Candida overgrowth, bile stasis, diaphragm rigidity, and electrolyte instability are commonly treated as separate clinical problems. This preprint proposes a unified biomechanical–electrolyte model demonstrating that these processes participate in a single, closed-loop cascade. The “Candida–Bile–Diaphragm Cascade” describes how impaired diaphragm mechanics elevate thoracic pressure, restrict bile flow, and reduce lymphatic clearance, creating conditions that favor fungal persistence. In parallel, reduced bile delivery shifts metabolism toward sugar dependence, lowers ATP availability, elevates serum chloride, and suppresses bicarbonate, producing a non-anion gap metabolic acidosis (NAGMA) state. Candida quorum sensing amplifies salt and sugar cravings that transiently raise voltage while further thickening bile and reinforcing diaphragm rigidity. This establishes a self-perpetuating loop linking breath mechanics, biliary flow, fungal signaling, and chloride-dominant acid–base imbalance. The model integrates with established HPA–RAAS dysregulation and hypothalamic timing injury frameworks, offering a biomechanical counterpart to molecular electrolyte cascades described in Concept B of the Lantern of Sulfur. This cascade provides a mechanistic explanation for recurring stagnation, cravings, mucus accumulation, fatigue, and hyperchloremia observed in multisystem collapse states.Navigation: Master Index and Conceptual Map. DOI: 10.5281/zenodo.17915492.

Patients with chronic fatigue, hyperchloremia, bile stagnation, Candida overgrowth, mucus congestion, and sugar–salt cravings are often treated as if they have multiple unrelated conditions. This preprint introduces a unified biomechanical model showing that these symptoms emerge from a single feedback loop linking diaphragm mechanics, bile flow, fungal signaling, and chloride-driven acid–base imbalance. When the diaphragm stiffens, thoracic pressure rises, bile stagnates, and lymphatic clearance slows. Reduced bile delivery forces metabolism into sugar-emergency mode, lowering ATP, elevating chloride, and suppressing bicarbonate, producing a NAGMA state. Candida exploits this environment through quorum sensing, amplifying cravings that temporarily raise voltage while worsening bile viscosity and diaphragm rigidity. The result is a self-reinforcing collapse loop that traps patients in cycles of stagnation, cravings, mucus production, and electrolyte instability. This cascade reframes Candida not as a primary cause but as a timing-responsive organism exploiting biomechanical and metabolic collapse. The Candida–Bile–Diaphragm Cascade serves as a biomechanical companion to Concept B of the Lantern of Sulfur, offering a new integrative lens for understanding multisystem electrolyte and metabolic failure.Navigation: Master Index and Conceptual Map. DOI: 10.5281/zenodo.17915492.