Physical Chemistry
Quantum mechanics treats atomic structure through Schrödinger's wave equation — a formalism that produces correct energy levels and orbitals but offers no physical mechanism. This paper derives atomic structure directly from the electromagnetic topology of monopolons interacting with nuclear vacuum gradients. Electron orbitals are not probability distributions but stable standing-wave resonances in the vacuum polarisation field surrounding the nucleus. Chemical bonding is the mutual modification of vacuum gradients between atoms, creating shared resonance regions.
Quantum mechanics treats atomic structure through Schrödinger's wave equation — a mathematical formalism that produces correct energy levels and orbitals but offers no physical mechanism. Electrons are described as probability clouds, with no explanation for why these particular shapes arise or what the electron is doing between measurements.
This paper derives atomic structure directly from the electromagnetic topology of monopolons (OFT 4–5) interacting with nuclear vacuum gradients. Electron "orbitals" are not probability distributions but stable standing-wave resonances in the vacuum polarisation field surrounding the nucleus. The shapes (s, p, d, f) emerge from boundary conditions, not abstract quantum numbers.
- Energy levels arise from resonant modes of the toroidal soliton (electron) trapped in the nuclear vacuum gradient — analogous to acoustic modes in a cavity.
- Orbital shapes are electromagnetic standing-wave patterns, determined by the geometry of the vacuum refractive index well.
- Chemical bonding is the mutual modification of vacuum gradients between atoms, creating shared resonance regions.
- The Periodic Table structure emerges from shell-filling of stable resonance modes.
- Spin-orbit coupling, fine structure, and hyperfine structure all follow from the toroidal geometry interacting with nuclear fields.
The electron does not "collapse" into a definite position when measured. It is always a finite toroidal soliton. What we call "measurement" is a caustic interaction (OFT 1) between the electron's field structure and the detector's threshold. The orbital is the time-averaged trajectory of the soliton precessing in the vacuum well.