Gauge Holonomy

Validating the Aharonov–Bohm effect through topology and quantum phases

We delve into the intricate links between topology and quantum phases, validating the Aharonov–Bohm effect from first principles.

Our S–I–C–T framework offers a rigorous approach to confirm how gauge holonomy manifests in quantum phenomena.

Gauge holonomy describes how fields change when moving around loops in space.

Topology studies properties preserved under continuous deformations, crucial for understanding quantum phases.

It’s a quantum phenomenon where particles are affected by electromagnetic potentials, even in regions with zero field strength.

S–I–C–T is a framework integrating symmetry, interaction, and topology concepts.

First-principles validation ensures results are grounded in fundamental physics without assumptions.

It deepens understanding of quantum phases and could guide future experiments and technologies.

Examining the geometric phase in quantum systems.

Delving into the topological structures that underpin the Aharonov–Bohm effect, revealing how space's shape influences quantum phases.

A first-principles approach validating the subtle quantum phase changes predicted by the S–I–C–T framework.

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