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Aerospace Engineering Gate 2011 Questions with Answer
Ques 53 GATE 2011
An Euler-Bernoulli beam in bending is assumed to satisfy
Ques 54 GATE 2011
Consider a cantilever beam having length L=1 m, square cross-section (width = depth =0.01 m)
and Young's modulus 50 GPa. The beam is subjected to a transverse load P=1 N at the mid-span
(L/2) at the center of the cross-section. Under the small deformation theory, the transverse
deflection of the beam (in mm) at its free-end is

Ques 55 GATE 2011
Consider a beam in bending with a solid circular cross-section of 1mm2 which is subjected to a
transverse shear force of 1 N. The shear stress at the center of the cross-section (in N/mm2) is
Ques 56 GATE 2011
A simply supported slender column of square cross section (width=depth=d) has to be designed
such that it buckles at the same instant as it yields. Length of the column is given to be 1.57 m and
it is made of a material whose Young's modulus is 200 GPa and yield stress is 240 MPa. The
width, d, of the column (in cm) should be
Ques 57 GATE 2011
A body undergoes deformation under plane strain conditions when subjected to the following
stresses (in MPa): σxx=450, σyy=450, τxy=75, τxz=0, τyz=0 What are the remaining
components of stresses (in MPa) and strains? Assume the material to be isotropic and linear-elastic
with Young's modulus E=200 GPa and Poisson's ratio ν=1/3
Ques 58 GATE 2011
Which of the following Airy's stress functions could satisfy the given boundary conditions,

Ques 59 GATE 2011
The partial differential equation (PDE) governing free vibrations of a uniform Euler–Bernoulli beam is given by: EI ∂4w/∂x4 + m ∂2w/∂t2 = 0, where EI is the flexural stiffness, m is the mass per unit length, w(x, t) is the bending displacement, x is the coordinate along the beam length, t is time, and L is the beam length.

boundary condition?
Ques 60 GATE 2011
A thin-walled (thickness << radius), hollow shaft of length 1 m and mean radius, R = 5 cm has to be designed such that it can transmit a torque, T = 7 kN·m. A survey of different commercially available materials was made and following data was obtained from the suppliers (E: Young’s modulus, τy: yield stress in shear, ρ: density):

Ques 61 GATE 2011
A thin-walled (thickness << radius), hollow shaft of length 1 m and mean radius, R = 5 cm has to be designed such that it can transmit a torque, T = 7 kN·m. A survey of different commercially available materials was made and following data was obtained from the suppliers (E: Young’s modulus, τy: yield stress in shear, ρ: density):

Ques 62 GATE 2011
A statically indeterminate frame structure has
Ques 63 GATE 2011
Consider a simply supported two-dimensional beam


Ques 64 GATE 2011
Consider a single degree of freedom spring-mass-damper system with mass, damping and stiffness
of m, c and k, respectively. The logarithmic decrement of this system can be calculated using
Ques 65 GATE 2011
Consider a single degree of freedom spring-mass system of spring stiffness k1 and mass m which
has a natural frequency of 10 rad/s. Consider another single degree of freedom spring-mass system
of spring stiffness k2 and mass m which has a natural frequency of 20 rad/s. The spring stiffness
k2 is equal to
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