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Generalized statement of the eigenvalue problem in the relativistic theory of atoms

A. I. Sherstyuk

Published Nov 1, 1999• 0 citations
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A modified time-dependent perturbation theory for single-photon emission is proposed, which yields the exact photon energy for a relativistically recoiling atom. The relevant unperturbed ``Hamiltonian'' has stationary eigenvalues E2{E}^{2}E2. Its form is generalized here to hydrogenic atoms of arbitrary nuclear spins.
This technical report presents the current status of the Rasan Atomic Model (RAM-0.2), a nonlinear phenomenological extension of the non-relativistic Schrödinger equation for the hydrogen atom. Key contents:- Self-consistent numerical solution of the radial equation for the 1s and 2s states- Proposed (but incomplete) multi-particle and radiation-field generalization- Clear distinction between the energy-functional gap and the stationary nonlinear eigenvalue gap- Conditional spectroscopic sensitivity estimates for the 1S–2S transition- Explicit statement that the model is still a research hypothesis, not a complete QED theory, and that no unique spectral prediction is yet available The accompanying files include:- Reproducible Python code for the radial SCF solver- CSV tables of grid convergence and spectroscopic comparison- Sensitivity plot Scientific status: Research hypothesis under development. Not a confirmed theory, not a violation of standard quantum mechanics, and not yet suitable for patent claims or claims of being a complete atomic model.