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Match the following {:("List - I","Lis...

Match the following
`{:("List - I","List - II"),("(a) acceleration","(e) A"sin omega t),("(b) time period","(f) A"^(2) omega cos omega t),("(c) displacement","(g) A" omega cos omega t),("(d) velocity","(h) -A" omega^(2) sin omega t),(,"(i) 2"pi sqrt((l)/(g))):}`

A

a - h, b - f, c - e, d - i

B

a - h, b - i, c - e, d - g

C

a - f, b - h, c - g, d - e

D

a - h, b - f, c - e, d - g

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The correct Answer is:
To solve the matching question, we need to identify the correct relationships between the physical quantities in List - I and their corresponding expressions in List - II based on the principles of Simple Harmonic Motion (SHM). ### Step-by-Step Solution: 1. **Identify the expressions for each quantity in SHM**: - **Displacement (x)**: In SHM, the displacement can be expressed as: \[ x(t) = A \sin(\omega t) \] This corresponds to option (e) in List - II. 2. **Determine the expression for velocity (v)**: - The velocity is the time derivative of displacement: \[ v(t) = \frac{dx}{dt} = A \omega \cos(\omega t) \] This corresponds to option (g) in List - II. 3. **Determine the expression for acceleration (a)**: - The acceleration is the time derivative of velocity: \[ a(t) = \frac{dv}{dt} = -A \omega^2 \sin(\omega t) \] This corresponds to option (h) in List - II. 4. **Identify the time period (T)**: - The time period of a simple pendulum is given by: \[ T = 2\pi \sqrt{\frac{l}{g}} \] This corresponds to option (i) in List - II. 5. **Match the quantities from List - I to List - II**: - (a) Acceleration → (h) \(-A \omega^2 \sin(\omega t)\) - (b) Time period → (i) \(2\pi \sqrt{\frac{l}{g}}\) - (c) Displacement → (e) \(A \sin(\omega t)\) - (d) Velocity → (g) \(A \omega \cos(\omega t)\) ### Final Matching: - (a) → (h) - (b) → (i) - (c) → (e) - (d) → (g)
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NARAYNA-OSCILLATIONS-EXERCISE - II (C.W)
  1. The displacement - time graph of a particle executing SHM is as shown ...

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  2. The acceleration of the particle at t = 3 s in the above figure is

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  3. The minimum time the particle takes to travel from y = + "1 m to y" = ...

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  4. Match the following {:("List - I","List - II"),("(a) acceleration","...

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  5. For a particle executing SHM along a straight line (displacement is me...

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  6. {:("List - I","List - II"),("(A) x-t graph of simple harmonic oscillat...

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  7. The mass and diameter of a planet are twice those of earth. What will ...

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  8. The length of a second's pendulum on the surface of the moon, where g ...

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  9. The matallic bob of a simple pendulum has the relative density rho. Th...

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  10. A pendulum clock is taken 1km inside the earth from mean sea level. Th...

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  11. A seconds pendulum is suspended from rof of a vehicle that is moving a...

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  12. For a simple pendulum, the graph between T^(2) and L (where T is the t...

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  13. In case of a simple pendulum, time period versus length is depicted by

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  14. Assuming the earth as an spherical body, for seconds pendulum {:("Co...

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  15. {:("List - I","List - II"),("(A) Frequency of seconds pendulum","(E)"A...

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  16. For a simple pendulum, a graph is plotted between itskinetic energy (K...

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  17. As a body performs SHM its potential energy U. varies with time as ind...

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  18. A particle of mass m oscillates with simple harmonic motion between po...

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  19. A simple harmonic oscillator (A) Always has maximum KE at the equili...

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  20. Which of the following figure represents damped harmonic motion

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