Physics
Grade-9
Easy
Question
There are _______ complete oscillations are shown in the graph below.
![](data:image/png;base64,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)
- 3
- 2.5
- 3.5
- 4
The correct answer is: 3.5
Related Questions to study
Physics
Select the correct statement(s) from the following:
I. Motion of a satellite and a planet is periodic as well as SHM.
II. Mass suspended by a spring executes SHM.
III. Motion of a simple pendulum is always SHM.
Select the correct statement(s) from the following:
I. Motion of a satellite and a planet is periodic as well as SHM.
II. Mass suspended by a spring executes SHM.
III. Motion of a simple pendulum is always SHM.
PhysicsGrade-9
Physics
Which of the following statements is not correct for a particle executing simple harmonic motion?
Which of the following statements is not correct for a particle executing simple harmonic motion?
PhysicsGrade-9
Physics
The periodic time of a body executing simple harmonic motion is 3 sec. After how many intervals from time t = 0, its displacement will be half of its amplitude:
The periodic time of a body executing simple harmonic motion is 3 sec. After how many intervals from time t = 0, its displacement will be half of its amplitude:
PhysicsGrade-9
Physics
Force acting in simple harmonic motion is always:
Force acting in simple harmonic motion is always:
PhysicsGrade-9
Physics
Choose the correct statement from the following:
Assertion: In oscillatory motion, displacement of a body from equilibrium can be represented by sine or cosine function.
Reason: The body oscillates to and from about its mean position.
Choose the correct statement from the following:
Assertion: In oscillatory motion, displacement of a body from equilibrium can be represented by sine or cosine function.
Reason: The body oscillates to and from about its mean position.
PhysicsGrade-9
Physics
The displacement time graph of a particle executing S.H.M. is as shown in the figure:
![](data:image/png;base64,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)
The corresponding force-time graph will be:
The displacement time graph of a particle executing S.H.M. is as shown in the figure:
![](data:image/png;base64,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)
The corresponding force-time graph will be:
PhysicsGrade-9
Physics
Assertion: All small oscillations are simple harmonic.
Reason: Oscillations of a simple pendulum system are always simple harmonic whether the amplitude is small or large.
Assertion: All small oscillations are simple harmonic.
Reason: Oscillations of a simple pendulum system are always simple harmonic whether the amplitude is small or large.
PhysicsGrade-9
Physics
Two simple pendulums of length 1 m and 16 m respectively are given small displacements at the same time in the same direction. The number of oscillations ‘N’ of the smaller pendulum for them to be in phase again is:
Two simple pendulums of length 1 m and 16 m respectively are given small displacements at the same time in the same direction. The number of oscillations ‘N’ of the smaller pendulum for them to be in phase again is:
PhysicsGrade-9
Physics
Select the true statement(s) about SHM.
I. Acceleration display style alpha displacement is a sufficient condition for SHM.
II. Restoring force display style alpha displacement is a sufficient condition for SHM.
Select the true statement(s) about SHM.
I. Acceleration display style alpha displacement is a sufficient condition for SHM.
II. Restoring force display style alpha displacement is a sufficient condition for SHM.
PhysicsGrade-9
Physics
What is constant in S.H.M.?
What is constant in S.H.M.?
PhysicsGrade-9
Physics
In a simple pendulum, the period of oscillation T is related to the length of the pendulum l as:
In a simple pendulum, the period of oscillation T is related to the length of the pendulum l as:
PhysicsGrade-9
Physics
Assertion: The amplitude of an oscillating pendulum decreases gradually with time
Reason: The frequency of the pendulum decreases with time.
Assertion: The amplitude of an oscillating pendulum decreases gradually with time
Reason: The frequency of the pendulum decreases with time.
PhysicsGrade-9
Physics
Vibrations, whose amplitudes of oscillations decrease with time are called:
Vibrations, whose amplitudes of oscillations decrease with time are called:
PhysicsGrade-9
Physics
If the metal bob of a simple pendulum is replaced by a wooden bob, then its time period will:
If the metal bob of a simple pendulum is replaced by a wooden bob, then its time period will:
PhysicsGrade-9
Physics
The time period of a simple pendulum is 2 sec. If its length is increased 4 times, then its period becomes:
The time period of a simple pendulum is 2 sec. If its length is increased 4 times, then its period becomes:
PhysicsGrade-9