a Delayed Random Choice Quantum Mechanics Experiment Using Light Quanta

S. Malin

Kai J. Drühl

Peter Shadbolt

Brian R. La Cour, Thomas William Yudichak

Wheeler's delayed-choice experiment was conceived to illustrate the paradoxical nature of wave-particle duality in quantum mechanics. In the experiment, quantum light can exhibit either wavelike interference patterns or particlelike anticorrelations, depending upon the (possibly delayed) choice of the experimenter. A variant known as the quantum eraser uses entangled light to recover the lost interference in a seemingly nonlocal and retrocausal manner. Although it is believed that this behavior is incompatible with classical physics, here we show that, using postselection, the observed quantum phenomena can be reproduced by adopting a simple deterministic detector model and supposing the existence of a random zero-point electromagnetic field.

Bhushan Bhoja Poojary

Photons, the fundamental quanta of light, are widely recognized as carriers of energy and mediators of electromagnetic interactions. This paper proposes that photons also encode the "address" of quantum interactions within the holographic plane, providing a mechanism for coordinating quantum phenomena across space time. Building on the framework presented in Emergent Universe from Many Unreal World Interpretation, this hypothesis suggests that photons function as messengers of spatial and informational coordinates, offering new interpretations of wave function collapse, quantum entanglement, and delayed-choice experiments. This approach integrates the holographic principle with quantum mechanics, potentially bridging two foundational theories of modern physics. Keywords Photons; Quanta of light; Energy carriers; Electromagnetic interactions; Quantum interactions

Juergen Baldzuhn, Ernst Mohler, W. Martienssen