Occlusion Interferometry: Inferring Hidden Objects via Quantum Path Elimination in Interference Patterns
Abstract
Jonathan Charles Downes
We propose a new paradigm, Occlusion Interferometry, in which the presence of hidden or eclipsed objects is inferred by analyzing modifications in optical interference patterns caused by the elimination of certain quantum or classical light paths. Unlike conventional imaging systems that rely on direct photon-object interaction, this method leverages the path integral formulation of quantum mechanics, wherein every possible light path contributes to the observed pattern. By introducing a controlled interference system and analyzing the statistical perturbations introduced by occlusions, we aim to reconstruct occluded geometry through negative information—i.e., the absence of contributing paths. We outline a theoretical framework, propose experimental configurations, and discuss potential applications in non-line-of-sight imaging, quantum sensing, and covert detection systems.
