end batten

a)

1/2

b)

3/4

c)

1

d)

2

18.

A laced column is_____ than battened column for same load

a)

equally strong

b)

weaker

c)

stronger

d)

cannot be compared

19.

Thickness of batten should not be less than

a)

1/40th of distance between innermost connecting lines of bolts

b)

1/50th of distance between innermost connecting lines of bolts

c)

1/100th of distance between innermost connecting lines of bolts

d)

1/10th of distance between innermost connecting lines of bolts

20.

The design shear strength is given by____. where Vn= plastic shear resistance, γm0 = partial factor of safety.

a)

Vn

b)

Vn/γm0

c)

Vn x γm0

d)

γm0

21.

In a slab 12 mm diameter bars are to be provided at 200 mm center to center as main reinforcement, due to non availability the diameter of bars to be changed to 16 mm the new spacing would be

a)

355.55 mm

b)

112.8 mm

c)

300 mm

d)

450 mm

22.

In a two way slab of lifting of corners occur due to

a)

resultant shear force at the ends

b)

torsional moment on the slab

c)

unbalanced moment on the slab

d)

resultant stress at the ends

23.

A simply supported slab of 10 m effective span, the minimum effective depth to satisfy the vertical deflection limits should be

a)

50 mm

b)

75 mm

c)

60 mm

d)

90 mm

24.

In a two way restrained slab torsion steel is provided at

a)

top

b)

bottom face along the width

c)

both a and b

d)

none

25.

The minimum percentage of high yield strength deformed bars in RCC slabs is:

a)

0.4

b)

0.15

c)

0.12

d)

0.23

26.

Limit State Method is based on _____________

a)

calculations on service load conditions alone

b)

calculations on ultimate load conditions alone

c)

calculations at working loads and ultimate loads

d)

calculations on earthquake loads

27.

What is limit state?

a)

Acceptable limits for safety and serviceability requirements before failure occurs

b)

Acceptable limits for safety and serviceability requirements after failure occurs

c)

Acceptable limits for safety after failure occurs

d)

Acceptable limits for serviceability after failure occurs

28.

Which of the following relation is correct?

a)

Design Load = Characteristic Load

b)

Design Load = Characteristic Load + Partial factor of safety

c)

Design Load = Characteristic Load / Partial factor of safety

d)

Design Load = Characteristic Load x Partial factor of safety

29.

Which of the following relation is correct?

a)

Design Strength = Ultimate strength + Partial factor of safety

b)

Design Strength = Ultimate strength /Partial factor of safety

c)

Design Strength = Ultimate strength – Partial factor of safety

d)

Design Strength = Ultimate strength x Partial factor of safety

30.

The partial factor of safety for resistance governed by yielding is :

a)

1.10

b)

1.25

c)

1.50

d)

1.15

31.

The partial factor of safety for resistance governed by ultimate strength is :

a)

1.10

b)

1.50

c)

1.25

d)

1.15

32.

What is characteristic load?

a)

seismic load

b)

load which will be exceeded by certain probability during life of structure

c)

load which will not be exceeded by certain probability during life of structure

d)

pressure load

33.

Which IS code is used for calculating different loads on different structures?

a)

IS 800

b)

IS 456

c)

IS 875

d)

IS 13920

34.

Steel is mainly an alloy of

a)

Iron and Carbon

b)

Sulphur and Zinc

c)

Zinc and tin

d)

Phosphorous and carbon

35.

Which of the following is a disadvantage of Steel?

a)

High strength per unit mass

b)

High durability

c)

Fire and corrosion resistance

d)

Reusable

36.

Elastic Modulus of Steel is __________

a)

1.5 x 109 N/mm2

b)

2.0 x 105 N/mm2

c)

2.0 x 105N/m2

d)

1.5 x 109 N/m2

37.

Unit mass of Steel = ________

a)

785 kg/m3

b)

450 kg/m3

c)

450 kg/cm3

d)

7850 kg/m3

38.

Structural Steel normally has carbon content less than _______

a)

1.0 %

b)

0.6 %

c)

3.0 %

d)

0.5 %

39.

High carbon steel is used in ______________

a)

transmission lines and microwave towers

b)

structural buildings

c)

fire resistant buildings

d)

for waterproofing

40.

Fire resistant steels are also called as ____________

a)

Stainless steel

b)

Weathering steel

c)

High strength steel

d)

Thermo Mechanically treated steel