AR Simulations

These simulations don't work the way physics usually does.

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Conventional models start from an external, objective universe — fields and particles in spacetime — and then try to approximate what an observer would see. These simulations invert that. They start from experience of time itself: what appears in a present moment, how it shifts from tick to tick, and how many such moments can be woven together. Reality here is always relational, always first-person. The familiar "objective" world emerges only when many experiences of time combine in a fractal, nested structure.

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This starting point has a surprising consequence: the simulations form a unified family. The same present-act engine and the same small parameter set run across radically different scenarios — from abstract operator tests to matter-addition experiments to galaxy rotation curves and gravitational lensing. In the fractal pivot and hypersurface groups, a single parameter set carries across dozens of runs and still matches the data. That kind of structural coherence is difficult to achieve with conventional models, which typically treat each phenomenon in isolation.

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But the real test isn't elegance — it's performance. Several simulation suites now reproduce key results of known physics using this experience-first framework. Others go further, probing effects that general relativity doesn't predict. The early results have come back positive.

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Taken together, the work on this page represents the first concrete evidence that a qualia-first, present-act description of reality can both recover the physics we know — and point beyond it.