This paper addresses the critical demand for advanced rapid response mechanisms in managing a wide array of environmental hazards, including urban pipeline leaks, industrial gas discharges, methane emissions from landfills, chlorine leaks from water treatment plants, and residential carbon monoxide releases. Conventional sensing and alert systems often struggle with the timely analysis of high-dimensional sensor data and suffer delays as data volume increases. We propose a novel framework, qIoV, which integrates quantum computing with the Internet of Vehicles (IoVs) to leverage the computational efficiency, parallelism, and entanglement properties inherent in quantum mechanics. The qIoV framework utilizes vehicular-mounted environmental sensors for highly accurate air quality assessments, where quantum principles enhance both sensitivity and precision. A core innovation is the Quantum Mesh Network Fabric (QMF), which dynamically adapts the quantum network topology to vehicular movement, maintaining quantum state integrity among environmental and vehicular disruptions, thereby ensuring robust data transmission. Furthermore, we implement a variational quantum classifier (VQC) with advanced entanglement techniques, significantly reducing latency in hazard alerts and facilitating rapid communication with emergency response teams and the public. Our experimental evaluations using the IBM OpenQASM 3 platform with a 127-qubit system achieved over 90% precision, recall, and F1-score in pair plot analysis, alongside an 83% increase in toxic gas detection speed compared to conventional methods. Theoretical analysis further substantiates the efficiency of quantum rotation, teleportation protocols, and the fidelity of quantum entanglement, highlighting the potential of quantum computing in environmental hazard management.
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