Abstract

Dodson-Zeeman fuzzy topology considered as the possible mathematical framework of geometric quantum formalism. In such approach the states of massive particle m correspond to elements of fuzzy manifold called fuzzy points. Due to their weak (partial) ordering, m space coordinate x acquires principal uncertainty σ x . It’s shown that m evolution on such manifold is described by Schroedinger or Dirac formalisms in norelativistic and relativistic cases correspondingly.

Highlights

  • Importance of geometric methods in Quantum Physics is duly acknowledged the reformulation of quantum mechanics (QM) in geometric terms is still an open problem ([1] and refs. therein). Such formalism can be applied primarily for quantum gravity problems, and for gauge field theory; its implications can be important for the analysis of QM foundations

  • The main impact of these studies is done on the exploit of Hilbert manifolds [1], alternatively in the approach considered here the basic structure is the real manifold equipped with fuzzy topology (FT) [2,3,4]

  • The general feature of such theories is that the space coordinates turn out to be principally fuzzy, the reason of that is the noncommutativity of coordinate observables x1,2,3

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Summary

Introduction

Importance of geometric methods in Quantum Physics is duly acknowledged the reformulation of quantum mechanics (QM) in geometric terms is still an open problem ([1] and refs. therein). It’s possible to detalize such smearing introducing the fuzzy relations, for that purpose one can put in correspondence to each a0, a j pair the weight w j ≥ 0 with the norm j w j = 1 In this case A is fuzzy ordered set (Foset), a0 called the fuzzy point (FP) [3, 10]. In the geometry with fundamental set CF the position of fuzzy point a j described by the positive normalized function w j(x) on X, which called the fuzzy value xj; w j dispersion σx characterizes a j coordinate uncertainty on X.

Linear Model of Fuzzy Dynamics
General Fuzzy Dynamics

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