Consider a quantum particle with energy E approaching a potential barrier of width L and height V0 > E from the right (as shown in image). The wavefunction of the particles in the region x > L is given by ψ = A exp {−i (kx + ωt)} , where A, k and ω are all constants. Use the Gamow factor formalism to calculate an approximate expression for the transmission rate of these particles through the barrier.
Consider a quantum particle with energy E approaching a potential barrier of width L and height V0 > E from the right (as shown in image). The wavefunction of the particles in the region x > L is given by ψ = A exp {−i (kx + ωt)} , where A, k and ω are all constants. Use the Gamow factor formalism to calculate an approximate expression for the transmission rate of these particles through the barrier.
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Consider a quantum particle with energy E approaching a potential barrier of width L and height
V0 > E from the right (as shown in image).
The wavefunction of the particles in the region x > L is given by ψ = A exp {−i (kx + ωt)} , where A, k and ω are all constants.
Use the Gamow factor formalism to calculate an approximate expression for the transmission rate of these particles through the barrier.
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Transcribed Image Text:V(x)
Vo
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