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Journal of Mathematical Sciences

Maslov-Poisson measure and Feynman formulas for the solution of the Dirac equation

Nikolaj Nikolaevich Shamarov

Published Apr 22, 2008• 6 citations
Publisher
DOI
10.1007/s10948-008-0172-z

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The main aim of the present paper is using a Chernoff theorem (i.e., the Chernoff formula) to formulate and to prove some rigorous results on representations for solutions of Schrödinger equations by the Hamiltonian Feynman path integrals (=Feynman integrals over trajectories in the phase space). The corresponding theorem is related to the original (Feynman) approach to Feynman path integrals over trajectories in the phase space in much the same way as the famous theorem of Nelson is related to the Feynman approach to the Feynman path integral over trajectories in the configuration space. We also give a representation for solutions of some Schrödinger equations by a series which represents an integral with respect to the complex Poisson measure on trajectories in the phase space.