Dispersion chain of quantum mechanics equations
arXiv:2209.14069 · doi:10.1088/1751-8121/acbd71
Abstract
Based on the dispersion chain of the Vlasov equations, the paper considers the construction of a new chain of equations of quantum mechanics of high kinematical values. The proposed approach can be applied to consideration of classical and quantum systems with radiation. A number of theorems are proved on the form of extensions of the Hamilton operators, Lagrange functions, Hamilton-Jacobi equations, and Maxwell equations to the case of a generalized phase space. In some special cases of lower dimensions, the dispersion chain of quantum mechanics is reduced to quantum mechanics in phase space (the Wigner function) and the de Broglie-Bohm «pilot wave» theory. An example of solving the Schrödinger equation of the second rank (for the phase space) is analyzed, which, in contrast to the Wigner function, gives a positive distribution density function.
74 pages, 12 figures
References in corpus (6)
- Solving the Vlasov equation in two spatial dimensions with the Schrödinger method
- Dark-matter dynamical friction versus gravitational-wave emission in the evolution of compact-star binaries
- The properties of the first equation of the Vlasov chain of equations
- Anisotropic-hydrodynamics approach to a quark-gluon fluid mixture
- Thermodynamics of a one-dimensional self-gravitating gas with periodic boundary conditions
- Dispersion chain of Vlasov equations