Trace Matching Analysis Between All-Optical OCS & Photonic Chip Engineering Routes and Preceding Photon Physical Theories

Abstract At present, the computing industry is trapped by dual bottlenecks of power consumption and latency. MEMS mirror-based all-optical OCS and superconducting photonic chips have become globally recognized breakthrough solutions. The industrial analysis released by Long Baitao systematically elaborates the engineering value and industrial implementation trend of this technical route. However, existing engineering researches only focus on hardware optimization, lacking quantifiable underlying physical models for microphoton interaction. Based on a series of original photon theories archived on Zenodo with permanent DOIs and ORCID timestamps since September 2025, this paper constructs a bidirectional mapping system of "industrial engineering pain points - photon theoretical formulas". Core industrial challenges including mirror drift, channel crosstalk, long-distance optical loss and magnetic noise in superconducting chips are logically aligned with the particle short-range repulsion & medium-range attraction law, cosmic energy field light propagation model and F_q strong magnetic field coupling correction equation. Time sequence comparison indicates that the full set of theories was released far earlier than the public launch of various optical chips and all-optical switching devices. The study verifies that mainstream photonic engineering schemes are engineering implementations of the preceding physical theories, which can provide quantitative design references for photonic devices and facilitate the industry's transformation from trial-and-error R&D to theory-driven innovation.The low-loss transmission of photons in waveguides and photonic chips relies on precisely regulated lattice atomic interaction of silicon carbide substrate. The supporting theoretical research on silicon carbide crystal micro force has been independently archived as a preprint record on January 3, 2026 (DOI: 10.5281/zenodo.18135860). The two documents share the unified cross-scale particle interaction theory originally published in September-October 2025, forming a complete industrial chain evidence set covering substrate material microscopic mechanism and all-optical switching system engineering. 摘要 当前算力行业受功耗、时延双重瓶颈约束,MEMS微镜全光OCS、超导光子芯片成为全球公认算力突围方案,龙白涛公开产业分析内容系统阐述该技术路线工程价值与落地趋势。现有工程研究仅聚焦硬件结构优化,缺失可量化的微观光子相互作用底层物理模型。本文以作者2025年9月起在Zenodo完成永久DOI、ORCID时间戳存证的系列光子原创理论为基础,搭建“产业工程痛点-光子理论公式”双向映射验证体系,将微镜漂移、通道串扰、长距光损耗、超导光芯片磁场噪声等行业核心难题,与粒子短程排斥-中程吸引作用力定律、宇宙能量场光传播模型、F-q强引力-磁场耦合修正方程开展量化逻辑对齐。时序对比显示全套理论发布时间显著早于各类光芯片、全光交换设备公开落地周期。研究证实当前主流光子工程方案均为先期光子物理模型的工程化落地;相关理论可为光子器件设计提供定量计算依据,推动行业从经验试错转向理论驱动研发。 光波导与光子芯片内部光子低损耗传输,依赖碳化硅衬底晶格原子作用力的精准调控。针对碳化硅晶体微观作用力的配套理论溯源研究,已于2026年1月3日独立存档预印本(DOI:10.5281/zenodo.18135860)。两份文档共用2025年9-10月发布的跨尺度统一粒子作用力原创理论,完整构成「衬底材料底层机理—全光交换系统工程」全产业链在先证据链。