Schrödinger Equation and (Future) Quantum Physics

Lokajíček, M.; Kundrát, V.; Procházka, J.

doi:10.5772/53844

Cited by 3 publications

References 34 publications

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Dependence of elastic hadron collisions on impact parameter

2016

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Elastic proton-proton collisions represent probably the greatest ensemble of available measured data, the analysis of which may provide large amount of new physical results concerning fundamental particles. It is, however, necessary to analyze first some conclusions concerning pp collisions and their interpretations differing fundamentally from our common macroscopic experience. It has been argued, e.g., that elastic hadron collisions have been more central than inelastic ones, even if any explanation of the existence of so different process, i.e., elastic and inelastic (with hundreds of secondary particles) collisions, under the same conditions has not been given until now. The given conclusion has been based on a greater number of simplifying mathematical assumptions (done already in earlier calculations), without their influence on physical interpretation being analyzed and entitled; the corresponding influence has started to be studied in the approach based on eikonal model. The possibility of peripheral interpretation of elastic collisions will be demonstrated and corresponding results summarized. The arguments will be given why no preference may be given to the mentioned centrality against the standard peripheral behaviour. The corresponding discussion of contemporary description of elastic hadronic collision in dependence on impact parameter will be summarized and the justification of some important assumptions will be considered.keywords: elastic scattering of hadrons, impact parameter, central or peripheral scattering, proton-proton collisions, Coulomb-hadronic interaction

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Dependence of elastic hadron collisions on impact parameter

2016

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Stochastic state-transition-change process and particle physics

Procházka

2022

Eur. Phys. J. Plus

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The Contemporary State of Fundamental Physical Research and the Future Path to Scientific Knowledge

Lokajíček¹,

Procházka²

2016

Preprint

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Classical physics has enabled the acquisition of significant knowledge of the physical properties of nature on a standard macroscopic scale. These achievements were driven by use of the causal ontological approach (proposed originally by Aristotle) to formulate models of physical reality. At the beginning of the 20th century, however, the physics community began to prefer models based on a fundamentally different approach to human knowledge. Copenhagen quantum mechanics (CQM) was used to describe the micro-world. The special theory of relativity was used to describe the kinematics of objects moving at high velocity values in both the macroscopic and microscopic regions. This phenomenological approach to knowledge has been more focused on how things appear -instead of their actual properties and causal sequence. In the middle of the 20th century, the causal ontological approach was used to develop a significant scientific advance: the systematization of fundamental strongly interacting particles on the basis of unified algebra in three-dimensional isotopic spin space for spin values 1, 1/2, and 0. However, it was later strongly deformed under the influence of the phenomenological approach and the quark model. This paper will show that practically all contemporary theoretical models of physical reality contain mistakes or unresolved problems. Further scientific progress can be obtained if (and only if) scientists return to the successful causal ontological approach and falsification. Classical physics may be slightly generalized to enable the description of inertia mass increase in dependence on velocity, replacing the relativity theory and CQM. New assumptions may then be employed using generalized classical physics (GCP) to formulate new descriptions of observed phenomena that were previously inaccurately interpreted and used to promote fundamentally inadequate theories of physical reality.

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Schrödinger Equation and (Future) Quantum Physics

Cited by 3 publications

References 34 publications

Dependence of elastic hadron collisions on impact parameter

Dependence of elastic hadron collisions on impact parameter

Stochastic state-transition-change process and particle physics

The Contemporary State of Fundamental Physical Research and the Future Path to Scientific Knowledge

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