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Test: Design Against Static Load - 3 - Mechanical Engineering MCQ


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10 Questions MCQ Test - Test: Design Against Static Load - 3

Test: Design Against Static Load - 3 for Mechanical Engineering 2024 is part of Mechanical Engineering preparation. The Test: Design Against Static Load - 3 questions and answers have been prepared according to the Mechanical Engineering exam syllabus.The Test: Design Against Static Load - 3 MCQs are made for Mechanical Engineering 2024 Exam. Find important definitions, questions, notes, meanings, examples, exercises, MCQs and online tests for Test: Design Against Static Load - 3 below.
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Test: Design Against Static Load - 3 - Question 1

A cotter joint is used when no relative motion is permitted between the rods joined by the cotter. It is capable of transmitting

Detailed Solution for Test: Design Against Static Load - 3 - Question 1

Note that cotter joint is not used for connecting two shafts which are rotating and tramitting torque. It is used to transmits axial tensile as well as compressive load.

Test: Design Against Static Load - 3 - Question 2

Which of the following joint is commonly used for pipes carrying water at low pressure

Detailed Solution for Test: Design Against Static Load - 3 - Question 2

Socket joint is provided in the pipes carrying water at low pressure.

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Test: Design Against Static Load - 3 - Question 3

In a gib and cotter joint, the gib and cotter are subjected to

Detailed Solution for Test: Design Against Static Load - 3 - Question 3

Cotter and gib are in double shear and also in crushing.

Test: Design Against Static Load - 3 - Question 4

In a cotter joint the width of the cotter at the centre is 50 mm and its thickness is 12 mm. The load acting on the cotter is 60 kN. What is the shearing stress developed in the cotter?

Detailed Solution for Test: Design Against Static Load - 3 - Question 4



Test: Design Against Static Load - 3 - Question 5

Match List-I (Application) with List-ll (Joint) and select the correct answer using the code given below the lists:
List-I
A. Boiler Shell
B. Marine Shaft Coupling
C. Crosshead and Piston Rod
D. Automobile gear box (gears to shaft)
List-II
1. Cotter Joint
2. Knuckle Joi
3. Riveted join
4. Splines
5. Bolted Joint
Codes:
    A B C D
(a) 1 4 2 5
(b) 3 5 1 4
(c) 1 5 2 4
(d) 3 4 1 5

Detailed Solution for Test: Design Against Static Load - 3 - Question 5

(A) Boiler shell → Riveted joint
(B) Marine shaft coupling → Bolted joint
(C) Crosshead and piston rod → Cotter joint
(D) Automobile gear box → Splines

Test: Design Against Static Load - 3 - Question 6

A cold rolled steel shaft is designed on the basis of maximum shear stress theory. The principal stresses induced at its critical section are 60 MPa and -60 MPa respectively. If the yield stress for the shaft material is 360 MPa, the factor of safety of the design is:

Detailed Solution for Test: Design Against Static Load - 3 - Question 6


According to maximum shear stress theory
Yield stress in shear


Test: Design Against Static Load - 3 - Question 7

A thin cylindrical tube closed at ends is subjected to internal pressure. A torque is also applied to the tube. The principal stresses p1 and p2 developed are 80 unit and 20 unit respectively. If the yield stress is 240 units then what is the factor of safety according to maximum shear stress theory

Detailed Solution for Test: Design Against Static Load - 3 - Question 7

Maximum shear stress due to applied loading

Maximum shear stress in material at yield stress under uni-axial tension

=  120 unit

Test: Design Against Static Load - 3 - Question 8

Maximum shear stress developed on the surface of a solid circular shaft under pure torsion is 240 MPa. If the shaft diameteris doubled, then what is the maximum shear stress developed corresponding to the same torque?

Detailed Solution for Test: Design Against Static Load - 3 - Question 8

Maximum shear stress = 

Maximum shear stress developed when diameter is doubled

Test: Design Against Static Load - 3 - Question 9

A shaft is subjected to maximum bending moment of 80 N/mm2 and a maximum shear stress equal to 30 N/mm2 at a particular section. If the yield point in tension of the material is 200 N/mm2 and maximum shear stress theory is used, the FOS will be

Detailed Solution for Test: Design Against Static Load - 3 - Question 9


 
FOS = 10/50 = 2

Test: Design Against Static Load - 3 - Question 10

A cotter joint is used when no relative motion is permitted between the rods joined by the cotter. It is capable of transmitting

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