Conditions for interaction in the quantum world

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SUMMARY

The discussion focuses on the conditions necessary for the collapse of a wave function in quantum mechanics, specifically regarding electrons, photons, and alpha particles. Key concepts include the role of mass, with higher mass generally facilitating wave function collapse, and the impact of decoherence on quantum states. Participants question the influence of wavelength and subsequent interactions on wave function behavior, emphasizing that the outcomes depend on the specific experimental setup and interpretation of quantum mechanics.

PREREQUISITES
  • Understanding of quantum mechanics principles
  • Familiarity with wave function collapse
  • Knowledge of decoherence in quantum systems
  • Basic concepts of particle-wave duality
NEXT STEPS
  • Research the role of decoherence in quantum mechanics
  • Explore the implications of mass on wave function collapse
  • Study the effects of wavelength on quantum particle behavior
  • Investigate different interpretations of quantum mechanics
USEFUL FOR

Students and researchers in physics, particularly those focused on quantum mechanics, wave-particle duality, and the behavior of subatomic particles.

jimmylegss
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What are the conditions necesairy to collapse a wave function of a electron, photon or an atom (alpha particle mostly?).

Wavelength? Asking because I cannot understand why in this video the wave function does not collapse in this box.


Seems like in the outside there should be massive interference?

If the mass is higher, is it easier for the wave function to collapse?

And related, let;s say light behaves as a wave, I let it collapse with some interaction, what happens if there is another interaction later on (before it would hit a final destination), does it spread out again?
 
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jimmylegss said:
What are the conditions necesairy to collapse a wave function of a electron, photon or an atom (alpha particle mostly?).
That depends on your favorite interpretation of quantum mechanics. Decoherence is certainly a relevant concept here.

Wavelength? Asking because I cannot understand why in this video the wave function does not collapse in this box.
Where in the video?
If the mass is higher, is it easier for the wave function to collapse?
In general, yes.

And related, let;s say light behaves as a wave, I let it collapse with some interaction, what happens if there is another interaction later on (before it would hit a final destination), does it spread out again?
Depends on the setup.
 
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