Quantum AI for Dark Web Narcotics Detection: A Hybrid Cybersecurity Framework

Gabriel Silva-Atencio

doi:10.4108/airo.10248

Authors

Gabriel Silva-Atencio Latin American University of Science and Technology https://orcid.org/0000-0002-4881-181X

DOI:

https://doi.org/10.4108/airo.10248

Keywords:

Quantum Machine Learning, Dark Web Analaytics, Cybersecurity Framework, Quantum-Classical Hybrid Systems, Counter-Narcotics Intelligence, Ethical AI Governance

Abstract

Through a six-month operational deployment with law enforcement agencies, this study introduces the Quantum Threat Detection Model (QTDM), a groundbreaking hybrid quantum-classical framework that exhibits quantifiable quantum advantage in counter-narcotics cybersecurity. The framework integrates NISQ-era quantum processors with dynamic workload partitioning and quantum kernel techniques to overcome significant constraints of conventional AI systems in the analysis of encrypted dark web transactions. Three groundbreaking contributions are shown via empirical validation: (1) 94.3% (±1.2%) classification accuracy for dark web drug transactions, which is 5.8 times faster than traditional GPU clusters in processing encrypted data; (2) finding a 10-qubit performance plateau and a 0.5% error rate threshold, which establishes ideal boundaries for resource allocation in NISQ-era implementations; and (3) the first GDPR/CCPA-aligned ethical governance protocol for quantum-powered surveillance, which includes algorithmic bias monitoring and quantum warrant procedures. Operational findings include 76% early detection rate for synthetic opioids, 92% adversarial resistance against GAN-generated obfuscation, and 42% improvement in trafficking network identification. The QTDM framework lowers the threat detection latency from 47 minutes to 8.2 minutes while processing 2.4 million transactions per day with 98.7% uptime. By offering a technological architecture and policy framework for the ethical implementation of quantum technology in international security applications, this study establishes quantum cybersecurity as an operational reality rather than a theoretical potential.

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