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EugeneMorrow wrote:I was not "proving" by referring to the experiment - I was simply giving a clear example of what I mean by the particle changing direction while following the wave.
The mechanism in TEW for the particle following the wave is described in the references I gave. You don't have to read it, but I'm not going to all the work of repeating it here.
The points on the screen or a detector are not in phase together. TEW has never said that. Each point on a detector or screen has it's own elementary wave and acts completely independently of the other points. You need to say a bit more about what you're talking about here.
EugeneMorrow wrote:What is important to point out is that the interactions are all local and deterministic. Unlike qm, the particle just deals with what's happening in it's immediate vicinity, and that's all it needs. For qm, "non-local' effects are required to explain results, whereas TEW has no need of that.
Value ontology is the interpretation of "being"/"the world" as composed of beings, subjects. It explains the structure of a subject as a mechanism whereby substance is assimilated in terms dictated by the nature of the subject. This assimilating is done by "valuing", that is, selecting. This selecting requires a standard, a ground value. This ground value is perpetually being set by and as a fundamental mechanism, that sustains itself by restricting its selection of its interactions with the outside to the type that sustains it.
Value ontology therefore refers to a logical circularity that is expressed in temporality as a circuitry tending to expand itself by integrating what it encounters while maintaining its integral structure. The theory explains why what exists exists and persists through time, by making it evident that whatever does not have a "self-valuing" (such a mechanism by which a standard is maintained that serves to keep this mechanism operative) can not maintain structural integrity, i.e. can not persist.
Isn't this covered by the concept that there are an infinite number of waves at the detector - I read that as suggesting all frequencies and phases are present.As to the waves being in phase, every explanation he has given has assumed that and the entire theory actually depends on them having a predictable phase relation. Without a phase relation, there can be no justification for any particle to follow or even be triggered to follow a particular screen wave from any particular location. The theory depends on the portions of the screen labeled "1,2,3,4, and 5" having a set phase relationship, else the origin of the wave would be irrelevant.
phyllo wrote:Isn't this covered by the concept that there are an infinite number of waves at the detector - I read that as suggesting all frequencies and phases are present.As to the waves being in phase, every explanation he has given has assumed that and the entire theory actually depends on them having a predictable phase relation. Without a phase relation, there can be no justification for any particle to follow or even be triggered to follow a particular screen wave from any particular location. The theory depends on the portions of the screen labeled "1,2,3,4, and 5" having a set phase relationship, else the origin of the wave would be irrelevant.
Fixed Cross wrote:I wonder if Elementary Wave Theory may be understood alongside these logical necessities. To attain an answer here we'd need to know what an elementary wave "is". What is its structure/mechanism? Does the theory posit a logically comprehensible ground to such waves, or does it remain entirely phenomenological? In the latter case, are EW's to be seen as fundamental?
I think they are zero energy waves as well.If that were the case, there would be no wave at all. A flat fourier analysis and a void are the same thing.
Energy (the ability to do anything at all) becomes apparent only when there is distinction in the sum total (ie. the wave).
phyllo wrote:I think they are zero energy waves as well.If that were the case, there would be no wave at all. A flat fourier analysis and a void are the same thing.
Energy (the ability to do anything at all) becomes apparent only when there is distinction in the sum total (ie. the wave).
In the picture of the universe presented by TEW thus far, elementary waves corresponding to every different kind of particle would have to be everywhere in space at all times. Although there is no valid reason why thsi could not be the case, it seems much more likely, given the available evidence, that the various different waves corresponding to different particles are combinations or compounds of a set of a few waves - a set of the most elementary elementary-waves.
EugeneMorrow wrote:My original post gives a quick description of the double slit experiment by talking about one point on the detector called D1. D1 emits an elementary wave, and the geometry of where it is controls how much waves from D1 interfere when they reach the source. Waves from point D2 alongside might interfere slightly more or less. The level of that interference is what triggers the source - the more constructive the interference the more likely that the source sends a particle back along the wave coming in.
So point D1 may get no particles because the D1 elementary waves completely cancel out at the source. Point D152 might get lots of particles, because the D152 elementary waves all add together at the source. Point D304 gets no particles again, because the D304 waves cancel out. In between the points get some number of particles. When you look at the particles arriving at all the point on the detector, you see an interference pattern. It is made up of separate elementary waves for each point on the detector.
There is no coordination between all the points. Each one emits it's own elementary waves and may or may not get a particle. Each one just deals with what is happening locally - they don't know and don't care about what is happening at the other points.
Have I answered your question?
... inelastic collision changes a "marker" or "signature" on the elementary wave. After the inelastic collision, the marker changes to something that is unique to the mass in that collision. The marker identifies that elementary wave. The mechanism for the marker is not currently known, so TEW is not a complete theory in that regard.
Such autonomy requires that the waves emanating from each point on the screen carry a "marker" of some sort set by the state of the atomic or subatomic objects located at that screen point. Exactly what these markers look like is a present unknown. Waves carrying different markers do not interfere with one another. Wavelets from the two slits that carry the same marker interfere with each other and act together as a single wave at the particle source.
Fixed Cross wrote:James - value ontology, because it is entirely abstract (positing "value" as the constant instead of as the variable) is precisely not phenomenological. What you re asking is that it step out into phenomenology, and this is like asking the sky to produce rain. It will, eventually, but has to accumulate a certain density that makes this step necessary.
James S Saint wrote:Fixed Cross wrote:James - value ontology, because it is entirely abstract (positing "value" as the constant instead of as the variable) is precisely not phenomenological. What you re asking is that it step out into phenomenology, and this is like asking the sky to produce rain. It will, eventually, but has to accumulate a certain density that makes this step necessary.
"Value is a constant"???
Constantly existing, yes. But not of a constant value for all things. That wouldn't make any sense.
EugeneMorrow wrote:There are no "hidden variables" for TEW, and I think qm agrees there are none either. Both theories agree that the slits are the basic cause of interference in the double slit experiment. The difference between qm and TEW is the usual difference in wave direction.
James S Saint wrote:The simple truth is that it is the edges of the slit that is causing the appearance of an interference pattern for particles. Only in polarization of spin do particles interfere with each other unless they have charge (which is why they are using neutrons rather than electrons). Photons can have phase interference regardless of spin. The same experiment will give similar results for each type of particle or wave, yet be doing it for different reasons. But in all cases, it is the edge of the slits that is causing the resultant patterns.
EugeneMorrow wrote:Calrid,
True - I think most people won't read the book until they have more information, but I'm unlikely to give enough information in this debate ! Oh well, the debate is still worth having, even if people simply discover why they prefer quantum mechanics (qm) to any other theory. Looking at those reasons is very relevant to this thread.
Eugene Morrow
People prefer QM because it works, it has the most number of Nobel prizes, the most funding, the most career paths, the most practical applications and of course most importantly makes the most money for the industries of the world: PCs and super conductor technologies being two shining examples of potential profit, and it isn't as full of untestable predictions as some of the more philosophical waffle like string voodoo.
TEW simply needs to distinguish itself from QM in such a way as to prove beyond doubt they are separate theories and that TEW models reality better. No easy task.
EugeneMorrow wrote:James S Saint,
Lewis Little named them "elementary waves" because they are the limit of our knowledge. They are like electrons - we can't see them and cannot break them down into anything smaller, but we all agree they exist.
EugeneMorrow wrote:The elementary waves are "zero energy" because their interaction with the rest of the world is actually fairly small. The elementary waves have collisions with mass, and interfere with each other like waves do. Elementary waves stimulate particles from sources, but it's the source that has the final say on the matter. Particles follow elementary waves, but it may not be a direct relationship - if the elementary wave turns left and the particle coming back turns right then the particle is still following the wave, but the wave and the particle may have turned for their own reasons - it does not strictly have to be the wave guiding the particle.
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