AI 中文总结
该论文为生物物理空间多层次通信建立概念与理论框架，发展电磁信号波动机械描述，阐述信号传输等过程及相关特性，为理解脑功能奠定基础，或助于开发预防异常脑行为新方法。
AI 中文摘要
本文建立了量子、分子、细胞、组织器官、全身及其他生物物理空间之间多层次通信的概念和理论框架。发展了电磁信号的波动机械描述，详述了波如何穿过细胞结构并与周围生物材料进行能量相互作用。这些区域在细胞、组织、器官和神经网络内及跨它们传输和接收部分相干的生物分子信号，共振频率在其中干扰、汇聚和响应。这些过程引入了塑造时间、相干性和网络级动力学的非线性和随机延迟，并可整合到一个将物理状态数学建模与实验结果相联系的实用框架中。此贡献是一个独立的理论框架，为波动机械方法理解脑功能奠定基础，可能有助于开发预防异常脑行为的新方法。跨部门耦合算子的数学推导以及临床和治疗应用留待未来工作。
英文摘要
This paper establishes a conceptual and theoretical framework for multilevel communication between quantum, molecular, cellular, tissue-organ, whole body, and other biophysical spaces. The wave-mechanical description of electromagnetic signaling is developed, detailing how waves move through cellular structures and interact energetically with surrounding biomaterials. These regions transmit and receive partially coherent biomolecular signals within and across cells, tissues, organs, and neural networks, where resonant frequencies interfere, converge and respond. These processes introduce nonlinearities and stochastic delays that shape timing, coherence, and network-level dynamics, and can be integrated within a pragmatic framework linking mathematical modeling of the physical state to experiential outcomes. This contribution stands as an independent theoretical framework: it sets the foundation for the wave mechanical approach to understanding brain function, which may help to develop new methods to prevent aberrant brain behavior. Mathematical derivations of the inter-sector coupling operators and clinical and therapeutic applications are postponed for future work.
Comments23 pages
