Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Jisuanji gongcheng yu sheji

Research on wave-particle duality of light simulation

Liu Shu-re

Published Jan 1, 2014• 0 citations
OpenAlex

Abstract

Simulation researches are conducted by mathematical modeling approach through computer for verification wave-particle duality of light.Firsty,the following two models are established:the single slit diffraction simulation model based on Photon hydrogen-like structure,which light change in forward direction after passed the silt is explained.And the double slit interference simulation model based on Photon electromagnetic plane wave concept,whichblack hole effect likeis proposed.Then,the rationality of the models are verified by means of Matlab simulation.Finally,combined with mentioned two models,qualitative analysis show that wave-particle duality of light properly is explained by simulation result.

Related papers

Light Wave-particle Duality Exploration

Zhongliang Liu

Light has wave-particle duality,but it is difficult to see these two properties in a particular optical phenomenon.Both properties of light can be a perfect unity,if we could explain the wave nature through the particle property.Base on the Mathematical modeling of Gong Zutong photon model and the forward electromagnetic photon model,we compared the MATLAB simulation results with the experimental results.Then we find both models are shortcomings,and propose an improved photon model.With this improved model,we explain the optical interference,diffraction and polarization phenomena which show the wave nature of light.

Shuxue de shijian yu renshi•Jan 1, 2012•0 citations

Modeling and Simulation Based on the Conjecture of Wave-Particle Duality of Light

Lv Fangcheng

Based on the wave-particle duality of light,many scholars have proposed different guesses,to explain the linear propagation,diffraction and interference of light.In this article, mathematical modeling and simulation verification have been carried out on three guesses based on the wave-particle duality of light.With the Matlab tool,the optical phenomenon, such as diffraction,are used to verify the corresponding guess,and the results are compared with the book Optical Principle.

Shuxue de shijian yu renshi•Jan 1, 2012•0 citations

A Conjecture of the Photon Structure and its Mathematical Simulation

Xue Min-di

This paper studies the photon structure through the phenomenon of Wave Particle Duality and proposes a photon model.This model has the following features:(1)Attractiveforce exists between the photon and nucleus;(2)The altering electromagnetic and magnetic fields equips the photon with phase and light intensity is determined by the number and phase of photons.Based on these hypotheses,the paper takes the celestial body movement for reference and analyses the photon distributionprobability.Then,according to the central limit theorem,we get the conclusion that the photons obey a Gaussian distribution. Besides,the superposition effects of photon phase are analyzed.Finally,computer simulation is carrier out to compare with the present optical experimental phenomena such as the single slit diffraction,double slit interference and multi-slit interference.

Shuxue de shijian yu renshi•Jan 1, 2012•0 citations

Exploration of the Concept of Light Duality through Quantum Interference Simulation: A Virtual Laboratory-Based Approach

Permono Adi Putro, Vidya Az-zahra Suryana, Sinta Nopianti

The phenomenon of light duality is a fundamental concept in modern physics that states that light has a dual nature, namely as a wave and a particle. Understanding this concept often becomes a challenge in learning due to the limitations of laboratory facilities to directly observe interference and diffraction phenomena. This study aims to explore the concept of light duality through quantum interference simulations based on a virtual laboratory using PhET Interactive Simulations from the University of Colorado Boulder. The research was conducted in a descriptive-quantitative manner by varying three main parameters, namely the number of slits (1, 2, and 3), slit width (0.04–0.4 mm), and light wavelength (400–700 nm). Each configuration was systematically simulated to observe the resulting diffraction and interference patterns. Data analysis was carried out using descriptive and inferential statistics, including Shapiro-Wilk, Levene, Kruskal-Wallis tests, as well as one-way ANOVA to identify the relationship between optical variables and the characteristics of interference patterns. The research results indicate that with variations in the number and width of slits, light tends to behave like particles with concentrated intensity, whereas with variations in wavelength, the widening light-dark pattern demonstrates wave properties. These findings reinforce the concept of light duality and confirm the effectiveness of virtual laboratories as a learning medium for visually and interactively understanding complex quantum phenomena.

TIME in Physics•Oct 11, 2025•0 citations

Mathematical Modeling and Simulation Based on the Light Particles Doctrine

Duan Yin Shi, Xiao Peng Zhang, Hong Xia Du

Gong Zutong academician guessed that the structure of the photon may be similar to the hydrogen atom which consists of a negative charge and a positive charge with the equal power, and the negative charge rotates around the positive charge in a spherical orbit. Based on this conjecture, to establish respectively the equation of photon movement for the dual-slit interference and single slit diffraction experiments. To get respectively the light intensity distribution model using complex integration method. Finally, to get that the width of the diffraction pattern of the conjecture is obviously wider than the results of Born through mathematical simulation in MATLAB software.

Advanced materials research•Jun 1, 2012•0 citations

Study on the Diffraction-like and Interference-like Mechanisms of Particle Flow

Jiqing Zeng, Tianhe Zeng

This paper demonstrates that the light and dark fringe in Young's double-slit experiment is not actually the diffraction and interference pattern of light wave. We investigate the scattering phenomenon after the particle flow passes through the gaps and find that the scattering type and scattering degrees of freedom of the particle flow depend on the physical parameters of the particles and the gaps. When the particle flow undergoes uniform scattering, a uniform "yes" and "no" interspersed discrete distribution pattern will form on the receiving screen. Based on the diffraction-like and interference-like mechanism of particle flow, this paper explains the electron diffraction and interference experiment, as well as the Young's double-slit interference experiment and the diffraction of light through circular holes and plates. This article provides an in-depth discussion on Einstein's concept of wave particle duality and de Broglie's matter wave hypothesis, as well as an analysis of Feynman's experimental idea of electron double slit interference. Our research shows that the matter wave hypothesis is not valid, which has shaken the foundation of modern quantum mechanics and has significant scientific significance. In addition, this study has important application value for the development of technology for detecting and analyzing particles or gaps.

Applied Physics Research•Oct 29, 2023•0 citations
Simulation researches are conducted by mathematical modeling approach through computer for verification wave-particle duality of light.Firsty,the following two models are established:the single slit diffraction simulation model based on Photon hydrogen-like structure,which light change in forward direction after passed the silt is explained.And the double slit interference simulation model based on Photon electromagnetic plane wave concept,whichblack hole effect likeis proposed.Then,the rationality of the models are verified by means of Matlab simulation.Finally,combined with mentioned two models,qualitative analysis show that wave-particle duality of light properly is explained by simulation result.
Light has wave-particle duality,but it is difficult to see these two properties in a particular optical phenomenon.Both properties of light can be a perfect unity,if we could explain the wave nature through the particle property.Base on the Mathematical modeling of Gong Zutong photon model and the forward electromagnetic photon model,we compared the MATLAB simulation results with the experimental results.Then we find both models are shortcomings,and propose an improved photon model.With this improved model,we explain the optical interference,diffraction and polarization phenomena which show the wave nature of light.
This paper studies the photon structure through the phenomenon of Wave Particle Duality and proposes a photon model.This model has the following features:(1)Attractiveforce exists between the photon and nucleus;(2)The altering electromagnetic and magnetic fields equips the photon with phase and light intensity is determined by the number and phase of photons.Based on these hypotheses,the paper takes the celestial body movement for reference and analyses the photon distributionprobability.Then,according to the central limit theorem,we get the conclusion that the photons obey a Gaussian distribution. Besides,the superposition effects of photon phase are analyzed.Finally,computer simulation is carrier out to compare with the present optical experimental phenomena such as the single slit diffraction,double slit interference and multi-slit interference.
The phenomenon of light duality is a fundamental concept in modern physics that states that light has a dual nature, namely as a wave and a particle. Understanding this concept often becomes a challenge in learning due to the limitations of laboratory facilities to directly observe interference and diffraction phenomena. This study aims to explore the concept of light duality through quantum interference simulations based on a virtual laboratory using PhET Interactive Simulations from the University of Colorado Boulder. The research was conducted in a descriptive-quantitative manner by varying three main parameters, namely the number of slits (1, 2, and 3), slit width (0.04–0.4 mm), and light wavelength (400–700 nm). Each configuration was systematically simulated to observe the resulting diffraction and interference patterns. Data analysis was carried out using descriptive and inferential statistics, including Shapiro-Wilk, Levene, Kruskal-Wallis tests, as well as one-way ANOVA to identify the relationship between optical variables and the characteristics of interference patterns. The research results indicate that with variations in the number and width of slits, light tends to behave like particles with concentrated intensity, whereas with variations in wavelength, the widening light-dark pattern demonstrates wave properties. These findings reinforce the concept of light duality and confirm the effectiveness of virtual laboratories as a learning medium for visually and interactively understanding complex quantum phenomena.
Gong Zutong academician guessed that the structure of the photon may be similar to the hydrogen atom which consists of a negative charge and a positive charge with the equal power, and the negative charge rotates around the positive charge in a spherical orbit. Based on this conjecture, to establish respectively the equation of photon movement for the dual-slit interference and single slit diffraction experiments. To get respectively the light intensity distribution model using complex integration method. Finally, to get that the width of the diffraction pattern of the conjecture is obviously wider than the results of Born through mathematical simulation in MATLAB software.
This paper demonstrates that the light and dark fringe in Young's double-slit experiment is not actually the diffraction and interference pattern of light wave. We investigate the scattering phenomenon after the particle flow passes through the gaps and find that the scattering type and scattering degrees of freedom of the particle flow depend on the physical parameters of the particles and the gaps. When the particle flow undergoes uniform scattering, a uniform "yes" and "no" interspersed discrete distribution pattern will form on the receiving screen. Based on the diffraction-like and interference-like mechanism of particle flow, this paper explains the electron diffraction and interference experiment, as well as the Young's double-slit interference experiment and the diffraction of light through circular holes and plates. This article provides an in-depth discussion on Einstein's concept of wave particle duality and de Broglie's matter wave hypothesis, as well as an analysis of Feynman's experimental idea of electron double slit interference. Our research shows that the matter wave hypothesis is not valid, which has shaken the foundation of modern quantum mechanics and has significant scientific significance. In addition, this study has important application value for the development of technology for detecting and analyzing particles or gaps.