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Hyperspin manifolds
Authors:David Finkelstein  Shlomit Ritz Finkelstein  Christian Holm
Institution:(1) Georgia Institute of Technology, 30332 Atlanta, Georgia
Abstract:Riemannian manifolds are but one of three ways to extrapolate from four-dimensional Minkowskian manifolds to spaces of higher dimension, and not the most plausible. If we take seriously a certain construction of time space from spinors, and replace the underlying binary spinors byN-ary hyperspinors with new ldquointernalrdquo components besides the usual two ldquoexternalrdquo ones, this leads to a second line, the hyperspin manifolds 
$$\mathfrak{S}_N $$
and their tangent spaces 
$$d\mathfrak{S}_N $$
, different in structure and symmetry group from the Riemannian line, except that the binary spaces 
$$d\mathfrak{S}_2 $$
(Minkowski time space) and 
$$\mathfrak{S}_2 $$
(Minkowskian manifold) lie on both. 
$$d\mathfrak{S}_N $$
and 
$$\mathfrak{S}_N $$
have dimensionn=N 2. In hyperspin manifolds the energies of modes of motion multiply instead of adding their squares, and theN-ary chronometric form is not quadratic, butN-ic, with determinantal normal form. For the nine-dimensional ternary hyperspin manifold, we construct the trino, trine-Gordon, and trirac equations and their mass spectra in flat time space. It is possible that our four-dimensional time space sits in a hyperspin manifold rather than in a Kaluza-Klein Riemannian manifold. If so, then gauge quanta with spin-3 exist.
Keywords:
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