Compton Effect in Physics

The Compton effect demonstrates that light can behave like particles, which are called photons. When a photon collides with an electron, it loses energy and changes direction, like a billiard ball bouncing off another ball.

The Compton effect demonstrates that light can behave as both waves and particles, supporting the idea of wave-particle duality.

The Compton effect was first observed in 1923 by American physicist Arthur Compton.

The Compton effect involves a photon colliding with a free charged particle, usually an electron.

The change in a photon's wavelength and energy during the Compton effect is called the Compton shift.

The Compton shift is the consequence of the energy and momentum transfer between the photon and the electron.

The Compton effect provides experimental confirmation for the photon theory of light.

During the Compton effect, a photon collides with an electron and loses some of its energy.

The Compton effect is characterized by a change in the photon's direction, or scattering angle.

The Compton effect is a phenomenon that supports the particle-like nature of light, not its wave-like nature.

The Compton effect is a phenomenon that exemplifies the wave-particle duality of light, which means that light can behave as waves or particles in different situations.

Arthur Compton observed the Compton effect in 1923, a discovery that significantly contributed to the understanding of the nature of light.