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On the Wave Nature of Matter [2024]

1
Introduction: The Particle World <italic>Versus</italic> the Wave World
2
The Birth of Quantum Mechanics: Arriving of the Photon Concept
3
Derivation of the Planck’s Relation, the de Broglie Relation, and Heisenberg’s Uncertainty Principle Based on the Maxwell Theory
4
The Merging of the Particle and Wave Concepts: Evidence Suggesting that the Sub-atomic Particle is a Quantized Excitation Wave
5
The Mechanism of Wave Excitation and the Physical Nature of the Vacuum Medium
6
The Vacuum is a Dielectric Medium According to the Maxwell Theory; Its Basic Field is the Electric Vector Potential Z
7
Derivation of the Quantum Wave Equations Based on Wave Excitation in the Vacuum
8
Derivation of the Dirac Equation from the Wave Equation of the Vacuum
9
Derivation of the Schrödinger Equation: What is the Physical Meaning of Its Wave Function?
10
A New Understanding on Wave-Particle Duality: Comparing the Quantum Wave Model with the Copenhagen Interpretation and Other Alternative Models
11
Why Can <italic>Mass</italic> and <italic>Energy</italic> Be Converted Between Each Other? <italic>Energy</italic>, <italic>Momentum</italic>, and <italic>Mass</italic> Have Geometrical Meanings in the Wave View
12
The Quantum Origin of the So-Called “Relativistic Relations”
13
The Physical Basis of Lorentz Transformation and Minkowski’s Four-Dimensional Space–Time
14
Experimental Tests on the Principle of Relativity and the Twin Paradox
15
A Quantum View of Photon Gravity: Implications of the Quantum Wave Model on General Relativity
16
Further Thoughts on Quantum Physics
17
Investigating the Quantum Properties of Nucleons from a Wave View
18
Exploration in Cosmology from the Quantum Wave View: Is There a Beginning or an End to Our Universe?
19
Conclusion: Matter is Composed of Waves
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