Would you expect to observe the Compton effect more readily with scattering targets composed of atom with high atomic number or those composed of atoms with low atomic number? Explain!
@calculusfunctions
@jhonyy9
@gerryliyana , I see you asked for my help four days ago, but I'm just seeing your question now. I hope it's still helpful. In short, when a photon collides with a particle, an electron for example, at an angle θ, the scattered photon will now possess less energy and a lower frequency, as a consequence. Also it changes momentum. Since it experiences a decreases in frequency, it's wavelength increases. If a photon with a given wavelength collides with a free electron at rest, at an angle θ, then it's scattered wavelength increases, and\[\lambda _{2}-\lambda _{1}=\frac{ h }{ m _{e}c }(1-\cos \theta )\]where the Δλ is the change in wavelength, m sub e is the mass of the free electron at rest, and h = 6.626 x 10 ˆ-34 is Planck's constant. From the equation you can observe that as the mass of the electron increases, the wavelength decreases.
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