Isomorphism Proof and Practical Case of FQ System-Based Physical Reverse Engineering (REA): Taking the Permanent Magnet Directional Scattering Mechanism as an Example

Abstract
 
Modern fundamental physics has long adopted the research paradigm of "forward deduction and patch stacking". Starting from preset axioms, it derives conclusions through mathematical deduction and fits experimental data post-hoc. When deviations exist between observations and theoretical predictions, new correction terms, fields, or particles are introduced to revise the original framework, resulting in continuous decline in the explanatory and predictive power of theoretical systems. This paper proposes a physical research paradigm isomorphic to Software Reverse Engineering Agent (REA), namely physical reverse engineering. Starting from observable physical phenomena, it adopts toolchain verification, mathematical modeling and experimental benchmarking to reversely deduce the underlying operating mechanism through closed-loop reasoning. Taking the interaction between permanent magnets and ferromagnetic media as a practical case, this paper fully demonstrates the implementation process of the paradigm. Starting from observable behaviors including magnetic domain imaging, hysteresis loops and gap-force curves, it reversely derives the FQ graviton fluid directional scattering model, establishes exponentially decaying equations of air-gap pressure difference and quantitative force equations, and completes benchmark verification with classical magnetism experimental data. This paper verifies that physical reverse engineering is strictly isomorphic with software reverse engineering in five dimensions: input layer, toolchain layer, core process layer, verification layer and output layer, constituting a universal, standardized and automatable general research methodology.
 
摘要
 
现代基础物理学长期采用“正向演绎、补丁堆砌”的研究范式:从预设公理出发,通过数学演绎推导结论,事后拟合实验数据。当观测结果与理论预测出现偏差时,学界通过引入新的修正项、场模型或基本粒子来修补原有理论框架,导致物理体系的解释力与预测力持续衰减。本文提出一种与软件智能逆向工程代理(REA)完全同构的物理研究范式——物理逆向工程。该范式以可观测物理现象为唯一输入,通过工具链取证、数学建模、实验数据对标,以闭环推理方式反推物理底层运行机制。本文以永磁体与铁磁介质的相互作用为实战案例,完整演示该范式的落地流程:基于磁畴成像、磁滞回线、气隙作用力曲线等客观观测现象,逆向推导得出FQ引力子流体定向散射模型,建立气隙压差指数衰减方程与作用力定量方程,并结合经典磁学实验数据完成全维度对标验证。本文证明:物理逆向工程与软件逆向工程在输入层、工具链层、核心流程层、验证层、输出层五大维度严格同构,是一套具备通用性、可标准化、可自动化的全新基础物理研究方法论。
 
关键词:物理逆向工程;FQ引力子流体;REA同构性;定向散射截面;永磁相互作用;研究方法论