Neutrino Interactions and Quantum Instability: Implications for Quantum Computing and Astrophysics

Quantum computing error rates are traditionally attributed to hardware imperfections and environmental interference such as cosmic radiation. This research explores a novel hypothesis: neutrinos and their oscillations may significantly contribute to quantum decoherence. By analyzing global anti-neutrino flux, quantum computing error data, and gravitational wave frequency spectra, we identify a previously unnoticed correlation between neutrino interactions and quantum system instability. Additionally, the stabilizing role of dark matter is considered through advanced quantum models, including Vesica Piscis-Enhanced Quantum Fourier Transform (VP-QFT) and Dark Matter Quantum Perimeter Function (DMQPF). We propose experimental verification methods, including controlled deployment of quantum systems in varying neutrino environments and further astrophysical cross-validation.