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Information-a 5th Dimension?
If information is the 5th dimension, these experiments will prove it — or break it
Information as a 5th Dimension
If information is the 5th dimension, it's not a way to describe reality — it IS reality.
And if it's the mechanism, not the description, then one thing must be true: changes in information should predict physical behavior before it happens.
That's the test. Below are experiments that either confirm this — or break it
Five Unsolved Gaps. One Hypothesis
Why these five? Because in each case, current physics describes the outcome perfectly — but cannot explain the mechanism.
That's exactly where a new hypothesis should be tested.
1. Quantum Eraser : In the quantum eraser experiment, entangled photons produce an interference pattern — until 'which path' information is recorded. The pattern disappears. Erase that information, and the pattern returns. Current physics describes this. It cannot explain why erasing information restores physical behavior. If information gradients are the mechanism, calculating P at each stage should predict exactly when interference disappears and when it returns — before it happens.
2. Delayed Choice (Wheeler's Experiment): In Wheeler's delayed choice experiment, the decision to measure which path a photon takes is made after the photon has already passed through the slits. Yet the photon behaves as if it 'knew' the choice in advance. Current physics describes the outcome. It cannot explain how a future decision affects past behavior. If P is computed in the information dimension — outside space and time — temporal sequence is irrelevant. P should predict the outcome regardless of when the choice is made.
3. Controlled Decoherence: When a quantum system gradually interacts with its environment, it loses its quantum properties — a process called decoherence. The system transitions from quantum to classical behavior. Current physics describes the rate of this transition. It cannot explain what drives it. If information gradients are the mechanism, calculating P at each step of environmental exposure should predict the decoherence trajectory — step by step, before it happens.
4. Bell Test Refinement: In Bell test experiments, entangled particles show correlations that exceed what classical physics allows. This proves entanglement is real. But current physics only predicts that correlations will exceed a threshold — not their exact strength. If P captures the full information state of the interaction, it should predict the precise correlation strength — not just 'above classical,' but exactly how far above.
5. Black Hole Information Paradox: When matter falls into a black hole, its information appears to vanish behind the event horizon. Yet quantum mechanics says information can never be destroyed. This is the black hole information paradox — unsolved for fifty years. If information is orthogonal to spacetime, the event horizon is only a barrier in space — not in the information dimension. The information was never lost. We were looking in the wrong dimension.
From prediction to control
If information predicts physics, can we engineer it?
The five experiments above test whether changes in information predict physical behavior. If they do, the natural next question is: can we go the other direction? If we deliberately change the information state of a system, does the physics follow? This is the transition from measurement to engineering — from reading the gradient to shaping it.
This means designing experiments where information states are deliberately manipulated — not the physical setup, not the energy, not the forces — only the information. If the physical behavior changes as predicted by the change in P, then information is not just predictive. It is causal. And if the change is reversible — restore the information state, restore the physics — then we have a controllable mechanism.
If information gradients can be engineered to change physical behavior, the implications extend far beyond quantum laboratories. Propulsion without fuel. Communication without light-speed constraints. Materials with programmable physical properties. Not by fighting physics — but by engineering it from the other side.