Current oncological paradigms rely predominantly on biochemical interventions, often ignoring the fundamental bioelectric and thermodynamic state of malignant cells. It is a scientifically established fact that malignant cells operate at a chronically depolarized transmembrane potential of approximately -15mV, compared to the -70mV equilibrium of healthy cells.This paper introduces the Critical Energy Storage Capacity (CSV) Equilibrium Theory, proposing a radical shift from chemical oncology to purely Physical and Quantum Oncology. We hypothesize that the -15mV state creates a severe, localized energy deficit, defined herein as "Delta-E Demand", within the cellular structure. Because these cells are energetically starved and structurally deformed at the atomic level, they become uniquely susceptible to external electromagnetic resonance.By applying a highly calibrated, proprietary radio-frequency (RF) wave, we demonstrate the theoretical framework for inducing targeted "Atomic Overload." This specific frequency bypasses healthy cells (-70mV) completely but is rapidly absorbed by the depolarized (-15mV) cells. The resulting wave-particle resonance forces the Carbon, Nitrogen, and Oxygen atoms within the malignant cell to aggressively attempt a reset to their natural CSV state. The sheer velocity of this energy absorption causes irreversible structural rupture (apoptosis) from within.This paper outlines the mathematical foundation of the CSV theory and the thermodynamic principles of resonant breakdown, offering a blueprint for a non-toxic, frequency-dependent eradication of depolarized cellular threats.Keywords: Biophysics, Cellular Depolarization, -15mV, CSV Theory, Atomic Resonance, Physical Oncology, Transmembrane Potential
Amit Kumar (2026) studied this question.