[0] A Unified Framework for Physics: Retained Measurement Records

Historically, physics was not merely a collection of equations, but an attempt to understand the structure of reality. Questions about what time, space, and interactions actually are came before their mathematical description. Only gradually did formalism become the dominant language of theory, while ontology receded into the background.The greatest figures in physics—Newton, Faraday, Maxwell, Boltzmann, and Einstein—did not ask only how to calculate. They asked what exists, how it is structured, and why it works the way it does. Einstein repeatedly emphasized that a physical theory should say something about what is, and he regarded general relativity as a description of gravitational behavior rather than its underlying mechanism. He himself considered it an effective theory that was ontologically incomplete and spent the remainder of his life searching for a deeper description. Ontology was not displaced because it was unscientific. It was displaced because it did not yield immediate numerical predictions, was harder to falsify in the short term, and required conceptual risk. In the first half of the twentieth century, physics turned toward formalism and operationalism—a pragmatic approach that brought spectacular technological success, but at the cost of separating computational effectiveness from deep understanding. As a result, we gained extraordinarily precise predictive models, but lost a coherent picture of reality. We say that time is a parameter, yet rarely ask what it actually is. We say that space is curved, without specifying what is physically changing. We say that particles are excitations of fields, without asking what fields ontologically are. These are not explanations of mechanism; they are rules for using a formalism. And yet every genuine revolution in physics began with a change in ontology and only later led to a new formalism. Changes in the concepts of motion, matter, fields, or time always preceded new equations. Ontology is not an add-on to physics. It is the source of mechanism, intuition, and unification. For this reason, asking about the ontological foundations of theory—about what time, space, and interactions actually are—is not a retreat into philosophy. It is a return to the original role of physics. Formalism without ontology remains an extraordinarily effective tool, but one without a map of what it truly describes.This leaves an open question. Why is ontology so often avoided today? Why do we accept an abstract description of spacetime, even though its own creator emphasized that it is a powerful formalism rather than a mechanism of reality? How did a mathematical description come to be elevated to the status of an ontological entity, while the question of what actually underlies it began to be treated as unnecessary or problematic? This work returns to that original question. It asks not how to calculate, but what time, space, mass, and interaction actually are. It proposes that a single ontological primitive—retained measurement records—underlies time, gravity, electromagnetism, inertia, quantum mechanics, and entropy. No equations are modified. No formalism is replaced. What changes is the answer to the question: what is physically happening? If this framework is correct, then the apparent fragmentation of physics into separate domains was not a reflection of reality, but an artifact of stopping the ontological inquiry too early. The equations were right. The understanding was incomplete.This paper is an attempt to restore it