The Speed of Light as a Spacetime Conversion Rate: The Conflicting Conceptions of Time in Relativity and Quantum Mechanics, and Their Scale Interpretation

The Speed of Light as a Spacetime Conversion Rate: The Conflicting Conceptions of Time in Relativity and Quantum Mechanics, and Their Scale Interpretation This paper follows up on the open question left by Breakthrough and Rewriting of Life's Internal Boundaries: From the Uncontrolledness of Cancer to the Controllability of Regeneration, and poses a more foundational question: what is the role of the speed of light c in the mass-energy equation? Why are the treatments of "time" in relativity and quantum mechanics mutually incompatible? This paper does not attempt to overturn the constancy of c; rather, it reinterprets the role of c: c is not the "speed of light," but the upper bound of transfer in the temporal-projection direction of the evolution of the spatial structure of this space. The c^2 in E = mc^2 is the scale-conversion coefficient of spatial-structure disturbance propagation. The paper further points out that the numerical value of the "second" as a unit of time is simultaneously affected by three variables: the natural quantity (the spatial evolution of the observed object/environment itself), the artificial definition (the normalization choice of the observer/observation system), and the relative stability of the observer/observation system/reference frame. Each of the three can change separately, individually, simultaneously, or in array combinations. Under normal conditions these changes are normalization-locked into a stable reading; upon changing scale, reference frame, or observation system, the locking condition is broken and the changes of the three variables are exposed. The paper shows that the true conflict between relativity and quantum mechanics lies not in the unification of "forces" but in the opposition of their conceptions of time: in quantum mechanics time is an external parameter, while in general relativity time is a dynamical quantity. The PIS (Parallel Intersection Studies) interpretation is: this is not a contradiction between two theories but two descriptions of the same spatial evolution at different observational scales. The observational regime inhabited by human beings falls within the membrane space (scale transition band) between the quantum domain and the gravitational domain (note: "membrane space" here refers only to a scale transition interval and is unrelated to the D-branes of string theory). The paper offers three comparable experimental targets: millimeter-scale optical-lattice-clock gravitational redshift, atomic-interferometer free-fall quantum phase, and quantum-delocalization corrections to gravitational redshift. The common feature of these three experiments is that "second-reading differences" are measured inside quantum systems, and such differences can be modulated by quantum interactions. 【中文摘要】 本文承接《生命内部边界的突破与重写:从癌症的失控到再生的可控》,提出一个更底层的问题:光速 c 在质能方程中的角色是什么?相对论与量子力学对"时间"的处理为什么无法兼容? 本文不试图推翻 c 是常数,而是重新解读 c 的角色:c 不是"光的速度",是此空间结构演化在时间投影方向上的传递上限。质能方程 E=mc² 里的 c²,是空间扰动传播的尺度转换系数。 本文进一步指出,"秒"作为计时单位,其数值同时受三个变量的影响:自然量(观测对象/环境自身的空间演化)、人工定义(观测者/观测系统的归一选择)、观测者/观测系统/参照系三者的相对稳定性。这三者都可以分别变化、单独变化、同时变化、以数组组合的方式变化。在常态下,这些变化被归一化锁定到一个稳定读数上;换尺度、换参照系、换观测系统,锁定条件被打破,三变量的变化暴露出来。 本文指出,相对论与量子力学的真正冲突不在"力"的统一,而在时间观的对立:量子力学里时间是外参数,广义相对论里时间是动力学量。平行相交学的解读是:这不是两个理论的矛盾,是同一空间演化在不同观测尺度下的两种描述。人类所处的观测区间,落在量子域与引力域之间的膜空间(尺度过渡带)(注:本文"膜空间"仅指尺度过渡区间,与弦理论 D 膜无关)。 本文给出三个可对照的实验靶标:毫米级光晶格钟引力红移、原子干涉仪自由落体量子相位、量子离域效应对引力红移的修正。这三个实验的共同特征是:量子系统内部测到了"秒读数差异",且这种差异可以被量子相互作用调制。