nnunn
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Vladimir, a few more preliminary questions:
1. Motion:
If primitive particles are to be loci of maximal curvature of a spacetime manifold, realized as vortices mediating energy between (inner/outer?) regions of a Klein topology, how would you describe the motion of these loci through that very spacetime which they serve to curve, and of which they are made?
2. Maximal curvature:
Should we take this to mean that in certain circumstances, compact collections of primitive particles (e.g. astrophysical bodies condensed below their Schwarzschild radius) can resist further condensation, implying a mechanism by which such dark bodies might explode? Also, during the development of your model, I think you mentioned (hypothetical?) states where the centers of primitive particles coincide. Do you think your primitive particle could exhibit both behaviours, (i) a "BEC"-like state where the centers of multiple (many?) preons coincide, plus (ii) an ultimatonic "exclusion principle", along the lines of Pauli’s for half-integer spin particles? If so, would vortex chirality, and triad orientation, be involved?
3. Conservative flow:
Regarding the conservative flow mediated by a primitive particle (illustrated in figures 1-5 in the http://uk.arxiv.org/abs/physics/0702113"), could the medium that flows be distinguished from the manifold, i.e. a global attribute pervading the manifold rather than the manifold itself? E.g. some pervasive potential, introduced by some feature of the manifold’s cycling through its Klein topology? For practical purposes (e.g. numerical simulation), as a novice in numerics, I still try to reduce things to measurable states evolving on grids :shy:
4. Photons:
Given that your model successfully describes all particles in the lepton-quark domain as clusters of mutually attracting ultimatonic vortices, and that a fundamental chromacity and resultant forces are well defined within these clusters, how might you describe or measure interaction between these clusters? Specifically, how might you describe or measure a photon, hence the interaction of a photon with a cluster that represents an electron?
still feeling my way around the edges,
Nigel
1. Motion:
If primitive particles are to be loci of maximal curvature of a spacetime manifold, realized as vortices mediating energy between (inner/outer?) regions of a Klein topology, how would you describe the motion of these loci through that very spacetime which they serve to curve, and of which they are made?
2. Maximal curvature:
Should we take this to mean that in certain circumstances, compact collections of primitive particles (e.g. astrophysical bodies condensed below their Schwarzschild radius) can resist further condensation, implying a mechanism by which such dark bodies might explode? Also, during the development of your model, I think you mentioned (hypothetical?) states where the centers of primitive particles coincide. Do you think your primitive particle could exhibit both behaviours, (i) a "BEC"-like state where the centers of multiple (many?) preons coincide, plus (ii) an ultimatonic "exclusion principle", along the lines of Pauli’s for half-integer spin particles? If so, would vortex chirality, and triad orientation, be involved?
3. Conservative flow:
Regarding the conservative flow mediated by a primitive particle (illustrated in figures 1-5 in the http://uk.arxiv.org/abs/physics/0702113"), could the medium that flows be distinguished from the manifold, i.e. a global attribute pervading the manifold rather than the manifold itself? E.g. some pervasive potential, introduced by some feature of the manifold’s cycling through its Klein topology? For practical purposes (e.g. numerical simulation), as a novice in numerics, I still try to reduce things to measurable states evolving on grids :shy:
4. Photons:
Given that your model successfully describes all particles in the lepton-quark domain as clusters of mutually attracting ultimatonic vortices, and that a fundamental chromacity and resultant forces are well defined within these clusters, how might you describe or measure interaction between these clusters? Specifically, how might you describe or measure a photon, hence the interaction of a photon with a cluster that represents an electron?
still feeling my way around the edges,
Nigel
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