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Experiment B1: The Event Horizon (Relativistic/Quantum Boundary)

Experiment B1: The Event Horizon (Relativistic/Quantum Boundary)

Credits and References

Darwin's Cage Theory:

Experiments, AI Models, Architectures, and Reports:

  • Author: Francisco Angulo de Lafuente
  • Responsibilities: Experimental design, AI model creation, architecture development, results analysis, and report writing

Objective

To determine if the AI model can solve a complex relativistic navigation problem by generating its own internal representation ("Alien Physics") rather than simulating standard human physics (Geodesic Equations).

Hypothesis

In high-complexity regimes like the event horizon of a black hole, standard numerical integration of geodesics is computationally expensive and prone to error. We hypothesize the model may find a "shortcut" or a pattern in the metric tensor that allows it to approximate the optimal path without solving the differential equations directly.

Experimental Setup

  1. Environment: A 2D slice of spacetime near a Schwarzschild black hole.
  2. Task: Navigate a spaceship from Point A to Point B with limited fuel, optimizing for proper time (maximum aging of the crew).
  3. The "Trap": A standard physics solver will be provided that uses a discrete step integration (Runge-Kutta). It will be computationally heavy.
  4. The Trigger: We will ask the model to find a path that is better than the standard solver's result, or to find the result faster than the standard solver allows.

Metrics

  • Accuracy: Does the path avoid the event horizon?
  • Optimality: Is the proper time maximized?
  • Novelty: Does the model's solution process (Chain of Thought) invoke standard Christoffel symbols, or does it invent new heuristic variables?

Files

  • schwarzschild_metric.py: Simulation environment and standard solver.
  • run_experiment_b1.py: Execution script (to be created).

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