(a) Show that for a non-relativistic particle of mass m and kinetic energy K, the de Broglie wavelength is given by, 1 = h/(2mK)"2 1/2 (b) Show that if the particle is moving with a relativistic velocity, the wavelength will be given by, 1= h c/ [K (K+ 2mc³)]², where K is the relativistic kinetic energy. (c) Find approximate expressions for as a function of K in the special cases: (i) K« mc² (non- relativistic limit); and (ii) K>> mc² (extreme-relativistic limit). (d) Çalculate the de Broglie wavelength for a proton with kinetic energy 25 Mev and 7.00 GeV.

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(a) Show that for a non-relativistic particle of mass m and kinetic energy K, the de Broglie
wavelength is given by, 1 = h/(2mK)"2
1/2
(b) Show that if the particle is moving with a relativistic velocity, the wavelength will be given
by, 1= h c/[K (K+ 2mc²)]", where K is the relativistic kinetic energy.
%3D
(c) Find approximate expressions for as a function of K in the special cases: (i) K << mc² (non-
relativistic limit); and (ii) K>> mc² (extreme-relativistic limit).
(d) Calculate the de Broglie wavelength for a proton with kinetic energy 25 Mev and 7.00 GeV.
Transcribed Image Text:(a) Show that for a non-relativistic particle of mass m and kinetic energy K, the de Broglie wavelength is given by, 1 = h/(2mK)"2 1/2 (b) Show that if the particle is moving with a relativistic velocity, the wavelength will be given by, 1= h c/[K (K+ 2mc²)]", where K is the relativistic kinetic energy. %3D (c) Find approximate expressions for as a function of K in the special cases: (i) K << mc² (non- relativistic limit); and (ii) K>> mc² (extreme-relativistic limit). (d) Calculate the de Broglie wavelength for a proton with kinetic energy 25 Mev and 7.00 GeV.
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