100 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 article commemorates the centennial of Erdal İnönü's birth by reviewing his life and institutional contributions while using the geometric analogy of a sphere flattening into a plane to explain his celebrated İnönü-Wigner contraction and its significance for modern physics.
This paper argues that any viable theory of quantum gravity must satisfy an epistemological constraint requiring the recovery of objective geometrical measurability—ensuring the physical possibility of determining relational quantities through stable devices, causal access, and record formation—alongside the emergence of spacetime geometry itself.
This review traces the three-century evolution of electrical applications in agriculture from Abbé Bertholon's 18th-century electroculture experiments to modern cold-plasma technologies, demonstrating how contemporary scientific rigor transforms historical intuitions about "vivifying electricity" into a reproducible framework for sustainable farming and food safety.
This study employs a quasi-steady ohmic model to retrodictively analyze Bertholon's 18th-century electrovegetometer, revealing that while the device could generate localized high electric fields capable of producing luminous "aigrettes" during storms, its fair-weather influence on plant growth was likely subtle and highly restricted to the immediate vicinity of its tips.
This paper reviews the final decades of the Ohio State University's Big Ear SETI program (1973–1998), highlighting its pioneering role as the first full-time dedicated SETI observatory, its discovery of the famous "Wow! Signal" and other transient events, and the enduring, largely unexplored scientific legacy of its extensive radio sky archives.
This paper argues that observer-dependent descriptions are fundamental to relativity theory, demonstrating how clarifying the geometric distinction between observers and coordinate systems resolved historical paradoxes and advanced the field-theoretic understanding of spacetime from special to general relativity.
This paper presents a theory-independent no-go theorem demonstrating that any framework incorporating superluminal transformations must abandon at least one fundamental assumption—such as finite information, time-symmetric content, past memory, or preferred causal ordering—thereby implying that ontic indeterminacy arising from such transformations stems from unbounded informational content rather than finite information.
This paper argues that the internal norms of rigour in mid-twentieth-century theoretical physics prioritized enabling concrete calculations over abstract truth, a thesis supported by a historical case study showing that the crucial advancement in the development of the Wheeler-DeWitt equation (1962–1967) was not the equation's initial statement but its subsequent "rigorisation" through the definition of an inner product.
This review article comprehensively summarizes all experiments claiming quantum computational advantage, critically examines their challenges and refutations, discusses theoretical advantages in specific problems, and highlights recent progress in quantum error correction as a key step toward achieving advantage in Shor's algorithm.
This paper introduces the criterion of physical coherence to evaluate and challenge quantum gravity programs that attempt to derive time from a timeless fundamental level, specifically testing semiclassical and thermal time approaches against metaphysical incoherence arguments while setting a standard for their conceptual success.