1 Relativity as Reflexive Alignment
When Einstein introduced the equivalence principle, he did more than revolutionise physics — he reconfigured how actuality itself could be construed. The principle states that the effects of acceleration and the effects of gravitation are indistinguishable. This is usually read as a physical truth about forces. From a relational ontological perspective, it is something more profound: it shows that actuality is constituted by the alignment of construals across perspectives of motion.
Relativity, then, is not about uncovering a hidden substrate of reality “beneath” appearances. It is about recognising that motion and gravitation are already appearances of alignment. To move through spacetime is to be caught in a web of reflexive cuts, where each observer’s construal is calibrated against others.
The genius of relativity is not that it explains gravity but that it shows how actuality arises in the mutual construal of phenomena across frames of reference. Space and time are not containers for events; they are symbolic dimensions for reflexive alignment.
In this way, relativity becomes an ontology in disguise: a theory of how actuality is construed, not of what reality “is” underneath.
2 Quantum Mechanics as Construal of Possibility
If relativity shows us that actuality is alignment across perspectives of motion, quantum mechanics pushes us further: it reveals that actuality itself is drawn from the space of possibility.
Physicists describe quantum systems in terms of superposition, uncertainty, and probability. But a relational ontological reading lets us see these not as strange properties of particles, but as symbolic articulations of construal. The “wavefunction” is not a thing in the world — it is a theory of possible instances. Measurement is not a mechanical collapse; it is a reflexive cut, an act of construal that selects an actuality from among structured potentials.
This is why the quantum domain appears paradoxical when read as physical mechanism. Is the particle a wave or a point? Does it exist before measurement? Such questions presuppose that actuality precedes construal. But in fact, construal is constitutive. A phenomenon is not an object awaiting discovery but an event of alignment in which actuality is actualised.
In this sense, quantum mechanics is not about hidden variables or indeterminate objects. It is about the structured openness of possibility. The uncertainty principle is not a limit of knowledge but an ontological truth: potential is not actuality. Superposition is not a ghostly in-between but a reflection of construal’s reach.
Where relativity shows us the alignment of construals across frames of motion, quantum mechanics shows us the alignment of construals across frames of possibility. Both are modes of reflexivity. Both are ontologies masquerading as physics.
And so, rather than seeking to resolve the puzzles of quantum mechanics within a “realist” physics, we can see them as signs pointing back to the reflexive architecture of reality itself.
3 Unification Beyond Physics
The century-long quest to unify general relativity and quantum mechanics has been framed as the holy grail of physics: a single mathematical theory that explains the universe from the cosmic to the quantum. Yet the very persistence of the problem suggests that something deeper is at stake.
If we read relativity and quantum mechanics as physical mechanisms, we are forced into contradictions. The smooth curvature of spacetime jars with the discrete jumps of quanta. The deterministic evolution of the cosmos cannot be reconciled with the indeterminacy of measurement. But when we shift our perspective — when we construe them as complementary articulations of reflexivity — the tension dissolves.
Relativity construes actuality as alignment across motion. Quantum mechanics construes actuality as alignment across possibility. Both articulate the same truth: actuality is not given but actualised, constituted in and through construal. What they share is not a mathematics of unification but an ontology of reflexivity.
From this perspective, the “theory of everything” is a misnomer. There is no single formula waiting to be discovered. What there is, instead, is a reflexive architecture in which all phenomena are phases of alignment. Physics, at its best, is one symbolic register of this larger ontology.
This does not diminish the grandeur of Einstein or the strangeness of the quantum pioneers. Rather, it reframes their achievements. They were not charting ultimate mechanics but tracing, in symbolic form, the very conditions of actuality.
And so the unification of relativity and quantum mechanics is not a task for physics alone. It is already realised in the relational ontology that underpins both. What remains is to construe it — to see, finally, that meaning is not added to reality but is the very ground from which reality emerges.