Explanation of double slit experiment.

In summary, quantum objects behave as particles rather than waves, but their wave-like qualities are determined by the properties of the field they propagate on. In the Young's double slit experiment, a particle only goes through one of the slits and does not interfere with itself. The boundary conditions set up by the double slit determine the available field modes for particle propagation, which can give rise to observed interference effects. This can also be seen in the Casimir effect, where the boundary conditions on the field affect the attraction between plates. Many people confuse the wave function as referring to individual particles, but it actually represents the state-preparation of the experiment and the effect of the boundary conditions on the field modes. It is important to model these phenomena mathem
  • #1
jcsubmit
2
0
Quantum objects are particles, not waves. Particles are bundles of energy propagating on a field. It is the properties of the field that seem to give particles wave-like qualities. Thus in the Young's double slit experiment, a given particle goes through one and only one of the slits; it does not go through both slits; it does not interfere with itself. The double slit sets up the boundary conditions on the field. What happens when a particle passes through a slit is determined by the available field modes. As with the Casimir effect, where the attraction between the plates can be explained by the fact that the boundary conditions on the field exclude certain field modes, the boundary conditions on the Youngs slit field determine the field modes available for particle propagation. The available field modes give rise to the observed interference effects. Much confusion is caused by thinking that the wave function refers to individual particles whereas it embodies the state-preparation of the experiment - in this case the effect of the boundary conditions on the field modes available for particle propagation.
 
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  • #2
yes, but the fields are not magic are they?

You need to model it mathematically, then you'll find you'll get something very close to QFT, otherwise you're just plain wrong.
 
  • #3
jcsubmit said:
... What happens when a particle passes through a slit is determined by the available field modes. ...

And once again, the question I ask is what you mean here. It sounds as if you are describing a classical mechanism - interaction of an object within a medium - when clearly that is not an accurate way to see things. It would be more accurate to describe the particle as self interfering when its path is obscured. That would be true for any quantum object, including atoms and molecules.
 

Related to Explanation of double slit experiment.

1. What is the double slit experiment?

The double slit experiment is a classic physics experiment that demonstrates the wave-particle duality of light. It involves shining a beam of light through two parallel slits and observing the resulting interference pattern on a screen behind the slits.

2. Why is the double slit experiment important?

The double slit experiment is important because it provides evidence for the wave-particle duality theory, which states that particles can exhibit both wave-like and particle-like behavior. This has significant implications for our understanding of the nature of light and matter.

3. How does the double slit experiment work?

In the double slit experiment, a beam of light is shined through two parallel slits, creating two coherent sources of light waves. These waves then interfere with each other, producing a pattern of bright and dark fringes on a screen behind the slits. This interference pattern is a result of the superposition of the two waves.

4. What does the double slit experiment tell us about the nature of light?

The double slit experiment tells us that light behaves as both a wave and a particle. The interference pattern observed on the screen indicates that light waves can interfere with each other, while the individual detection of photons at the screen demonstrates the particle-like behavior of light.

5. Are there any real-world applications of the double slit experiment?

The double slit experiment has practical applications in fields such as optics, telecommunications, and quantum computing. It also serves as the basis for technologies such as holography and diffraction gratings.

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