Quantum Entanglement and Wormholes

The phenomenon of quantum entanglement is one of the weirdest predictions of classic quantum mechanics. Yet the prediction holds true in practice. The effect has been demonstrated in lab experiments.

Mathematical explanation

According to theory, entanglement happens whenever two particles come in close enough contact to affect the state of each other. An example of this is when two photons brush past each other so closely that their spin get coordinated. When they subsequently go their separate ways, they retain a mysterious link to each other.

The fact that this actually happen is testimony to the predictive power of quantum mechanics. However, the explanation is lacking a physical model to explain what’s going on. It’s entirely mathematical. There’s no explanation as to how two particles can remain entangled while physically separated. The mathematics merely states that entanglement can and will happen.

Gaps in the aether

There’s no explanation for quantum entanglement in classical mechanics, and only a mathematical explanation for it in quantum mechanics. However, the phenomenon can be explained by the strict particle model proposed in my book. Because this model incorporates the concept of a void.

When combined with spherical particles with texture, voids allow for physical contact at a distance. This is because only particles possess distance. Gaps between aether particles are therefore without distance.

It follows from this that a series of connected gaps must be equally void of distance. As such, they can be described as wormholes.

Assuming that the aether is full of little gaps, and that these gaps are connected into wormholes, we get that textured particles that have previously been entangled with direct physical contact can remain in contact even when separated over a considerable distances.