Observer Patch Holography
A world built from shared records.
Could a shared physical world emerge from bounded observers that compare their records and repair disagreement? Observer Patch Holography explores that question through mathematics and executable models.
The central idea
What a patch can observe.
An observer is a bounded, self-reading system. It has local state, ports or boundaries, records, and feedback that lets it repair disagreement.
Each patch has access to part of a larger system. Where patches overlap, their records must agree on shared meaning. The theory studies what follows when these local relationships support a consistent public account.
Finite normal-form theorems describe agreement and stability. Further constructions connect records to quantum probability on the stated event-algebra branch and, under specified response and transport hypotheses, the Standard Model gauge Lie algebra. The route to Einstein dynamics requires a common physical realization with the stated stress, entropy, continuum and scale data.
Mathematics and physical evidence.
Formal proofs establish consequences of specified assumptions; simulations test declared models. Establishing that this architecture describes nature requires physical realization and measurements that distinguish its predictions.
Explore further
From physics to learning.
The same organizing idea inspired Cadence, a real-time AI modeled after animal and human brains that learns from live experience.
Its computational case is tested through learning behavior and measured resource use. Explore the Cadence brain or find both technical accounts in the preprint hub.