Biological Hawking Radiation in HIV: Complete Simulation Code and Data

HIV-associated neurocognitive disorder (HAND) presents a fundamental paradox: patients maintain cognitive function during acute infection despite cytokine storms comparable to severe sepsis. Through computational modeling of quantum coherence in neural microtubules, we discovered that Fibonacci-scaled microtubular architectures maintain quantum coherence up to 10161016-fold longer than regular structures through a previously unknown mechanism analogous to Hawking radiation in black holes. This "biological Hawking radiation" allows Fibonacci structures to harvest energy from collapsing quantum states in adjacent regular structures, achieving 74.4% efficiency at the golden ratio (ϕ=1.618ϕ=1.618). This quantum protection mechanism appears unique to neurons, suggesting evolutionary selection for coherence-harvesting in non-replicating cells requiring sustained information processing. The metabolic cost of maintaining Fibonacci geometry is justified only in cells where quantum computation provides survival advantage.Using five complementary computational models validated against recent experimental quantum data, we demonstrate: (1) power-law decay (exponent α=−1.015α=−1.015) in Fibonacci structures versus near-exponential collapse (α=−10.102α=−10.102) in regular grids; (2) quantum sanctuary formation at t=0.6t=0.6 time units creating coherence-preserving boundaries; (3) precise mathematical optimization at ϕ=1.618033988749895ϕ=1.618033988749895; (4) temperature resilience maintaining function during HIV-associated fever; (5) strong correlations with clinical neuroimaging (r=0.74−0.82r=0.74−0.82, p<0.001p<0.001). Monte Carlo analysis (n=50n=50) confirmed 100% sanctuary formation probability during acute inflammation above 38.5°C. These findings resolve the HAND cognitive paradox by revealing how geometric structure transforms decoherence from a destructive force into a harvestable resource, suggesting novel therapeutic targets and establishing new principles for quantum biology and bio-inspired quantum technologies.