1
Shear stress develops on a fluid element, if the fluid
2
A floor slab of thickness, $$t$$ is cast monolithically transverse to a rectangular continuous beam of span $$L$$ and width $$B.$$ If the distance between two consecutive points of contraflexure is $${L_0},$$ the effective width of compression flange at a continuous support is
3
A reinforced concrete member is subjected to combined action of compressive axial force and bending moment. If $${\varepsilon _{\min }}$$ is the least compressive strain in the member $${f_y},$$ the yield stress of steel and $${E_s},$$ the modulus of elasticity of steel, the maximum permissible compressive strain in concrete member will be
4
If $$\phi \, = \,$$ nominal diameter of reinforcing bar, $${f_s}\, = $$ compressive stress in the bar and $${f_{bd}}\, = $$ design bond stress of concrete, the anchorage length, $${L_a}$$ of straight bar in compression is equal to
5
The loss of prestress due to elastic shortening of concrete is least in
6
A uniformly distributed load intensity, $$w$$ acting on a simply supported prestressed concrete beam of span $$L,$$ producing a bending moment $$M,$$ at mid-span is to be balanced by a parabolic tendon with zero eccentricity at ends and eccentricity $$e,$$ at mid-span. The prestressing force required depends on
7
The maximum bending stress induced in a steel wire of modulus of elasticity $$200$$ $$kN/m{m^2}$$ and diameter $$1$$ $$mm$$ when wound on a drum of diameter $$1$$ $$m$$ is approximately equal to
8
In a real beam, at an end, the boundary condition of zero slope and zero vertical displacement exists. In the corresponding conjugate beam, the boundary conditions at this end will be:
9
A cantilever beam of span, $$'L'$$ is subjected to a downward load of $$800$$ $$kN$$ uniformly distributed over its length and a concentrated upward load $$P$$ at its free end. For vertical displacement to be zero at the free end, the value of $$P$$ is:
10
The axial load carrying capacity of a long column of given material. Cross-sectional area, $$A$$ and length, $$L$$ is governed by
11
The kern area (core) of a solid circular section column of diameter, $$D$$ is a concentric circle of diameter, $$'d'$$ is equal to
12
The plane structure shown below is GATE CE 1992 Structural Analysis - Stability and Static Indeterminacy Question 5 English
13
A plane frame $$ABCDEFGH$$ shown in figure below has clamp supports at A and axial force release (horizontal sleeve) at $$'C'$$ and moment release (hinge) at $$E.$$ The static indeterminacy of the frame is GATE CE 1992 Structural Analysis - Stability and Static Indeterminacy Question 4 English
14
Determine the degrees of freedom of the following frame GATE CE 1992 Structural Analysis - Indeterminacy Question 5 English
1
GATE CE 1992
MCQ (Single Correct Answer)
+1
-0.3
A reinforced concrete member is subjected to combined action of compressive axial force and bending moment. If $${\varepsilon _{\min }}$$ is the least compressive strain in the member $${f_y},$$ the yield stress of steel and $${E_s},$$ the modulus of elasticity of steel, the maximum permissible compressive strain in concrete member will be
A
$$0.002$$
B
$$0.002 + {f_y}/\left( {1.15\,{E_s}} \right)$$
C
$$0.0035 - 0.75\,{\varepsilon _{\min }}$$
D
$$0.0035$$
2
GATE CE 1992
MCQ (Single Correct Answer)
+1
-0.3
If $$\phi \, = \,$$ nominal diameter of reinforcing bar, $${f_s}\, = $$ compressive stress in the bar and $${f_{bd}}\, = $$ design bond stress of concrete, the anchorage length, $${L_a}$$ of straight bar in compression is equal to
A
$${L_s} = {{\phi {f_s}} \over {{f_{bd}}}}$$
B
$${L_s} = {{\phi {f_s}} \over {2{f_{bd}}}}$$
C
$${L_s} = {{\phi {f_s}} \over {\pi {f_{bd}}}}$$
D
$${L_a} = {{\phi {f_s}} \over {4{f_{bd}}}}$$
3
GATE CE 1992
MCQ (Single Correct Answer)
+1
-0.3
The loss of prestress due to elastic shortening of concrete is least in
A
One wire pretensioned beam
B
One wire post-tensioned beam
C
Multiple wire pretensioned beam with sequential cutting of wires
D
Multiple wire post-tensioned beam subjected to sequential prestressing
4
GATE CE 1992
MCQ (Single Correct Answer)
+1
-0.3
A uniformly distributed load intensity, $$w$$ acting on a simply supported prestressed concrete beam of span $$L,$$ producing a bending moment $$M,$$ at mid-span is to be balanced by a parabolic tendon with zero eccentricity at ends and eccentricity $$e,$$ at mid-span. The prestressing force required depends on
A
$$w$$ and $$e$$
B
$$w$$ and $$L$$
C
$$L$$ and $$e$$
D
$$M$$ and $$e$$