127 papers
This collection explores the fascinating intersection of physics and history, where scientists and scholars investigate how our understanding of the universe has evolved over centuries. These papers often examine the development of key theories, the social contexts of major discoveries, or the historical accuracy of scientific narratives, offering a unique perspective on how past ideas shape modern research.
Gist.Science curates every new preprint in this specific area directly from arXiv, ensuring you stay ahead of the curve. For each paper, our team generates both a clear, plain-language overview for general readers and a detailed technical summary for experts, making complex historical analyses of physics accessible to everyone.
Below are the latest contributions in the history of physics, ranging from archival studies of early experiments to modern reinterpretations of classic theories.
This paper presents a comprehensive quantitative analysis of Galileo's *Sidereus Nuncius* observations of Jupiter's satellites using modern sky simulations and statistical techniques to validate the data's accuracy, determine orbital parameters with high precision, and confirm Kepler's third law and orbital resonances despite the historical challenges of the original observations.
This paper refutes Spavieri et al.'s claim that Wang et al.'s interferometric experiment disproves special relativity by demonstrating that their argument relies on circular reasoning and constitutes a logical fallacy.
This paper argues that Lord Kelvin's famous "second cloud" referred to the specific heat of polyatomic molecules rather than black-body radiation, and it contextualizes this correction within the historical progression from Kirchhoff to the 1911 Solvay Conference while challenging the notion that Planck's initial motivation was to solve the ultraviolet catastrophe.
This supplementary document chronicles the fifteen-year intellectual evolution of the Category Mistake framework and Forward-In-Time-Only (FITO) analysis, tracing their origins from physics and a 2016 exchange with Leslie Lamport to their practical application in diagnosing failures in distributed systems like iCloud.
This paper commemorates the centenary of quantum mechanics by reviewing its foundational development through the contributions of key figures like Heisenberg, Schrödinger, and Dirac, while also highlighting overlooked work by Darwin and Kramers, tracing the theory's evolution into the information science era, and addressing contemporary challenges such as the quantum-classical boundary and dark matter.
This paper explores the historical and scientific theories surrounding the Star of Bethlehem, tracing the evolution of astronomical concepts from ancient astrology through Kepler's precise calculations of a 7 BC triple conjunction in Pisces to Newton's era, while addressing the theological implications of the geocentric-heliocentric debate.
This paper argues that classical gravity cannot mediate entanglement between massive particles, asserting that if gravitationally induced entanglement is observed, the force responsible must originate from a non-gravitational source rather than a classical gravitational field.
This paper presents experimental predictions of a local scale-invariant, non-Hermitian pilot-wave formulation of quantum theory, demonstrating that while minute scale effects are typically hidden, they could be detected in specific Aharonov-Bohm and spectral experiments, while simultaneously resolving Einstein's historical objections regarding the second-clock effect and distinguishing the theory from other quantum formulations through trajectory-dependent probabilities.
This paper proposes a framework where classical time emerges from the decoherence of "subtime"—a reversible information exchange in entangled systems governed by a Reversible Causal Principle—unifying quantum process theory, reversible computation, and absorber theory to explain the arrow of time as a record of imperfect causal reflection.
This paper employs a recent account of weak ontological emergence and decoherence to provide a clear characterization of how the Everettian multiverse emerges, thereby rebutting critiques regarding its incoherence and addressing challenges from prominent philosophers.