The heliocentric worldview ontologically considered in quantum mechanics

Abstract

This treatise develops an ontologically consistent, cybernetic model of the physical processes in the universe, describing stars, planets, photons, vortices, states of matter, and black holes as expressions of the same systemic dynamics. At its core is the insight that processuality arises from the system and causality emerges from the interconnectedness of its elements. The sun is not understood as a geometric star, but as a plasma planet in a state of maximum fluidity, supported by the field tension of the vortex that stabilizes the solar system. Planets appear as cooled vortices whose former field tension released photons, as fire, magma, and incandescent conductors continue to do. Photons are interpreted as free oscillations arising from collapsing bonds, independent of the cosmic context. Thermodynamic concepts are freed from classical artifacts: heat is not a form of energy, but rather the intensity of the oscillation in the gradient of a vortex, and temperature is the measured value of an oscillatory state. Thus, quantum mechanics becomes the science of being, describing not energy packets, but states, gradients, and field potentials. The star appears as the fluid gradient of a cosmic vortex. With each photon release, the vortex loses oscillation, the cohesion of the matter increases, the density grows, and gravity intensifies. Gray dwarfs are understood as the natural solid form of a star: small mass, high gravity, maximum binding. Newton's law of gravity is interpreted as a geometric projection of a vortex, the validity of which visibly collapses in the region of high cohesion. The collapse of the vortex eye leads to the final form of the system: the black hole, which does not appear as a singularity, but as a completely bound vortex that has swallowed its own gradient. Appendix A, the molecular treatise, demonstrates that the principles of gas, liquid, and solidity as fields of stress explain both microscopic and cosmic structures. The work thus presents a closed, consistent model that avoids speculative assumptions and makes physical phenomena comprehensible as systemic states.