| a. Time | ||
| b. Distance | ||
| c. Velocity | ||
| d. None of the above |
| a. Position | ||
| b. Acceleration | ||
| c. Velocity | ||
| d. All of the above |
| a. Time | ||
| b. Velocity | ||
| c. Acceleration | ||
| d. None of the above |
| a. Acceleration is constant. | ||
| b. Acceleration acts vertically downwards. | ||
| c. Acceleration is 9.81 m/s2. | ||
| d. All of the above |
| a. Fixed frame | ||
| b. Moving frame | ||
| c. Both A and B | ||
| d. None of the above |
| a. Time | ||
| b. Distance | ||
| c. Acceleration | ||
| d. None of the above |
| a. Radial coordinates | ||
| b. Traverse coordinates | ||
| c. Both A and B | ||
| d. None of the above |
| a. The 'n' axis is tangent to't' axis. | ||
| b. The 'n' axis is perpendicular to't' axis. | ||
| c. The 'n' axis is at an angle of 45 degrees to't' axis. | ||
| d. None of the above |
| a. The't' axis is tangent to the curve. | ||
| b. The't' axis is perpendicular to the curve. | ||
| c. The't' axis is at an angle of 45 degrees to the curve. | ||
| d. None of the above |
| a. Time | ||
| b. Distance | ||
| c. Acceleration | ||
| d. None of the above |
| a. Force and displacement are in the same direction. | ||
| b. Force and displacement are in the opposite direction. | ||
| c. Force and displacement are normal to each other. | ||
| d. None of the above |
| a. Force and displacement are in the same direction. | ||
| b. Force and displacement are in the opposite direction. | ||
| c. Force and displacement are normal to each other. | ||
| d. None of the above |
| a. Force and displacement are in the same direction. | ||
| b. Force and displacement are in the opposite direction. | ||
| c. Force and displacement are normal to each other. | ||
| d. None of the above |
| a. Radial | ||
| b. Z | ||
| c. Traverse | ||
| d. All of the above |
| a. Couple of a couple | ||
| b. Force of a force | ||
| c. Moment of a momentum | ||
| d. Force of a momentum |
| a. Tangential | ||
| b. Parallel | ||
| c. Normal | ||
| d. All of the above |
| a. Power Output divided by Power Input. | ||
| b. Power Input divided by Power Output. | ||
| c. Energy Input divided by Energy Output. | ||
| d. None of the above |
| a. Kinetic energy | ||
| b. Potential energy | ||
| c. Both A and B | ||
| d. None of the above |
| a. Kinetic energy | ||
| b. Potential energy | ||
| c. Both A and B | ||
| d. None of the above |
| a. 1 | ||
| b. 2 | ||
| c. 3 | ||
| d. 4 |
| a. More than 1 | ||
| b. Less than 1 | ||
| c. Equal to 1 | ||
| d. Undefined |
| a. 0, 2 | ||
| b. 0, 1 | ||
| c. 1, 2 | ||
| d. 0, 3 |
| a. Newton | ||
| b. Pound | ||
| c. Kilogram | ||
| d. Slugs |
| a. Newton | ||
| b. Pound | ||
| c. Kilogram | ||
| d. Slugs |
| a. (1 J) (1 s) | ||
| b. (1 ft.lb) (1 s) | ||
| c. (1 N) (1 s) | ||
| d. (1 slug) (1 m/s2) |
| a. Newton | ||
| b. Pound | ||
| c. Joule | ||
| d. ft-lb |
| a. Newton | ||
| b. Dyne | ||
| c. Watt | ||
| d. Horsepower |
| a. Newton | ||
| b. Pound | ||
| c. Joule | ||
| d. ft-lb |
| a. Newton | ||
| b. Pound | ||
| c. Joule | ||
| d. ft-lb |
| a. Newton | ||
| b. Dyne | ||
| c. Watt | ||
| d. Horsepower |
| a. (1 J) (1 s) | ||
| b. (1 lb) (1 s) | ||
| c. (1 N) (1 s) | ||
| d. (1 slug) (1 m/s2) |
| a. Law of inertia | ||
| b. Law of force | ||
| c. Law of action-reaction | ||
| d. Law of gravitational attraction |
| a. Law of inertia | ||
| b. Law of force | ||
| c. Law of action-reaction | ||
| d. Law of gravitational attraction |
| a. Force | ||
| b. Displacement | ||
| c. Work | ||
| d. Power |
| a. 0 | ||
| b. 1 | ||
| c. 2 | ||
| d. 0.5 |
| a. 0 | ||
| b. 1 | ||
| c. 2 | ||
| d. 0.5 |
| a. Newton's 3rd law states that each action has a reaction equal in magnitude. | ||
| b. Newton's 3rd law states that each action has a reaction opposite in direction. | ||
| c. Both A and B | ||
| d. None of the above |
| a. (1 kg) (1 m/s2) | ||
| b. (1 slug) (1 ft/sec2) | ||
| c. (1 g) (1 cm/sec2) | ||
| d. (1 slug) (1 m/s2) |
| a. 100 (1 J) /(1 s) | ||
| b. 550 (1 ft.lb)/ (1 s) | ||
| c. 200 (1 N) /(1 m) | ||
| d. 100 (1 slug) /(1 m/s2) |
| a. (1 kg) (1 m) | ||
| b. (1 lb) (1 ft) | ||
| c. (1 N) (1 m) | ||
| d. (1 slug) (1 m/s2) |
| a. (1 kg) (1 m/s2) | ||
| b. (1 slug) (1 ft/sec2) | ||
| c. (1 kg) (1 ft/sec2) | ||
| d. (1 slug) (1 m/s2) |
| a. (1 kg) (1 m/s2) | ||
| b. (1 slug) (1 ft/sec2) | ||
| c. (1 kg) (1 ft/sec2) | ||
| d. (1 slug) (1 m/s2) |
| a. (1 J) /(1 s) | ||
| b. (1 ft.lb)/ (1 s) | ||
| c. (1 N) /(1 m) | ||
| d. (1 slug)/ (1 m/s2) |
| a. Impact occurs when two bodies collide. | ||
| b. The time of impact is very small. | ||
| c. The forces are very small. | ||
| d. The forces are large. |
| a. Kinetic Energy is always positive. | ||
| b. Kinetic Energy has the same unit as work. | ||
| c. Kinetic energy is independent of mass of the particle. | ||
| d. Kinetic energy is dependent on the velocity of the particle. |
| a. The particles after impact move with known velocities. | ||
| b. The particles after impact move in unknown directions. | ||
| c. The particles after impact move with unknown velocities. | ||
| d. In the case of planar oblique collision, there are four unknown quantities. |
| a. Potential function involves gravitational forces. | ||
| b. Potential function involves elastic forces. | ||
| c. Both A and B | ||
| d. None of the above |
| a. The force is a conservative force. | ||
| b. The force is a non conservative force. | ||
| c. Both A and B | ||
| d. None of the above |
| a. It involves potential energy. | ||
| b. It involves kinetic energy. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Weight moves upwards. | ||
| b. Weight moves downwards. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Integration | ||
| b. Differentiation | ||
| c. Both A and B | ||
| d. None of the above |
| a. Weight moves upwards. | ||
| b. Weight moves downwards. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Weight moves upwards. | ||
| b. Weight moves downwards. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Law of inertia | ||
| b. Law of force | ||
| c. Law of action-reaction | ||
| d. Law of gravitational attraction |
| a. When translating reference frames are used | ||
| b. When rotating reference frames are used | ||
| c. Both A and B. | ||
| d. None of the above |
| a. Tangential acceleration of both particles is the same. | ||
| b. Tangential acceleration of both particles is different. | ||
| c. Both A and B. | ||
| d. None of the above |
| a. Tangential acceleration of both particles is the same. | ||
| b. Tangential acceleration of both particles is different. | ||
| c. Both A and B. | ||
| d. None of the above |
| a. During rocket motion | ||
| b. During projectile motion | ||
| c. When bodies affected by rotation of earth | ||
| d. All of the above |
| a. Relative tangential acceleration is perpendicular to relative position. | ||
| b. Relative tangential acceleration is parallel to relative position. | ||
| c. Relative tangential acceleration is at 45 degrees to relative position. | ||
| d. None of the above |
| a. IC is perpendicular to the velocity. | ||
| b. IC is parallel to the velocity. | ||
| c. IC is perpendicular to the angular velocity. | ||
| d. None of the above. |
| a. Constant | ||
| b. Variable | ||
| c. Both A and B | ||
| d. None of the above |
| a. Internal | ||
| b. External | ||
| c. Both internal and external | ||
| d. Neither internal nor external |
| a. Single | ||
| b. Double | ||
| c. Triple | ||
| d. Quadruple |
| a. 1 | ||
| b. 0 | ||
| c. 0.5 | ||
| d. 2 |
| a. Moment of Inertia (I) divided by mass (m). | ||
| b. Moment of Inertia (I) divided by force (N). | ||
| c. Moment of Inertia (I) divided by displacement. | ||
| d. None of the above |
| a. (Kg) (m2) | ||
| b. (Slug) (ft2) | ||
| c. (N) (m2) | ||
| d. (lb) (ft2) |
| a. x-y plane rotates about x axis. | ||
| b. x-y plane rotates about z axis. | ||
| c. y-z plane rotates about z axis. | ||
| d. y-z plane rotates about y axis. |
| a. (Kg) (m2) | ||
| b. (Slug) (ft2) | ||
| c. (N) (m2) | ||
| d. (lb) (ft2) |
| a. Body rotating about a pin support | ||
| b. Wheel rotating without slipping | ||
| c. Force acts perpendicular in direction of displacement | ||
| d. All of the above |
| a. Acceleration | ||
| b. Momentum | ||
| c. Impulse | ||
| d. Mass |
| a. First moment of mass | ||
| b. Second moment of mass | ||
| c. Both A and B | ||
| d. None of the above |
| a. Circular path | ||
| b. Linear path | ||
| c. Both A and B | ||
| d. None of the above |
| a. Center of gravity | ||
| b. Center of mass | ||
| c. Origin | ||
| d. None of the above |
| a. Purely translation kinetic energy | ||
| b. A combination of translation and rotational kinetic energy | ||
| c. Purely rotational kinetic energy | ||
| d. None of the above |
| a. Purely translation kinetic energy | ||
| b. A combination of translation and rotational kinetic energy | ||
| c. Purely rotational kinetic energy | ||
| d. None of the above |
| a. It is a positive quantity. | ||
| b. It is a negative quantity. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Shell method | ||
| b. Disk method | ||
| c. Volume method | ||
| d. All of the above |
| a. The center of mass of the colliding bodies coincides with the line of impact. | ||
| b. The center of mass of the colliding bodies does not coincide with the line of impact. | ||
| c. Both A and B | ||
| d. None of the above |
| a. The center of mass of the colliding bodies coincides with the line of impact. | ||
| b. The center of mass of the colliding bodies does not coincide with the line of impact. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Linear acceleration | ||
| b. Angular acceleration | ||
| c. Both A and B | ||
| d. None of the above |
| a. Change it | ||
| b. Will not change it | ||
| c. Both A and B | ||
| d. None of the above |
| a. Internal force and moments change angular momentum. | ||
| b. Internal force and moments do not change angular momentum. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Angular velocity and angular momentum is parallel. | ||
| b. Angular velocity and angular momentum is not parallel. | ||
| c. Both A and B | ||
| d. None of the above |
| a. The product of inertia can be a negative quantity. | ||
| b. The product of inertia can be a positive quantity. | ||
| c. The product of inertia can be zero. | ||
| d. All of the above |
| a. 1 | ||
| b. 3 | ||
| c. 6 | ||
| d. 9 |
| a. The sum of angular velocity of both bodies | ||
| b. The difference of angular velocity of both bodies | ||
| c. The product of angular velocity of both bodies | ||
| d. None of the above |
| a. Body cone | ||
| b. Space cone | ||
| c. Both A and B | ||
| d. None of the above |
| a. Angular velocity may change magnitude. | ||
| b. Angular velocity may change direction. | ||
| c. Both A and B | ||
| d. None of the above |
| a. 1 | ||
| b. 0 | ||
| c. 2 | ||
| d. 0.5 |
| a. Gravitational force | ||
| b. Elastic force | ||
| c. Intermittent force | ||
| d. None of the above |
| a. 1 | ||
| b. 0 | ||
| c. Infinity | ||
| d. None of the above |
| a. 1 | ||
| b. 0 | ||
| c. Infinity | ||
| d. None of the above |
| a. 1 | ||
| b. 0 | ||
| c. Infinity | ||
| d. None of the above |
| a. m/s | ||
| b. rad | ||
| c. rad/s | ||
| d. N/s |
| a. N.s/m | ||
| b. lb.s/ft | ||
| c. Both A and B | ||
| d. None of the above |
| a. Momentum | ||
| b. Displacement | ||
| c. Weight | ||
| d. Velocity |
| a. It is definite. | ||
| b. It is indefinite. | ||
| c. Both A and B | ||
| d. None of the above |
| a. They are damped. | ||
| b. They are undamped. | ||
| c. Both A and B | ||
| d. None of the above |
| a. Non-homgenous | ||
| b. Linear | ||
| c. Ordinary | ||
| d. All of the above |
| a. Gravitational force | ||
| b. Elastic force | ||
| c. Both A and B | ||
| d. None of the above |