QRUM Multi-Modal Quantum Perturbation Detection Architecture: A Neutrino-Inspired Framework for Phase, Frequency, and Coherence-Based Sensing

Description This preprint presents the QRUM Multi-Modal Quantum Perturbation Detection Architecture (QMQPDA), a phenomenological experimental framework designed to investigate ultraweak perturbative signatures using multiple independent precision sensing technologies. Rather than proposing a new fundamental interaction or replacing established physical theories, the framework explores whether resonance, phase, frequency, coherence, and timing measurements may provide experimentally testable observational responses under highly coherent conditions. The proposed architecture combines superconducting microwave resonators, atom interferometers, optical atomic clocks, cryogenic resonators, SQUID magnetometers, environmental monitoring, and statistical multi-channel correlation analysis into a unified precision-measurement platform. The work is intended as a conceptual and experimentally testable research framework. The proposed architecture remains hypothetical and requires future experimental validation.