Dimensional Photon Collapse in IceCube: A Quantum Alternative to Cherenkov Neutrino Detection

This paper presents a novel interpretation of photon bursts observed by the IceCube Neutrino Observatory. Contrary to the standard model attributing these flashes to Cherenkov radiation from relativistic particles, we propose a dimensional photon collapse framework. Here, high-energy photons—viewed as topological energy knots—undergo collapse in supercooled, high-pressure Antarctic ice, releasing embedded electron–positron pairs. Their annihilation produces gamma radiation, which cascades through the ice lattice and emits visible light. The model parallels laboratory-scale sonoluminescence while scaling up to kilometer-deep detection, suggesting a unified mechanism for rare quantum light events in water-based environments.