Complex phase space coordinates

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SUMMARY

The discussion centers on the geometrical quantization of phase space coordinates, specifically the expression z = 1/sqrt(2)(q + ip). The factor 1/sqrt(2) ensures that the magnitude of z equals 1, which is crucial for maintaining the normalization of probabilities in quantum mechanics. Participants also explore the connection between this formulation and the Heisenberg uncertainty principle, highlighting the relationship between position (q) and momentum (p).

PREREQUISITES
  • Understanding of geometrical quantization
  • Familiarity with complex numbers in quantum mechanics
  • Knowledge of the Heisenberg uncertainty principle
  • Basic principles of probability in quantum mechanics
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  • Research the implications of geometrical quantization in quantum mechanics
  • Study the normalization conditions for quantum states
  • Explore the mathematical foundations of the Heisenberg uncertainty principle
  • Learn about the role of complex numbers in quantum state representation
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Physicists, students of quantum mechanics, and researchers interested in the mathematical foundations of quantum theory and its applications in phase space analysis.

luxtenebra
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First post ! I hope that my question will not make some long time physicists laugh. It is about geometrical quantization and the phase space in which we use : z=1/sqrt(2)(q+ip)
My question is simple what is this 1/sqrt(2) ? And what is it is interpretation ?
Thank you !
 
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luxtenebra said:
what is this 1/sqrt(2) ? And what is it is interpretation ?

The magnitude of ##z## has to be 1, because the probabilities have to all add up to 1. That is what the ##1 / \sqrt{2}## factor is there for.
 
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PeterDonis said:
The magnitude of ##z## has to be 1, because the probabilities have to all add up to 1. That is what the ##1 / \sqrt{2}## factor is there for.
Thanks a lot ! You just confirmed my intuition. Is there any relation to do with Heisenberg principle since we talk about poistion (q) and momentum (p) ?
 

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