Redefining Hawking Radiation in a Five-Dimensional Model

This research presents a five-dimensional (5D) model that reinterprets wave-particle duality as a phenomenon emerging from a higher-dimensional spacetime, incorporating gravitational effects through a curved 5D geometry and a frame-dependent speed of light. The work seeks to bridge the gap between quantum mechanics and general relativity, two foundational theories that have historically resisted unification. By introducing an additional spatial dimension, this model offers a new framework for understanding how quantum behavior and gravitational fields interact, challenging conventional assumptions about the nature of spacetime and light. The approach posits that the dual wave-like and particle-like properties of matter arise from the projection of 5D quantum states into our familiar four-dimensional universe. Gravity, represented by the curvature of this 5D structure, influences whether wave or particle characteristics are observed. A distinctive feature of the model is the variation of the speed of light across different reference frames, shaped by gravitational and geometric conditions. This variability redefines how time and motion are perceived, providing a fresh lens on relativistic effects. A significant contribution of this work is its rethinking of Hawking radiation—the process by which black holes emit particles and lose mass. Unlike the standard view, where this radiation is purely thermal and raises questions about lost information, the 5D model suggests that information may be preserved through the fifth dimension. This could offer a resolution to the black hole information paradox, a major puzzle in theoretical physics. The model also implies that near massive objects, such as black holes, gravitational time dilation may amplify wave-like behavior, opening new avenues for exploring quantum gravity.