How Does a High-Intensity Laser Interact with an Electron Cloud?

AI Thread Summary
A high-intensity continuous wave laser interacting with an electron cloud primarily involves Thomson scattering, where the laser's energy is absorbed and re-emitted by the electrons. The extent of this scattering is influenced by the frequency of the laser, particularly if it is in the visible spectrum. The area density of the electron cloud plays a crucial role in determining how much energy is scattered. Additionally, the intensity of the laser affects the interaction dynamics. Understanding these factors is essential for predicting the behavior of the laser-electron cloud interaction.
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A high intensity continuous wave laser passes through an electron cloud. Please discuss what would happen and in relative amounts.

Thanks
 
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I think your conditions are going to need to be more specific if you want any meaningful discussion.
 
If the frequency is in the visible I think Thomson scattering would occur, but by how much? Does all of the energy of the incoming wave get absorbed and re emitted by the electron ie Thomson scattered?
 
That will depend on the area density of the electron cloud.

The laser intensity can be relevant as well.
 
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