Structural Dissolution: A Mechanistic Reinterpretation of Amyloid Treatment Failure

This paper provides a mechanistic reinterpretation of neurodegeneration by applying the Theory of the Continuum to the human brain. It challenges the prevailing Amyloid Hypothesis by identifying a fundamental discrepancy: clinical trials for modern therapies have successfully cleared over 90% of amyloid plaques while yielding only a modest ~30% slowing of cognitive decline. Using a mechanical framework, this work argues that neurodegeneration is not a biological error but a mandatory redistribution of metabolic energy. Within this model, amyloid plaques are identified as un-recycled metabolic debris resulting from Metabolic Theft, which occurs when the brain diverts its metabolic budget away from the maintenance cycle to fuel a resistance cycle against sustained environmental friction. Three lines of evidence are analyzed in this light. The Nun Study paradox, in which high plaque loads appear in cognitively stable individuals, is explained through preserved internal resonance. ARIA, the brain swelling and bleeding seen in plaque-clearing therapies, is identified as a mechanical failure caused by overloading the drainage hardware. And hypometabolism, the early drop in glucose metabolism, is recognized as the primary signal of metabolic theft rather than a downstream symptom. The paper concludes that effective intervention must shift from chemical debris removal toward environmental resonance matching. By reducing the friction gradient at its source, the hardware can exit the state of starvation and return to its primary mission, the maintenance of the self.