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metgt4
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Quantum - Projection Probability - "Projection amplitudes for SHO states."
Given the two normalized 2D SHO wave functions <x,y|mx[/SUB ],ny> for the second energy level n = nx + ny = 1 in the mx[/SUB ],ny representation:
<x,y|1,0> = (2/pi)1/2xexp[-(x2+y2)/2]
<x,y|0,1> = (2/pi)1/2yexp[-(x2+y2)/2]
and in the alternative n, m representation <x,y|n,m>
<x,y|1,+1> = (1/pi)1/2(x+iy)exp[-(x2+y2)/2]
<x,y|1,-1> = (1/pi)1/2(x-iy)exp[-(x2+y2)/2]
(a) Construct a table of projection amplitudes between these two similar to Table 7-1 (I'll include this table in the attachments) for photon polarization states.
The question continues, but I would like to work the rest out myself. I just don't seem to understand how to change from one base to the other for this question!Thanks for any hints or help you can give me!
Andrew
Given the two normalized 2D SHO wave functions <x,y|mx[/SUB ],ny> for the second energy level n = nx + ny = 1 in the mx[/SUB ],ny representation:
<x,y|1,0> = (2/pi)1/2xexp[-(x2+y2)/2]
<x,y|0,1> = (2/pi)1/2yexp[-(x2+y2)/2]
and in the alternative n, m representation <x,y|n,m>
<x,y|1,+1> = (1/pi)1/2(x+iy)exp[-(x2+y2)/2]
<x,y|1,-1> = (1/pi)1/2(x-iy)exp[-(x2+y2)/2]
(a) Construct a table of projection amplitudes between these two similar to Table 7-1 (I'll include this table in the attachments) for photon polarization states.
The question continues, but I would like to work the rest out myself. I just don't seem to understand how to change from one base to the other for this question!Thanks for any hints or help you can give me!
Andrew
Attachments
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