Why Quantum Experiments Suggest Reality May Be a Simulation

Locality assumes objects interact only with their immediate surroundings, while realism assumes objects possess definite, permanent states regardless of observation. Game engines illustrate a different approach: they render objects only when they are observed, treating distance as an illusion created by the system. This computational perspective suggests that “real” states may exist only as probability sets until an interaction forces a resolution.

Experimental Evidence

The double‑slit experiment demonstrates that light behaves both as a wave and as a particle. When a detector captures information about a photon’s path, the wave function collapses into a definite state, mirroring a rendering step in a game engine. The delayed‑choice experiment pushes this further, showing that a present observation can retroactively determine a particle’s past behavior, implying that the system resolves outcomes only when required.

Entanglement and the Nobel Prize

Einstein championed hidden variables to preserve a locally real universe, but John Bell devised an inequality to test their existence. Experiments by Clauser, Aspect, and Zeilinger repeatedly violated Bell’s inequality, confirming that the universe is not locally real. Entangled particles act as a single computational system rather than separate entities exchanging signals, reinforcing the view that reality operates on information processing rather than independent matter.

The Simulation Argument

Nick Bostrom argues that if advanced civilizations can run many simulations, the probability of any observer inhabiting the original “base” reality approaches zero. Because physics increasingly describes the universe in terms of information, mathematics, and computation, the line between a simulation and base reality may be meaningless. The odds of living in a simulation therefore border on 100 %.

Mechanisms Behind the Computational View

A rendering mechanism similar to a game engine keeps objects as probability sets, resolving them into definite states only when an interaction supplies the necessary data. Distance becomes an illusion: objects that appear far apart share the same memory space, so the perceived barrier does not limit interaction. The wave function collapse occurs the moment information about a particle’s path exists anywhere in the system, turning a cloud of possibilities into a single rendered outcome.