The figure to the right shows a transverse harmonic wave

Question

The figure represents the instantaneous picture of a transverse harmonic wave traveling along the negative x-axis. Choose the correct alternative(s) related to the movement of the nine points shown in the figure. The stationary points is/are

  1. o    
  2. b    
  3. f    
  4. h    

The correct answer is: b

Book A Free Demo

Mobile*

The figure to the right shows a transverse harmonic wave
+91

I agree to get WhatsApp notifications & Marketing updates

physics-

The figure represents the instantaneous picture of a transverse harmonic wave traveling along the negative x-axis. Choose the correct alternative(s) related to the movement of the nine points shown in the figure. The points moving downwards is/are

The figure represents the instantaneous picture of a transverse harmonic wave traveling along the negative x-axis. Choose the correct alternative(s) related to the movement of the nine points shown in the figure. The points moving downwards is/are

physics-

The figure represents the instantaneous picture of a transverse harmonic wave traveling along the negative x-axis. Choose the correct alternative(s) related to the movement of the nine points shown in the figure. The points moving upward is/are

The figure represents the instantaneous picture of a transverse harmonic wave traveling along the negative x-axis. Choose the correct alternative(s) related to the movement of the nine points shown in the figure. The points moving upward is/are

physics-

At a certain moment, the photograph of a string on which a harmonic wave is travelling to the right is shown. Then, which of the following is true regarding the velocities of the points P, Q and R on the string

At a certain moment, the photograph of a string on which a harmonic wave is travelling to the right is shown. Then, which of the following is true regarding the velocities of the points P, Q and R on the string

physics-

A detector is released from rest over a source of sound of frequency f0 = 103 Hz. The frequency observed by the detector at time t is plotted in the graph. The speed of sound in air is (g = 10 m/s2)

A detector is released from rest over a source of sound of frequency f0 = 103 Hz. The frequency observed by the detector at time t is plotted in the graph. The speed of sound in air is (g = 10 m/s2)

physics-

A stationary sound source 's' of frequency 334 Hz and a stationary observer 'O' are placed near a reflecting surface moving away from the source with velocity 2 m/sec as shown in the figure. If the velocity of the sound waves is air is V = 330 m/sec, the apparent frequency of the echo is

A stationary sound source 's' of frequency 334 Hz and a stationary observer 'O' are placed near a reflecting surface moving away from the source with velocity 2 m/sec as shown in the figure. If the velocity of the sound waves is air is V = 330 m/sec, the apparent frequency of the echo is

physics-

Consider two sound sources S1 and S2 having same frequency 100Hz and the observer O located between them as shown in the fig. All the three are moving with same velocity in same direction. The beat frequency of the observer is

Consider two sound sources S1 and S2 having same frequency 100Hz and the observer O located between them as shown in the fig. All the three are moving with same velocity in same direction. The beat frequency of the observer is

physics-

A ball is projected from ground with a velocity V at an angle to the vertical. On its path it makes an elastic Collison with a vertical wall and returns to ground. The total time of flight of the ball is

A ball is projected from ground with a velocity V at an angle to the vertical. On its path it makes an elastic Collison with a vertical wall and returns to ground. The total time of flight of the ball is

physics-

A small block of mass m is placed on a wedge of mass M as shown, which is initially at rest. All the surfaces are frictionless. The spring attached to the other end of wedge has force constant k. If a' is the acceleration of m relative to the wedge as it starts coming down and A is the acceleration acquired by the wedge as the block starts coming down, then

A small block of mass m is placed on a wedge of mass M as shown, which is initially at rest. All the surfaces are frictionless. The spring attached to the other end of wedge has force constant k. If a' is the acceleration of m relative to the wedge as it starts coming down and A is the acceleration acquired by the wedge as the block starts coming down, then

physics-

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown Choose the incorrect statement, if m1 = m2 = m and both the persons jump one by one, then

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown Choose the incorrect statement, if m1 = m2 = m and both the persons jump one by one, then

physics-

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When both the persons jump simultaneously with urel with respect to the trolley, then the velocity of the trolley is

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When both the persons jump simultaneously with urel with respect to the trolley, then the velocity of the trolley is

physics-

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When both the persons jump simultaneously with same speed then

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When both the persons jump simultaneously with same speed then

physics-

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When only the person standing at B jumps from the trolley towards right while the person at A keeps standing, then

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When only the person standing at B jumps from the trolley towards right while the person at A keeps standing, then

physics-

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When the person standing at A jumps from the trolley towards left with urel with respect to the trolley, then

Two persons of mass m1 and m2 are standing at the two ends A and B respectively, of a trolley of mass M as shown When the person standing at A jumps from the trolley towards left with urel with respect to the trolley, then

physics-

The figure shows a man of mass m standing at the end A of a trolley of mass M placed at rest on a smooth horizontal surface. The man starts moving towards the end B with a velocity urel with respect to the trolley. The length of the trolley is L Choose the correct statement

The figure shows a man of mass m standing at the end A of a trolley of mass M placed at rest on a smooth horizontal surface. The man starts moving towards the end B with a velocity urel with respect to the trolley. The length of the trolley is L Choose the correct statement

physics-

The figure shows a man of mass m standing at the end A of a trolley of mass M placed at rest on a smooth horizontal surface. The man starts moving towards the end B with a velocity urel with respect to the trolley. The length of the trolley is L The distance moved by the man with respect to ground is

The figure shows a man of mass m standing at the end A of a trolley of mass M placed at rest on a smooth horizontal surface. The man starts moving towards the end B with a velocity urel with respect to the trolley. The length of the trolley is L The distance moved by the man with respect to ground is

What is transverse harmonic wave?

y(x,t) = 3.0 sin (36t + 0.018x + π/4) Where x and y are in cm and t in s. The positive direction of x is from left to right.

What is harmonic wave?

A harmonic is a wave with a frequency that is a positive integer multiple of the fundamental frequency, the frequency of the original periodic signal, such as a sinusoidal wave. The original signal is also called the 1st harmonic, the other harmonics are known as higher harmonics.