We propose the Quantum Uncertainty-Informed Networked Teleportation protocol, or QUINT, a framework for extracting energy from quantum vacuum fluctuations by exploiting spatially-structured entanglement. Extending conventional quantum energy teleportation (QET) protocols, QUINT protocol hypothesizes that entanglement correlations may be geometrically organized, inspired by the ER=EPR conjecture (treated here as a heuristic for structured entanglement). This structure enables enhanced energy extraction and directional sensitivity across a network of QET nodes. We present the formalism for per-cycle energy extraction, including constraints imposed by quantum energy inequalities, and introduce a simple dynamical model for entanglement depletion and recovery. Observable signatures of the protocol include localized stress-energy redistributions, phase shifts, and anisotropies in extraction efficiency. Our framework provides a pathway to probe structured vacuum entanglement and suggests experimentally testable predictions for quantum-optical or field-theoretic systems. By focusing on measurable energy flows rather than speculative geometries, the QUINT protocol establishes a novel approach to quantum energy engineering and lays the groundwork for exploring the operational consequences of vacuum entanglement networks.