This paper analyzes the treatment of time across major foundational physical frameworks using Thomas Kuhn’s concepts of anomaly, incommensurability, and crisis. It argues that the representation of time in modern physics exhibits a recurrent configuration characterized by persistent anomaly, failed stabilization, and the coexistence of incompatible formulations without convergence. Across classical mechanics, relativity, thermodynamics, quantum mechanics, and quantum gravity, temporal concepts generate systematic difficulties concerning simultaneity, temporal ordering, observability, dynamical function, and temporal direction. These difficulties persist through successive theoretical reformulations and reappear in transformed form across paradigm change.The analysis proceeds in four stages. First, the paper examines the internal organization of temporal anomalies within individual frameworks, identifying a recurrent sequence of theoretical commitment, breakdown, attempted repair, and unresolved difficulty. Second, it traces the persistence of these difficulties across successive reformulations of time, arguing that theoretical transformation reconfigures rather than resolves them. Third, it argues that competing temporal formulations are systematically incommensurable at semantic, methodological, ontological, and operational levels, thereby preventing convergence upon a shared temporal problem-space. Fourth, it examines attempts to integrate competing formulations and argues that these approaches reproduce rather than resolve the underlying instabilities.The resulting condition is characterized as non-convergent coexistence: multiple incompatible temporal structures remain operative across foundational physics without reduction or unification. The paper argues that this configuration corresponds to Kuhnian crisis conditions characterized by persistent anomaly, failed stabilization, sustained theoretical plurality, and expanding conceptual legitimacy. Time thus exhibits the configuration Kuhn associates with pre-revolutionary strain: indispensable across foundational physical theory, yet resistant to stable formulation across successive and incompatible paradigms.
Julian Severin (2026) studied this question.