Physical Separation of Evolutionary Order and Evolutionary Rate: An Empirical Study Based on Synchronous Multi-Clock Data Collection

This study investigates the fundamental composition of time-related phenomena in physical systems. In conventional physics, a single parameter is adopted to describe time. By performing synchronous multi-clock data acquisition on material systems, this work demonstrates that the conventional notion of “time” conflates two mutually independent physical attributes with distinct characteristics governing matter evolution. The first attribute, Evolutionary Order (), corresponds to the topological trajectory of physical interactions propagating sequentially across discrete networks and defines the chronological ordering of events. The second attribute, Evolutionary Rate (), describes the relative pace of iterative evolution within the internal microscopic networks of distinct material subsystems. A synchronous multi-clock controlled experiment is designed to verify empirically that modifying a subsystem’s internal iteration frequency () does not alter the global event sequence. These two quantities satisfy the orthogonality criterion. Timing units (e.g., mechanical clocks, atomic clocks) are merely artificial material subsystems for observational readout and do not represent an ontological entity of time. This work establishes a clear dual physical baseline for the dynamics of matter evolution.