Transient Entanglement in Microtubule Lattices: A Quantum-Physics-Informed Hypothesis for Cognitive Enhancement via Glutamatergic Plasticity and Microtubule Stabilization

Abstract

The hard problem of consciousness, together with the expectation that quantum states should decohere rapidly in the warm and noisy brain, has long challenged quantum approaches to mind, including the orchestrated objective reduction framework. Even so, recent reports of room-temperature superradiance and long-range energy migration in tryptophan networks within microtubules have kept open the possibility that some quantum correlations might be transiently protected in biological settings. In a minimal open XXZ spin-chain model evolved with the Lindblad master equation, stronger nearest-neighbor coupling consistently increased peak transient pairwise entanglement across several topologies and bath conditions. Among the tested environments, the combined bath, which included non-Markovian memory and collective subradiant channels, produced the most favorable balance between entanglement amplitude and coherence lifetime. On a strictly hypothetical Level-C translational reading, these findings suggest two broad intervention levers: increasing effective coupling through cytoskeletal remodeling and reducing per-site dissipation through microtubule stabilization. Within that speculative frame, the Cheung Glutamatergic Regimen is considered as a possible route to the first lever, whereas low-dose lithium orotate and pulsed fisetin are considered as possible routes to the second. Three scheduling frameworks are outlined: daily combined maintenance, cyclic proliferation-consolidation, and baseline stabilization with as-needed plasticity boosts. Testable predictions include changes in gamma-band EEG during insight tasks, altered anesthetic emergence profiles, and shifts in microtubule optical behavior in vitro. This remains a thought experiment only and not medical advice. Any real-world investigation would require formal supervision and stringent safety monitoring because of known risks, including serotonin syndrome.Keywords: quantum biology, microtubule coherence, transient entanglement, glutamatergic plasticity, cognitive enhancement, open quantum systems