Quantum as classical (booklet)
https://www.horobox.com/en/news-detail/what-is-time-part-2-

Quantum as classical (booklet)

v. 4 n. 41

"... Despite nearly a century of debate and experiment, no consensus has been reached among physicists and philosophers of physics concerning which interpretation best “represents” reality 1."-- BingAI, in response to the question: What are the interpretations of quantum mechanics?


The interpretation of quantum physics in the following articles is that it is a rather conservative smooth extension of classical physics, in an attempt to avoid the present conventional ambiguity.

That quantum mechanics might not be radical is indeed radical.

The most discrete part might be illustrated as the Planck length being the smallest amount space can be "bent." Take a thin rubber (effectively two-dimensional) sheet and pinch it into the third dimension to form the smallest possible bend. This a rough way to indicate the stiffness of the material. The stiffer the medium, the larger the bend. The "material" being considered here is spacetime itself, which is said to have a certain "stiffness." Space isn't very stiff, and it must have a low "stiffness coefficient" or "spring constant," but some finite value because of the detection of gravitational waves, an alternate terminology for waves in space(time) itself. Planck's constant is seen to relate to the stiffness of space, and is small because space is not very stiff. In such a way quantum and relativity physics, which is classical, can be associated. The discussion for this begins in (3) What is behind light and matter and the small value of Planck's constant? | LinkedIn

Describing quantum superposition in terms of probability and the locality of virtual particles is in Is superposition in quantum mechanics physical or philosophical? | LinkedIn

The transport of light in space is described in terms of classical Newtonian gravity, as unrelated as gravity and electromagnetism might appear, in (1) Light from gravity? | LinkedIn

and (2) What is the actual speed of a photon? (booklet) | LinkedIn

The probability nature of quantum mechanics is seen to be based on the range of energies of virtual particles and proximity in (1) A view of virtual particles in the ground-state vacuum (2nd booklet) | LinkedIn

Regarding radioactivity there are Is there a predictive explanation for radioactivity? | LinkedIn

and A rationale for beta decay from Newtonian gravity and special relativity | LinkedIn

Wavefunction collapse is introduced in the first article; indivisibility, probability, causality or order or intelligibility is behind the mathematics of wavefunction collapse following a measurement. (2) The measurement problem revisited* | LinkedIn

The following article list is by no means exhaustive. The author's intention was to pick some articles that relate to the title, beginning for the most part with the recent, then pairing down so that the whole is manageable. Instead, why not glance through them at random and pick those that seem interesting.

(2) The measurement problem revisited* | LinkedIn

Is physics local or non-local, here or there? | LinkedIn

(7) Rotating black holes: Newton and Einstein in concert | LinkedIn

How information might not be lost within black holes | LinkedIn

Where is all the antimatter? | LinkedIn

Why does the electron have a magnetic moment? | LinkedIn

Particle spin (booklet) | LinkedIn

Is superposition in quantum mechanics physical or philosophical? | LinkedIn

Gravitational basis of quanta? | LinkedIn

Where is the boundary between the small and large scale? | LinkedIn

A brief derivation of electron mass | LinkedIn

Particle spin as energy converter | LinkedIn

Mediating particles and gravity | LinkedIn

Weak/EM forces from gravity | LinkedIn

Particle and equivalence principle | LinkedIn

Is there a predictive explanation for radioactivity? | LinkedIn

A rationale for beta decay from Newtonian gravity and special relativity | LinkedIn

Why is time in quantum mechanics Newtonian (but maybe not in the strictest sense)? | LinkedIn

Natural constants from one source | LinkedIn

(1) If light has no mass, why is it affected by gravity (discounting the equivalence principle)? * | LinkedIn

(1) How would the standard model be affected by a "photon with mass"? | LinkedIn

(1) Light from gravity? | LinkedIn

(2) An explanation for possible charm quarks in the proton by solutions to the 3-body problem | LinkedIn

(2) Affirming a physical mechanism for the production of possible intrinsic charm in the proton | LinkedIn

(2) Gluon or gravity? | LinkedIn

(2) Avoiding renormalization in quantizing gravity | LinkedIn

(2) The strong force in terms of Newtonian gravity and special relativity | LinkedIn

(2) Is proton spin related to the strong force? | LinkedIn

(1) Particles as sinks instead of sources (booklet) | LinkedIn

(1) A view of virtual particles in the ground-state vacuum (2nd booklet) | LinkedIn

(2) The many faces of Planck's constant (booklet) | LinkedIn

(2) What is the actual speed of a photon? (booklet) | LinkedIn

(3) Reconciling absolute and relative time with a quantum mechanical space that is POTENTIALLY relativistic | LinkedIn

(3) What is behind light and matter and the small value of Planck's constant? | LinkedIn


* Cover image: https://www.horobox.com/en/news-detail/what-is-time-part-2-

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