双弦理论:质量峰值粒子与暗物质之谜
Abstract
摘要 本文提出一个基于双弦理论的动态暗物质全新范式。该理论的核心是“质量峰值粒子”——一种由能量弦通过“同频化驱动”机制,在物质内部与时空背景的双重频率共振中分别激发形成的单弦或多弦闭环驻波。该粒子的稳定性并非绝对,而是强烈依赖于局部能量密度:在星系核心等高能区被激发并稳定存在,在寒冷星际空间则易退激湮灭。模型预言,暗物质主体为宇宙早期高能遗迹,其质量谱横跨至少18个数量级,并在空间上呈现“贵族区”(高能、重粒子)与“平民区”(低能、轻粒子)的生态分离。这一框架不仅自洽地符合暗物质所有关键观测属性,更自然地解决了冷暗物质模型的“核心-尖点”等小尺度结构疑难,并预言了暗物质分布与星系活动性之间的内在关联,为暗物质本质的探索提供了可检验的新路径。 Abstract This paper proposes an entirely new paradigm of dynamic dark matter based on the dual string theory. The core of this theory is the "Mass Peak Particle" — a single or multi-string closed-loop standing wave excited by energy strings through the mechanism of "frequency synchronization drive" via the dual frequency resonance between the interior of matter and the spacetime background respectively. The stability of this particle is not absolute but strongly dependent on the local energy density: it is excited and stably exists in high-energy regions such as galactic cores, while being prone to de-excitation and annihilation in the cold interstellar space. The model predicts that the main component of dark matter consists of high-energy relics from the early universe, whose mass spectrum spans at least 18 orders of magnitude and exhibits a spatial ecological segregation into "noble regions" (high-energy, heavy particles) and "common regions" (low-energy, light particles). This framework not only self-consistently conforms to all the key observational properties of dark matter, but also naturally resolves the small-scale structure puzzles such as the cusp-core problem of the cold dark matter model, and predicts an intrinsic correlation between the distribution of dark matter and galactic activity, thereby providing a testable new path for the exploration of the nature of dark matter.
Fields of Study & Subjects
Dark Matter and Cosmic Phenomena
Cosmology and Gravitation Theories
Galaxies: Formation
Evolution
Phenomena
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 29 January 2026
- Document type
- Preprint