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Examples in human body (walking, running, cycling) – MCQs

1. Walking is considered which type of motion in biomechanics?

(A) Linear motion only


(B) Angular motion only


(C) General motion (linear + angular)


(D) Oscillatory motion



2. Running involves which combination of movements?

(A) Angular limb rotation + linear forward displacement


(B) Linear translation only


(C) Angular oscillation only


(D) Static equilibrium



3. Cycling represents combined motion because:

(A) Pedal rotation produces linear movement of the cycle


(B) Only the rider rotates


(C) It is pure angular motion


(D) There is no displacement



4. Which system of the body primarily produces walking and running motions?

(A) Musculoskeletal system


(B) Circulatory system


(C) Digestive system


(D) Nervous system only



5. The swinging of arms during walking is an example of:

(A) Angular motion


(B) Linear motion


(C) Oscillatory motion


(D) Random vibration



6. The forward progression of the body in walking is an example of:

(A) Linear motion


(B) Angular motion


(C) Oscillatory motion


(D) Vibratory motion



7. Running differs from walking because:

(A) Both feet leave the ground at a point in running


(B) Running uses no angular motion


(C) Walking is linear, running is angular


(D) Running is a purely static activity



8. In cycling, the rotation of the wheels represents:

(A) Angular motion


(B) Linear motion


(C) Oscillatory motion


(D) Random motion



9. The forward translation of a cyclist represents:

(A) Linear motion


(B) Angular motion


(C) Oscillatory motion


(D) Vibratory motion



10. Walking is classified as:

(A) General motion


(B) Pure linear motion


(C) Pure angular motion


(D) Static equilibrium



11. Which activity in the human body demonstrates combined motion most clearly?

(A) Cycling


(B) Standing still


(C) Head nodding


(D) Arm flexion without displacement



12. The hip, knee, and ankle joints provide __________ motion during walking.

(A) Angular


(B) Linear


(C) Oscillatory


(D) Vibratory



13. The displacement of the body center of mass in walking is:

(A) Linear


(B) Angular


(C) Oscillatory


(D) Vibratory



14. Running combines:

(A) Angular leg rotation + linear forward displacement


(B) Purely angular rotations only


(C) Purely linear displacement only


(D) Oscillatory vibration



15. The pedaling action in cycling is an example of:

(A) Angular motion


(B) Linear motion


(C) Oscillatory motion


(D) Static motion



16. The forward displacement of the cycle while pedaling represents:

(A) Linear motion


(B) Angular motion


(C) Oscillatory motion


(D) Vibratory motion



17. Walking is considered what type of kinematic chain activity?

(A) Closed chain (stance phase) + Open chain (swing phase)


(B) Only closed chain


(C) Only open chain


(D) Neither chain



18. Which joint plays the most significant role in running propulsion?

(A) Ankle joint


(B) Shoulder joint


(C) Wrist joint


(D) Elbow joint



19. In cycling, the upper limb involvement is mainly for:

(A) Balance and support


(B) Propulsion


(C) Oscillation


(D) Angular velocity



20. Walking is initiated by:

(A) Angular hip flexion


(B) Linear forward drift


(C) Oscillatory balance


(D) Random vibration



21. Running stride length increases due to:

(A) Increased angular range of hip, knee, and ankle joints


(B) Decreased angular motion


(C) Reduced linear displacement


(D) Static positioning



22. Cycling efficiency depends on:

(A) Synchronous angular pedaling


(B) Static equilibrium


(C) Linear-only displacement


(D) Oscillatory hip movement



23. During walking, the center of gravity follows a path that is:

(A) Linear with slight oscillations


(B) Purely angular


(C) Completely static


(D) Random



24. Running involves a phase known as:

(A) Flight phase (no ground contact)


(B) Static stance


(C) Angular-only phase


(D) Pure oscillation



25. In cycling, the seat provides:

(A) Stability for linear translation


(B) Angular propulsion


(C) Oscillatory force


(D) Static blocking



26. Walking forward while swinging arms is:

(A) General motion


(B) Pure linear


(C) Pure angular


(D) Oscillatory



27. Running requires greater __________ than walking.

(A) Muscle power and joint angular velocity


(B) Static equilibrium


(C) Oscillation


(D) Vibratory motion



28. Cycling wheels display which type of combined motion?

(A) Angular rotation + linear forward roll


(B) Oscillatory


(C) Static


(D) Vibratory



29. Walking on a treadmill is primarily:

(A) Angular limb motion without net linear displacement of the body


(B) Pure linear translation


(C) Oscillatory motion


(D) Static posture



30. Running increases:

(A) Stride length and stride frequency


(B) Static balance


(C) Oscillation amplitude


(D) Linear-only translation



31. In cycling, torque applied to the pedals is converted into:

(A) Angular wheel motion and linear forward movement


(B) Pure linear lift


(C) Pure oscillation


(D) Static pressure



32. The arms in running act to:

(A) Counterbalance angular leg motion


(B) Produce linear propulsion


(C) Maintain static posture


(D) Vibrate randomly



33. Walking is biomechanically described as:

(A) Repeated angular rotations producing forward linear motion


(B) Static equilibrium


(C) Oscillatory displacement


(D) Pure angular movement



34. Running speed increases mainly through:

(A) Increased angular frequency of limb cycles


(B) Reduced linear translation


(C) Oscillatory vibrations


(D) Static posture



35. Cycling demonstrates which type of kinematic chain?

(A) Closed chain at foot-pedal interface


(B) Open chain only


(C) Static chain


(D) Oscillatory chain



36. During walking, the stance leg performs:

(A) Closed chain angular support


(B) Open chain swing


(C) Oscillation


(D) Static equilibrium only



37. The swing leg in walking performs:

(A) Open chain angular motion


(B) Closed chain only


(C) Static support


(D) Pure linear motion



38. In running, the ground reaction force is:

(A) Greater than in walking due to higher impact


(B) Lower than in walking


(C) Zero


(D) Static



39. Cycling efficiency improves when:

(A) Angular pedaling is smooth and coordinated


(B) Static balance is emphasized


(C) Oscillations are random


(D) Pure linear pushing occurs



40. Walking, running, and cycling are all examples of:

(A) General motion in biomechanics


(B) Pure linear motion


(C) Pure angular motion


(D) Static posture



41. The human gait cycle is a repeated sequence of:

(A) Stance phase + Swing phase


(B) Static balance only


(C) Oscillation only


(D) Angular-only motions



42. In running, the swing phase is:

(A) Longer than in walking


(B) Shorter than in walking


(C) Equal to walking


(D) Absent



43. Cycling involves both:

(A) Angular pedal motion + linear displacement of bike


(B) Oscillations only


(C) Purely linear glide


(D) Static equilibrium



44. Walking uphill increases:

(A) Angular joint motion demand and linear displacement work


(B) Pure linear displacement only


(C) Static equilibrium


(D) Oscillatory oscillations



45. Running downhill requires greater:

(A) Eccentric muscle control of angular motions


(B) Pure linear acceleration


(C) Static balance


(D) Oscillation



46. Cycling at higher speeds increases:

(A) Angular velocity of pedals and wheels


(B) Static equilibrium


(C) Oscillation only


(D) Random vibration



47. Walking forward with crutches demonstrates:

(A) General motion (linear + angular)


(B) Static posture


(C) Pure angular arm motion only


(D) Pure linear displacement only



48. Sprinting differs from jogging due to:

(A) Higher angular velocity and linear displacement per stride


(B) Reduced stride length


(C) Static movement


(D) Oscillations



49. Cycling uphill demands:

(A) Greater torque and angular force at pedals


(B) Pure static equilibrium


(C) Oscillatory vibration


(D) Reduced joint angular range



50. Walking, running, and cycling are collectively categorized as:

(A) Examples of combined angular and linear motion in the human body


(B) Pure linear motions only


(C) Pure angular motions only


(D) Static equilibrium activities



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