State of the Art: Physical Laws

Abstract

Classical physics organizes its observations into empirical laws. In a Service Manual for the Cosmos, these laws are not discarded; they are re-contextualized as the operational baseline of the Lumen substrate. This index serves as a reference catalog for classical laws awaiting complete transmission-line translation.

Conservation Laws (Substrate Accounting)

• Conservation of Energy: Total flux density remains constant; impedance shifts merely redistribute local energy.
• Conservation of Linear Momentum: Phase-locked wave-packets maintain their baseline inertia in a closed system.
• Conservation of Angular Momentum: Lumen flux-vortex spin states are conserved across interactions.
• Conservation of Charge: Net charge is conserved as balanced sequestration nodes within the lattice.

Mechanics & Motion (Inertial Dynamics)

• Newton's First Law (Inertia): A localized standing wave maintains its trajectory until a reactive substrate gradient alters it.
• Newton's Second Law (\(F=ma\)): Applied force is proportional to the reactive mass loading times acceleration.
• Newton's Third Law (Action/Reaction): Every boundary interaction produces an equal and opposite reactive back-EMF reflection.
• Universal Gravitation: Gravitational attraction is driven by the refractive gradient (\(\nabla c\)) surrounding a volumetric mass displacement.

Thermodynamics (The Heat Tax)

• First Law (Energy Transfer): Internal substrate energy equals heat transferred minus mechanical work performed.
• Second Law (Entropy): The inevitable Ohmic line loss, signal degradation, and phase scattering over transmission distance.
• Third Law (Absolute Zero): Entropy approaches a constant minimum as localized kinetic lattice-jitter ceases.

Electrodynamics (Circuit Foundations)

• Gauss's Law for Electricity: Electric flux maps strictly to the enclosed charge displacement.
• Gauss's Law for Magnetism: There are no magnetic monopoles; all magnetic fields are closed loop flux-vortices.
• Faraday’s Law of Induction: Time-varying magnetic fields generate an electromotive displacement force.
• Ohm’s Law (\(V=IR\)): The foundational relationship between voltage pressure, current flux, and substrate resistance.