Searching for "Earth-like" Worlds in Deep Space: Planetary Quantum Vacuum Signatures (QVS) and a Quantum Matrix-Based Galactic Scanning Model

Moving beyond traditional exoplanet detection methods, this study proposes a novel theoretical and computational framework focused on the quantum-magnetic fingerprints ("Earth-like" signatures / QVS) left by habitable worlds in the spacetime continuum. A planet's high-velocity rotation, magnetospheric photonic mesh shields, and water-based bio-cycles generate a unique spacetime resonance matrix within zero-point quantum vacuum fluctuations. Treating these distinct resonances as a reference matrix ("license plate"), the proposed model introduces a quantum-based matched filtering architecture (\hat{\mathcal{F}}_{\text{Earth}}) utilizing quantum computing algorithms to isolate "Earth-like" worlds across galactic background noise. This paper presents the mathematical formulation of the Planetary Quantum Vacuum Signature tensor (QVS_{\oplus}) and outlines the system architecture for deep-space quantum matrix scanning.