A particle A with a mass `m_(A)` is moving with a velocity v and hits a particle B (mass `m_(B)`) at rest (one dimensional motion). Find the change the de-Broglie wavelength of the particle A. Treat the collision as elastic.

A particle A with a mass m_(A) is moving with a velocity v and hits a particle B (mass m_(B) ) at rest (one dimensional motion). Find the change in the de-Broglie wavelength of the particle A. Treat the collision as elastic.

A particle A with a mass m_(A) is moving with a velocity v and hits a particle B (mass m_(B) ) at rest (one dimensional motion). Find the change in the de-Broglie wavelength of the particle A. Treat the collision as elastic.

A particle A with a mass m_(A) is moving a velocity v and hits a particle B(mass m_(B) )at rest (one dimensional motion).Find the change in the de-Broglie wavelength of the particle A.Treat the collision as elastic.

A particles A with mass m_A is moving with velocity v and hits a particle B (mass m_B) at rest (one dimensional motion) find change in the de-Broglie wavelength of the particle A. Treat the collision as elastic.

A particle A with a mass m_(A) is moving with a velocity v and collides with a particle B of mass m_(B) (m_(A) gt M_(B)) at rest (one dimensional motion). Calculate the change in the de Broglie wavelength of the particle A. Assume that the collision is elastic in nature.

A particle with rest mass m_0 is moving with velocity c. what is the de-Broglie wavelength associated with it?

A particle with rest mass m_0 is moving with velocity c. what is the de-Broglie wavelength associated with it?

A particle of mass m moving with velocity v strikes a particle of mass 2m at rest and sticks to it. The speed of the combined mass is

A particle A of mass m and initial velocity v collides with a particle of B of mass m/2 which is at rest. The collision is head-on and elastic. The ratio of the de Broglie wavelengths lamda_(A) "to" lamda_(B) after collision is

A particle A of mass m and initial velocity v collides with a particle of mass m//2 which is at rest. The collision is head on, and elastic. The ratio of the de-broglie wavelength lambda_(A) and lambda_(B) after the collision is