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30 September 2022 Where lies the quantumness behind detecting electromagnetic waves for frequencies from infrared and up?
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Abstract
The synthesis of Newtonian concept of corpuscles during emission with Huygens’ concept of secondary-wavelets during propagation implies that all EM radiations from quantized atoms and molecules are released as discrete amount of energies. However, they propagate out as time-finite Maxwellian light pulses. Huygens also underscored that his secondary wavelets keep propagating as independent pulses in the absence of any interacting medium, or until intercepted by an interface with a medium or a detector. Then we use the Superposition Principle and the coherence theory to derive Einstein’s photoelectric equation by summing innumerable random time-finite pulses. This process driven approach should yield the characteristic statistical variations of photoelectron current pulses, as generated by photodetectors for different kinds of light sources. Lamb & Scully originally proposed this semiclassical approach without assuming that light actually consists of time finite pulses. The quantumness remains confined within the excitation and de-excitations processes in the material particles.
Conference Presentation
© (2022) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
C. Roychoudhuri, N. Prasad, and G. Fernando "Where lies the quantumness behind detecting electromagnetic waves for frequencies from infrared and up?", Proc. SPIE 12233, Infrared Remote Sensing and Instrumentation XXX, 122330G (30 September 2022); https://doi.org/10.1117/12.2635066
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KEYWORDS
Superposition

Sensors

Radio propagation

Visualization

Electromagnetism

Surface plasmons

Particles

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