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School Science Journal

A Quantitative Measuring and Analysis of a Photon Interference for Measuring Wave-Particle Duality of Light at a Double Slit

Eunji J. Lee, Kim Sang Nyeon

Published Jan 1, 2017• 0 citations
Publisher
DOI
10.15737/ssj.11.3.201710.382

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Traditional quantum mechanics uses wave-particle duality to explain single-slit diffraction and double-slit interference phenomena, claiming that photons exhibit both particle and wave properties and can form light and dark patterns through self-interference. This theory violates objective physical logic. This paper proposes a new theory: photons always maintain uniform linear motion, accompanied by 360° omnidirectional, random, and uncontrollable microscopic tremor. The patterns in single-slit and double-slit experiments are macroscopic phenomena formed by collision, reflection, and angular deflection of photons with slit walls due to their tremor, followed by geometric amplification and statistical superposition of a large number of photon trajectories, having no connection with light wave interference or diffraction. This paper designs a carbon nanotube light-absorbing/non-absorbing control experiment and a receiving plate distance variable auxiliary experiment. Both experiments can quantitatively verify the theory, forming a complete logical closed loop and completely overthrowing the traditional interpretation of wave-particle duality.
We describe and analyse a simple experiment based on interference of thermally distributed broadband photons which demonstrates quantitatively the gradual trade-off between knowledge of the trajectory of a quantum particle and its wave-like character as expressed via the inequality V 2 + K 2 ≤ 1. The experiment relies upon colour-selective detection of light passing through each slit of a Young's double-slit arrangement: path information K is deduced from the overlapping bandwidths of the interfering light and the classical first-order degree of coherence, and wave information V is obtained from the fringe visibility. A classical Fourier analysis of the experiment is given which reproduces the observed interferograms.
Traditional quantum mechanics explains single-slit diffraction and double-slit interference using wave–particle duality, claiming that photons exhibit both particle and wave properties and can produce self-interference to form light–dark patterns. This paper proposes a new theory: photons always move in uniform linear motion, accompanied by 360° omnidirectional, random, uncontrollable microscopic tremor during propagation. The patterns observed in single-slit and double-slit experiments are macroscopic phenomena formed by collision, reflection, and angular deflection of photons with slit walls due to their inherent tremor, followed by geometric amplification and statistical superposition of numerous photon trajectories. No patterns appear without a baffle because photons do not collide with any wall; no patterns appear with an overly wide slit because photons still pass through without touching the walls. Patterns emerge only when the slit is narrow enough to cause photon–wall collisions. When photons collide with atoms on the slit walls, electrons undergo energy level transitions and emit secondary light; superposition of secondary light from different directions forms alternating bright and dark fringes. This paper designs a carbon nanotube light-absorbing/non-absorbing control experiment and a receiver backplate distance variation auxiliary experiment, both of which provide quantitative and measurable evidence for the theory and form a complete logical closed loop, indicating that the wave–particle duality interpretation is untenable.