Complex interaction processes we need to visualize that successfully fill the quantum cup of a detector
Chandrasekhar Roychoudhuri, Narasimha S. Prasad

TL;DR
This paper introduces Interaction Process Mapping Thinking (IPMT) to bridge quantum and classical physics, revealing that superposition effects depend on material responses and challenging the notion of self-interfering photons.
Contribution
It presents a novel model of hybrid photons and a systematic application of IPMT that removes wave-particle duality and redefines superposition effects in quantum mechanics.
Findings
Superposition effects require material dipoles to respond to joint stimulations.
IPMT removes the wave-particle duality by modeling hybrid photons.
Superposition involves multiple independently evolving entities, not self-interference.
Abstract
Sensors are measuring tools. In any measurement, we have at least two different kinds of interactants. We never know all there are to know about any one of these interactants and the interaction processes that are mostly invisible. Yet, our engineering innovation driven evolution is persisting for over five million years. It is then important to articulate explicitly our Interaction Process Mapping Thinking, or IPMT, which we keep applying in the real world without formally recognizing it. We present how the systematic application of IPMT removes century old wave-particle duality by introducing a model of hybrid photon. It seamlessly bridges the quantum and the classical worlds. Photons are discrete energy packets only at the moment of emission; then they evolve diffractively and propagate as classical waves. We apply IPMT to improve the photoelectric equation & we obtain…
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