On gravitational interactions between two bodies
Sebastian J. Szybka

TL;DR
This paper explores the mathematical structure of gravitational interactions between two bodies, discussing historical developments and the broader context of physical theories, with a focus on the quest for a unified understanding of fundamental forces.
Contribution
It provides a historical and conceptual analysis of the mathematical modeling of two-body gravitational interactions, highlighting recent developments and their implications for theoretical physics.
Findings
Historical insights into gravitational theory evolution
Discussion of recent mathematical approaches to two-body problems
Reflection on the nature of physical laws and mathematical structures
Abstract
Many physicists, following Einstein, believe that the ultimate aim of theoretical physics is to find a unified theory of all interactions which would not depend on any free dimensionless constant, i.e., a dimensionless constant that is only empirically determinable. We do not know if such a theory exists. Moreover, if it exists, there seems to be no reason for it to be comprehensible for the human mind. On the other hand, as pointed out in Wigner's famous paper, human mathematics is unbelievably successful in natural science. This seeming paradox may be mitigated by assuming that the mathematical structure of physical reality has many `layers'. As time goes by, physicists discover new theories that correspond to the physical reality on the deeper and deeper level. In this essay, I will take a narrow approach and discuss the mathematical structure behind a single physical phenomenon -…
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Taxonomy
TopicsCosmology and Gravitation Theories · Black Holes and Theoretical Physics · Relativity and Gravitational Theory
