Chapter:

Structural-engineering-important-exam-questions-II

1.
AB = 12m, BC= 8m
Assume EI to be constant throughout. All moment options are given in N-m and all force options are given in N.
FEM represent fixed end moments.
What will be value of rotation at point D?


2.
AB = 12m, BC = 15m, CD = 18m
Load of 40 kN is acting at joint B as shown.
EI is constant throughout frame.
All force options are given in KN and all moment options are given in KN-M.
FEM represent fixed end moments.
What will be value of rotation at point B?


3.
AB = BC = CD = 20m
All moment options are given in KN/m and all rotations in rad.
EI is constant.
What will be value of rotation at point B?


4. Which of following methods for solving indeterminate structures are easiest for computational purposes?


5.
AB = 12m, BC= 8m
Assume EI to be constant throughout. All moment options are given in N-m and all force options are given in N.
FEM represent fixed end moments.
What will be one of extra condition, which we will get if we conserve moment near joint C?


6.
AB = BC = CD = 20m
All moment options are given in KN/m and all rotations in rad.
EI is constant.
What will be value of mDC?


7.
AB = BC = CD = 20m
All moment options are given in KN/m and all rotations in rad.
EI is constant.
How many deflection unknowns will be re in this case for which we would need equations?


8. A is a fixed support, while B and C are roller supports. Uniformly distributed load of 2KN/m is acting on span AB. Load of 12 kN acts at a point between B and C. AB = 24m, BC = 8m. Load of 24KN acts at centre of BC.
All moment options are given in kN-M.
What will be value of mAB, after solving se equations?


9. A is a fixed support, while B and C are roller supports. Uniformly distributed load of 2KN/m is acting on span AB. Load of 12 kN acts at a point between B and C. AB = 24m, BC = 8m. Load of 24KN acts at centre of BC.
All moment options are given in kN-M.
What will be value of mCB, after solving se equations?


10.
A and C are fixed supports. M acts at point B in clockwise direction. AB = BC = L. EI is constant throughout frame.

What will be value of Mba?


All Chapters

View all Chapter and number of question available From each chapter from Structural-Engineering

Simple Stress and Strain

Simple Stress and Strain

Stresses in Members

Stresses in Members

Strain Energy and Resilience

Strain Energy and Resilience

Center of Gravity and Moment of Inertia

Center of Gravity and Moment of Inertia

Shear Force and Bending Moment

Shear Force and Bending Moment

Pure Bending

Pure Bending

Shear Stress

Shear Stress

Direct and Bending Stress

Direct and Bending Stress

Slope and Deflection

Slope and Deflection

Indeterminate Beams

Indeterminate Beams

Torsion

Torsion

Plastic and Local Buckling Behaviour of Steel

Plastic and Local Buckling Behaviour of Steel

Cables and Arches

Cables and Arches

Influence Lines and Approximate Analysis for Statically Determinate Structures

Influence Lines and Approximate Analysis for Statically Determinate Structures

Deflections

Deflections

Deflections Using Energy Methods

Deflections Using Energy Methods

Displacement Method of Analysis: Slope-Deflection Equations

Displacement Method of Analysis: Slope-Deflection Equations

Displacement Method of Analysis: Moment Distribution

Displacement Method of Analysis: Moment Distribution

Influence line diagram mcqs

Influence line diagram mcqs

Structural engineering important exam questions

Structural engineering important exam questions

Structural engineering important exam questions II

Structural engineering important exam questions II

Structural engineering important exam questions III

Structural engineering important exam questions III

Plastic Analysis

Plastic Analysis

Structural Engineering Loksewa Questions

Structural Engineering Loksewa Questions

Topics

This Chapter Structural-engineering-important-exam-questions-II consists of the following topics

Displacement Method of Analysis: Slope-Deflection Equations


AB = 12m, BC= 8m
Assume EI to be constant throughout. All moment options are given in N-m and all force options are given in N.
FEM represent fixed end moments.
What will be value of rotation at point D?

;


AB = 12m, BC = 15m, CD = 18m
Load of 40 kN is acting at joint B as shown.
EI is constant throughout frame.
All force options are given in KN and all moment options are given in KN-M.
FEM represent fixed end moments.
What will be value of rotation at point B?

;


AB = BC = CD = 20m
All moment options are given in KN/m and all rotations in rad.
EI is constant.
What will be value of rotation at point B?

;

Which of following methods for solving indeterminate structures are easiest for computational purposes?

;


AB = 12m, BC= 8m
Assume EI to be constant throughout. All moment options are given in N-m and all force options are given in N.
FEM represent fixed end moments.
What will be one of extra condition, which we will get if we conserve moment near joint C?

;


AB = BC = CD = 20m
All moment options are given in KN/m and all rotations in rad.
EI is constant.
What will be value of mDC?

;


AB = BC = CD = 20m
All moment options are given in KN/m and all rotations in rad.
EI is constant.
How many deflection unknowns will be re in this case for which we would need equations?

; ; ;


A and C are fixed supports. M acts at point B in clockwise direction. AB = BC = L. EI is constant throughout frame.

What will be value of Mba?

;