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But then many people "vote" against their "measurements" and dismiss the work of particle physics.
No. It is all a matter of opinion and faith and belief in the experimenters.
They hold the "opinion" that the "mesaurements" cannot be trusted.
A lot of optical illusions can be explained by Fermat's principle of least time, but why does light obey it? On a fundamental level, it all comes down to quantum mechanics, specifically quantum optics, where we use the famous "Feynman path integral formulation" to explain light through photons.
Clarification: In my quantum animations, that is not multiple photons taking different paths. It is a single photon taking multiple paths simultaneously. We're releasing only one photon at a time. Adding those phasor arrows together gives us the probability of receiving a single photon at any given moment.Minor Correction: I show the paths leaving the source at the same time and arriving at the detector at different times, when it should actually be the other way around. Paths that take more time should be leaving the source earlier in order to arrive at the detector at the same time as the others. The reason we can add the phasor arrows together is because the paths arrive at the detector at the same time.
This video explains refraction as the result of path integral of each individual photon. Although it doesn't explain the mechanism for how the media can change the speed of light in them.
Quote from: hamdani yusuf on 03/02/2023 13:47:02This video explains refraction as the result of path integral of each individual photon. Although it doesn't explain the mechanism for how the media can change the speed of light in them.Usual problem. You need Maxwell to determine the speed of propagation of light as a wave, and Planck to describe the interaction of a photon with a receptor. No big deal.
The point is, having an accurate and precise model of the physical reality gives us the ability to predict and design systems that we need to achieve our goals more effectively and efficiently. Trial and error can often give useful results, but we should be able to achieve it more efficiently.
The point is, having an accurate and precise model of the physical reality gives us the ability to predict and design systems that we need to achieve our goals more effectively and efficiently.
You are using a computer which could not have been made without accurate models.So you should know that such models already exist.
Are they the same as what we usually find in common physics textbooks or online sources?
Quote from: hamdani yusuf on 07/02/2023 02:38:40Are they the same as what we usually find in common physics textbooks or online sources?Yes.Where did you think the engineers learned them from?Ancient scrolls?Mystic spell passed down from master to apprentice?
Do you know that they are contradicting one another?
Quote from: hamdani yusuf on 07/02/2023 09:07:34Do you know that they are contradicting one another?If I ask you to provide examples am I going to have to remind you about "lies we tell to children" again?
Quote from: Bored chemist on 08/02/2023 18:28:40Quote from: hamdani yusuf on 07/02/2023 09:07:34Do you know that they are contradicting one another?If I ask you to provide examples am I going to have to remind you about "lies we tell to children" again?A bad thing about lies is that they need more lies to cover them up.
If you rely on contradictory models you won't be able to make anything that works. This computer works, so I assume it was built with the use of models that do not contradict one another.
Computer designers can make computer works without knowing why light changes its speed and direction during refraction.
Do you realize that Apollo mission used Newton's model?