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Double Slit Experiment Interpretation by Gravity Waves.

Terubumi Honjou

Published Feb 1, 2016• 0 citations
OpenAlex

Abstract

Double slit experiment interpretation by gravity waves. Elementary pulsation principle predict the particle mass flickering. Due to relativistic mass flickering raises the gravity waves. Career change in the interference of gravity waves.

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Motion From a Particle's Point of View: an Interpretation of the Double Slit Experiment

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Traditionally, motion has been defined extrinsically, as the change in the position of an object, such as a particle, over time. This definition presupposes the existence of an external to the particle who measures the position of the particle as a function of time. Yet, in the double slit experiment, we have experimental proof that a particle can travel unobserved between a source and a detector. It does so in such a way that we cannot, even in principle, describe its motion by a position changing in time. We propose that the correct interpretation of this experiment is that the traditional extrinsic definition of motion is incomplete. We propose a more general intrinsic definition of motion, in which the role of observer is played by the particle itself, and which presupposes no external observer. We discuss the double slit experiment including the nature of measurement and the particle-wave duality. We show that using the intrinsic point of view allows us to avoid the weirdness that tends to crop up when these topics are analysed from the extrinsic point of view.

•Jun 1, 2021•1 citation
Young's double slit experiments, which represent the mystery of quantum mechanics, have been described by either the classical wave, or quantum probability waves or pilot waves. Recently, the novel experiments show that the interference patterns of the double slit/cross-double slit experiments may be curved. The previous phenomena of the light bending contain the gravity bending and Airy beam curving transversely. The curved Airy beam is interpreted by the quantum Schrödinger's wave equation and electromagnetic wave theory. To study the curved interference patterns of the comprehensive double slit experiments, we study the underlying physics first, namely, to study whether the light beam/photons behave as wave or as particle before forming the curved interference pattern. In this article, the comprehensive double slit experiments are performed, which show: (1) the fringes of the curved interference pattern are created independently and may be create partially; (2) the longitudinal shield and the metal tube inserted between the slide and the detector has no effect on the interference pattern. The experimental observations suggest that, before forming the curved interference pattern on the detector, photons behave as particles, which can be referred as "wave-particle-coexistence". The phenomena provide the comprehensive information/data for the theoretical study.
Abstract Young’s double slit experiments, which represent the mystery of quantum mechanics, have been interpreted by quantum probability waves and de Broglie-Bohm’s trajectory/pilot waves. To study in detail, the double slit experiments are extended to the cross double slit experiments. We argue that an interpretation must be able to explain all of the double slit and cross double slit experiments consistently. To test the interpretations, the comprehensive double slit experiments have been performed, which challenge both the wave interpretation and the trajectory interpretation. The cross double slit experiments and comprehensive double slit experiments provide a new tool for studying the mystery of double slit, wave-particle duality, complementarity principle, wave theory and trajectory theory. In this article, we review the cross double slit experiments and comprehensive double slit experiments, and report new experiments.
Traditionally, motion has been defined extrinsically, as the change in the position of an object, such as a particle, over time. This definition presupposes the existence of an external to the particle who measures the position of the particle as a function of time. Yet, in the double slit experiment, we have experimental proof that a particle can travel unobserved between a source and a detector. It does so in such a way that we cannot, even in principle, describe its motion by a position changing in time. We propose that the correct interpretation of this experiment is that the traditional extrinsic definition of motion is incomplete. We propose a more general intrinsic definition of motion, in which the role of observer is played by the particle itself, and which presupposes no external observer. We discuss the double slit experiment including the nature of measurement and the particle-wave duality. We show that using the intrinsic point of view allows us to avoid the weirdness that tends to crop up when these topics are analysed from the extrinsic point of view.