基于空间粒子共振的光传播新模型及其实践启示

Read full text
Authors: 刘 简, Liu Jian
Cited by: 0

Abstract

经典光的波粒二象性理论在阐释光传播载体本质、光速动力机制等关键问题上尚存理论留白。本文创新性提出空间固有静止粒子同频共振驱动光传播的全新模型,预设宇宙空间中广泛分布具备固有振动频率的静止微观粒子,将光的本质界定为特定频率能量波,论证其传播依赖能量波激发空间粒子形成链式共振、实现能量传递,而非光子定向运动。 本文结合狭义相对论质速关系、量子力学能量量子化等核心理论,系统分析模型的逻辑自洽性与理论兼容性,设计多维度实验验证方案,并探讨模型在新型光学通信、深空探测等领域的应用价值,为人类认知光与空间的本质提供突破性理论视角。 The classical wave-particle duality theory of light has theoretical gaps in clarifying the essence of light propagation carriers and the dynamic mechanism of light speed. This paper innovatively proposes a new model of light propagation driven by the same-frequency resonance of inherent static spatial particles, assuming that cosmic space is widely distributed with static micro-particles with inherent vibration frequencies, and defining the essence of light as an energy wave of specific frequency. It is demonstrated that light propagation relies on energy waves exciting spatial particles to form chain resonance for energy transfer, rather than the directional movement of photons. Combined with core theories such as the mass-velocity relationship of special relativity and energy quantization of quantum mechanics, this paper systematically analyzes the logical consistency and theoretical compatibility of the model, designs multidimensional experimental verification schemes, and discusses its application value in new optical communication and deep space exploration. This model provides a breakthrough theoretical perspective for human understanding of the essence of light and space. 🔑 优化后的关键词(中英文对照) 中文关键词:光传播机制;空间静止粒子;同频共振;波粒二象性;空间微观结构;相对论兼容英文关键词:Light propagation mechanism; Static spatial particles; Same-frequency resonance; Wave-particle duality; Spatial microstructure; Relativity compatibility 本论文已在 Zenodo 开放获取。如有学术交流、合作探讨或讲座邀请等意向,欢迎通过邮箱 2253536935@qq.com与作者取得联系。

Fields of Study & Subjects

Quantum and Classical Electrodynamics Relativity and Gravitational Theory Orbital Angular Momentum in Optics

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
19 January 2026