Hydrogen Atom Time-Element Volume–Orbit Paradigm Manifesto

We propose a time-element volume–orbit paradigm for the hydrogen atom, replacing the conventional Coulomb–wavefunction narrative with an ontological description built on a proton “time element” and a time-potential landscape. Electron motion is defined as a stable closure layer in this landscape rather than a force-balanced trajectory, a de Broglie standing wave, or a Schrödinger probability cloud. Orbital stratification is generated by an integer hierarchy of orbit-enclosed volumes, from which the standard readout scalings emerge: radii scale as n squared, orbital speeds scale as one over n, and energy levels scale as one over n squared toward the ionization limit. Within this framework, mass and energy are treated as secondary readouts of time-potential differences rather than first-principle inputs. The paradigm yields a minimal-variable, auditable reconstruction route for spectral and level data.