Quanta and quantum mechanics

Helmut Rechenberg

Iwo Białynicki‐Birula, Marek Cieplak, Jerzy Zdzisław Kamiński +2 more

Parker Emmerson

This paper shows a new interpretation of the Lorentz transformation as it is applicable to quasi-quanta quantum mechanics thus showing how the quasi-quanta symbolic analog topology directly translates into the quantum field via the eigen-value/eigen-vector language. Therefore, this actually unifies quantum theory with relativity through the symbolic analog topology of quasi-quanta energy number mechanics. This paper is continued by Vectroid Entangler 2

G. Feild

Larry Lim Kheng Cheong

Logica Quanta II introduces the missing physical mechanism underlying discrete quantum outcomes: accumulated wave interference. Building on Logica Quanta I, which reframed modern physics as interacting waves rather than particles, this paper identifies history as the absent variable in standard quantum mechanics. While conventional formulations treat collapse as instantaneous and memoryless, many physical systems—from tunneling barriers to decohering environments—experience sustained wave–environment coupling over time. This work argues that interference is not merely instantaneous but accumulates, producing a form of wave stress analogous to material fatigue. When accumulated interference exceeds a stability threshold, collapse-like transitions occur naturally, without randomness, observers, or duality. The concept is developed at the level of physical logic rather than formal mathematics, positioning accumulated interference as a measurable state variable compatible with quantum mechanics, decoherence theory, and known experimental platforms. Logica Quanta II serves as the mechanistic bridge between conceptual reinterpretation (Logica Quanta I) and experimental falsification (Logica Quanta III).

Stephen Hosier

It has been over 150 years since light was first considered a form of electromagnetic radiation. There is substantial evidence that the current well-established theory, that light quanta (photons) are a form of electromagnetic radiation, is incorrect. This is largely because the theory was first introduced based on assumptions not evidence. The experimental evidence, and the requirements of quantum mechanics, are largely incompatible with the existing theory and the conceptual models regarding the nature of light quanta. Several inconsistencies associated with the current belief and the associated conceptual model are identified. An entirely new and radically different conceptual model is proposed. A conceptual model that embraces what is currently known about light quanta, from both a classical and quantum-mechanical perspective. The proposed conceptual model strongly supports the Information Interpretation of quantum mechanics; a growing belief that information is a fundamental aspect of nature. Several examples of common phenomena, such as the double-slit experiment, are discussed to show how the proposed model of light quanta provides a simpler and more consistent explanation of experimental results and removes many of the apparent mysteries.