"Heart Attack- An Electromagnetic Collapse Model"

This paper proposes a novel, theoretical framework in which myocardial infarction (“heart attack”) is modeled as a systemic electromagnetic collapse. Using dimensionless, recursive dynamics, the model links local Magnetic Information Density (MID), mitochondrial electric potential, and tissue coherence (L-Ratios) to predict the onset of arrhythmia, cellular misfolding, and tissue necrosis. The framework emphasizes falsifiability, providing explicit experimental suggestions including high-resolution magnetocardiography, mitochondrial assessments, ex vivo organoid perturbations, ECG correlation, animal models, and Wilcox Chain tests. This work bridges physics and cardiology, offering a predictive, testable approach for understanding and potentially anticipating cardiac collapse events. Keywords: myocardial infarction, heart attack, electromagnetic collapse, Magnetic Information Density, L-Ratio, Wilcox threshold, dimensionless modeling, predictive cardiology, ex vivo tissue models, magnetocardiography ---