AWT considers pilot wave as an analogy of Kelvin waves formed during object motion through particle environment. Original AWT explanation of double slit experiment is, every fast moving particle creates an undulations of vacuum foam around it by the same way, like fish flowing beneath water surface in analogy to de Broglie wave.
These undulations are oriented perpendicular to the particle motion direction and they can interfere with both slits, whenever particle passes through one of them. Aether foam gets more dense under shaking temporarily, thus mimicking mass/energy equivalence of relativity and probability density function of quantum mechanics at the same moment. The constructive interference makes a flabelliform paths of more dense vacuum foam, which the particle wave follows preferably, being focused by more dense environment, thus creating a interference patterns at the target.
Other thing is, whether pilot wave concept supplies a deeper insight or even other testable predictions, then for example time dependent Schrödinger equation does. By my opinion it doesn't, or it's even subset of information contained in classical QM formalism. This doesn't mean, in certain situations pilot wave formalism cannot supply an useful shortcut for formal solution (by the same way, like for example Bohr's atom model) - whereas in others cases it can become more difficult to apply, then other interpretations.
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Thanks for the link to the Single-Particle Interference Observed For Macroscopic Objects paper.
I like John Bell's quote: While the founding fathers agonized over the question 'particle' or 'wave', de Broglie in 1925 proposed the obvious answer 'particle' and 'wave'. Is it not clear from the smallness of the scintillation on the screen that we have to do with a particle? And is it not clear, from the diffraction and interference patterns, that the motion of the particle is directed by a wave? De Broglie showed in detail how the motion of a particle, passing through just one of two holes in screen, could be influenced by waves propagating through both holes. And so influenced that the particle does not go where the waves cancel out, but is attracted to where they cooperate. This idea seems to me so natural and simple, to resolve the wave-particle dilemma in such a clear and ordinary way, that it is a great mystery to me that it was so generally ignored.
By the way, you write therefore it’s evident, QM can be interpreted by classical wave mechanics without problem. It would be more correct to say: quantum slit experiments can be interpreted by classical wave mechanics without problem. Not all of QM may be interpreted by classical wave mechanics.
Kind regards,
Arjen
/*..not all of QM may be interpreted by classical wave mechanics...*/
Yep, I agree. What does word "MAY" mean here?
Well, correspondence principle requires, all aspects of one theory would be convertible into another seamlessly. But in general case such comparison can lead into unresolvable tautologies or fuzzy set of "solution landscapes", indeed. This is because every theory is multidimensional object in causal space, the dimensionality of which is defined by number of mutually independent postulates. This number defines a degree of freedom of every theory. For example, line is defined by vector, plane by 2st order tensor, etc.
When the second theory is more general and it requires lower number of mutually independent (orthogonal) postulates, no lost of information should appear during this, because first theory is observed for higher dimensional perspective, then the second one.
Currently QM is using six or so independent postulates (some of them may be dependent mutually, though), while AWT just two, being implicit theory. From AWT follows, number of postulates of any theory can be limited arbitrarily by making theory implicit and as such fractally recursive.
Meaning of word may: Fermi exclusion principle for example may not be explained by classical wave mechanics, in my view.
What are the two postulates of AWT?
By AWT Universe is composed of inhomogeneous environment of infinite mass/energy density - so called an Aether (1st postulate). The appearance of reality is given by fact, we can observe only transversal waves of this environment (2nd postulate).
Fermi exclusion principle can be demonstrated by surface tension of mercury droplets, for example. While these droplets tends to merge together by weak attractive force (analogy of gravity), the strong but short distance force prohibits them in immediate merging (analogy of weak nuclear force).
http://superstruny.aspweb.cz/images/fyzika/astronomy/blackhole.gif
By this way, large pile of tiny mercury droplets will not collapse immediately, until this collapse isn't initiated by merging of few droplets inside it - after then the avalanche-like collapse of the whole pile occurs. For example, LHC experiments can serve like initiator of terrestrial matter collapse into singularity.
Anthiny Valetini: Is Quantum Mechanics Tried, True, Wildly Successful, and Wrong?
At the moment, when the computational power of classical computers gets already limited with quantum uncertainty, the word "quantum" cannot bring any substantial improvement. Neither quantum mechanics can beat its own theorems...;-)
Classical computers do use the quantum principles too, just from the opposite side: they're using the entangled systems of many objects (charge carriers in their transistors) and they're miniaturized up to level, which quantum uncertainty principle allows. Whereas the quantum computers are based on systems with as low number of entangled qbits as possible and their reliability is achieved with redundancy. The result in computational power is always same: the classical computers are slow but very exact and reliable, whereas the quantum computers are fast, but not quite exact or reliable. If we would consider both factors we would see, that the computational power of both types converges into the same value, determined with uncertainty principle. It means, if we would attempt to construct the quantum computer working at the same level of precision and reliability like the classical one, it would perform with the speed comparable to classical computer anyway.
Not quite surprisingly, the scientists working in quantum computer research are covering this aspect before publics carefully, because they would lose the grants and job positions. The advantage of quantum computers could get some merit only in applications, where the high precision is not required (typically data mining, optical pattern recognition, etc) and when the specialized hardware algorithms would be applied.
Quantum mechanics writ large (PDF)
Interpretation of quantum mechanics by the double solution theory The hidden medium of de Broglie wave mechanics is the aether. The “energetic contact” is the state of displacement of the aether. "For me, the particle, precisely located in space at every instant, forms on the v wave a small region of high energy concentration, which may be likened in a first approximation, to a moving singularity. A particle is a moving singularity which has an associated aether displacement wave." In a boat double slit experiment the boat always travels through a single slit and the bow wave passes through both.
Why bouncing droplets are a pretty good model of quantum mechanics. Ross Anderson: “I think it's potentially one of the most high-impact things I've ever done,” he says, “If we're right, and reality is fluid-mechanical at the deepest level, this changes everything. It consigns string theory and multiple universes to the dustbin.”
Matter and Light in Flatland see also http://yepezoj.blogspot.com
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