Engineering Mechanics (EM) SPPU Endsem Question Paper May 2025
All 8 questions from this SPPU endsem paper, as printed. Read them here or open the PDF.
- Subject code
- 101011
- Pattern
- 2019 pattern
- Exam
- Endsem
- Session
- May 2025
- Max. marks
- 70
- Time
- 2½ Hours
- Semester
- I/II
- Paper code
- [6401]-1907
Printed for: F.E.
Instructions to the candidates
- Answer Q.1 or Q.2, Q.3 or Q.4, Q.5 or Q.6 and Q.7 or Q.8.
- Neat sketches must be drawn wherever necessary.
- Figures to the right indicate full marks.
- Assume suitable data, if necessary.
- Use of electronic pocket calculator is allowed.
- Use of cell phone is prohibited in the examination hall.
Questions
Q1
- a)[4]
State and explain free body diagram with suitable sketch.
- b)[7]
This part has equations that don’t show as text. Open the PDF to read it.
- c)[7]
Determine the support reaction for a given beam loaded and supported as shown in Fig. 1 c.
OR- a)
Q2
- a)[4]
State and explain in brief resultant and equilibrant force.
Also asked:Mar 2025
- b)[7]
This part has equations that don’t show as text. Open the PDF to read it.
- c)[7]
Determine the resultant force of given parallel space force system as shown in Fig. 2 c. Also locate the position of resultant force with respect to origin O.
- a)
Q3
- a)[4]
Differentiate pin jointed truss and cable with suitable sketch.
- b)[7]
Determine the forces in the members of the pin jointed truss as shown in Fig. 3 b.
- c)[7]
The cable segment supports the loading as shown in Fig. 3 c. Determine the component of reactions at A and B. Also find maximum tension in segment of the cable.
OR- a)
Q4
- a)[4]
Explain deficient, determinate and indeterminate truss.
Also asked:Nov 2024
- b)[7]
The maximum tension is 100 N for the Cable profiles ABCD as shown in Fig 4 b. Determine the force P at B and C to keep the segment BC in horizontal position.
- c)[7]
Determine the forces in the members BC, BE and AE of the truss as shown in Fig. 3 b. 3
- a)
Q5
- a)[5]
This part has equations that don’t show as text. Open the PDF to read it.
- b)[6]
An outdoor track is 126 m in diameter. A runner increases her speed at a constant rate from 4.2 m/s to 7.2 m/s over a distance of 28.5 m. determine the total acceleration of the runner 2s after she begins to increase her speed.
Also asked:May 2022
- c)[6]
A cricket ball thrown by a fielder from a height of 2 m at an angle of 45° to the horizontal with an initial velocity of 25 m/s hit the wickets at the height of 0.6 m from the ground, find distance of fielder from the wickets.
OR- a)
Q6
- a)[5]
A baseball is thrown downward from a 15 m tower with an initial speed of 5 m/s. Determine the speed at which it hits the ground and the time of travel.
- b)[6]
This part has equations that don’t show as text. Open the PDF to read it.
- c)[6]
A golfer hits the golf ball from point A with an initial velocity of 50 m/s at an angle of 25° with the horizontal shown in Fig. 6 c. Determine the maximum horizontal distance x max and maximum height h max it attain.
- a)
Q7
- a)[5]
A 150 kg car enters a curved portion of the road of radius 200 m travelling at a constant speed of 36 km/h. Determine the normal and tangential component of force at curved portion.
- b)[6]
A 2 kg stone is dropped from a height h and strike the ground with a velocity of 24 m/s. find the kinetic energy of the stone as it strikes the ground and the height h from which it was dropped using work energy method.
- c)[6]
A railroad car having a mass of 15 Mg is coasting at 1.5 m/s on a horizontal track. At the same time another car having a mass of 12 Mg is coasting at 0.75 m/s in the opposite direction. If the car meet and couple together, find the common speed of cars. 4
OR- a)
Q8
- a)[5]
A tennis ball is dropped from a height 1600 mm and it rebounds to a height 1100 mm. Determine the coefficient of restitution.
- b)[6]
A 50 kg crate shown in Fig. 8 b rests on a horizontal plane for which the coefficient of kinetic friction is k = 0.3. If the crate does not tip over when it is subjected to a 400 N towing force as shown, determine the velocity of the crate in 5 s starting from rest.
- c)[6]
Determine the work done by all forces acting on the block of 18 kg as shown in Fig. 8 c as it moves 12 m upwards along the plane. Take coefficient of kinetic friction k = 0.2.
- a)