Quantum Key Distribution Based Network Integrity Mechanism for Secure Web Chatting with Attack Mitigation

Quantum Key Distribution (QKD) represents a paradigm shift in cryptographic security, offering information-theoretic confidentiality based on fundamental principles of quantum mechanics rather than computational hardness assumptions. The emergence of advanced quantum processors with ever-increasing qubit counts has accelerated the timeline for cryptographically-relevant quantum computers, necessitating immediate migration to quantum-safe communication protocols. This paper introduces a comprehensive QKD-based network integrity mechanism implemented as a Flask-based web chatting application that provides end-to-end security with real-time attack detection and automated mitigation. The system integrates a complete BB84 protocol simulation with polarized photon transmission modeling, incorporating realistic quantum channel parameters including attenuation (0.2 dB/km), dark count probability (10⁻⁶), and detector efficiency (30%). The architecture comprises four integrated modules: Quantum Key Distribution Engine implementing the full BB84 protocol stack with adaptive basis selection and error reconciliation; Secure Chat Interface supporting multi-user rooms, private messaging, and file sharing with one-time pad encryption using quantum-generated keys refreshed at optimal intervals; Network Integrity Monitor employing statistical analysis and machine learning techniques to detect eavesdropping attempts through quantum bit error rate (QBER) analysis, timing anomalies, and photon statistics; Automated Mitigation System that quarantines detected attackers through session termination, IP blacklisting, key revocation, and emergency key regeneration. Experimental evaluation demonstrates detection rates of 99.7% for intercept-resend attacks at 24.8% QBER, 98.2% for photon number splitting attacks at 15.3% QBER, and 99.1% for man-in-the-middle attacks at 18.7% QBER. The system achieves key generation rates of 1.82 kbps over 10 km simulated fiber, with 1.8-second quarantine response time meeting stringent incident response requirements. Scalability testing confirms support for 5,000+ concurrent users with 320 ms response time, making the solution suitable for production deployment. This work represents the first production-ready integration of quantum key distribution with a complete web chat application featuring automated attack detection and mitigation, bridging the gap between theoretical quantum cryptography and practical secure communication tools.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-03-28
DOI
https://doi.org/10.5281/zenodo.19307404
Primary Topic
Quantum Information and Cryptography
Type
article
Field-Weighted Citation Impact
0.00
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article

Quantum Key Distribution Based Network Integrity Mechanism for Secure Web Chatting with Attack Mitigation

Dileep Kumar Reddy Dr. P, Srinuvasula Reddy Uppathi, Aasthik Koyyala, Chandrakanth Talakokkula et al.
Zenodo (CERN European Organization for Nuclear Research)
Quantum Information and Cryptography
article

Quantum Key Distribution Based Network Integrity Mechanism for Secure Web Chatting with Attack Mitigation

Dileep Kumar Reddy Dr. P, Srinuvasula Reddy Uppathi, Aasthik Koyyala, Chandrakanth Talakokkula, Navyasri Suram, Sumanth Uppu
article en

Abstract

Quantum Key Distribution (QKD) represents a paradigm shift in cryptographic security, offering information-theoretic confidentiality based on fundamental principles of quantum mechanics rather than computational hardness assumptions. The emergence of advanced quantum processors with ever-increasing qubit counts has accelerated the timeline for cryptographically-relevant quantum computers, necessitating immediate migration to quantum-safe communication protocols. This paper introduces a comprehensive QKD-based network integrity mechanism implemented as a Flask-based web chatting application that provides end-to-end security with real-time attack detection and automated mitigation. The system integrates a complete BB84 protocol simulation with polarized photon transmission modeling, incorporating realistic quantum channel parameters including attenuation (0.2 dB/km), dark count probability (10⁻⁶), and detector efficiency (30%). The architecture comprises four integrated modules: Quantum Key Distribution Engine implementing the full BB84 protocol stack with adaptive basis selection and error reconciliation; Secure Chat Interface supporting multi-user rooms, private messaging, and file sharing with one-time pad encryption using quantum-generated keys refreshed at optimal intervals; Network Integrity Monitor employing statistical analysis and machine learning techniques to detect eavesdropping attempts through quantum bit error rate (QBER) analysis, timing anomalies, and photon statistics; Automated Mitigation System that quarantines detected attackers through session termination, IP blacklisting, key revocation, and emergency key regeneration. Experimental evaluation demonstrates detection rates of 99.7% for intercept-resend attacks at 24.8% QBER, 98.2% for photon number splitting attacks at 15.3% QBER, and 99.1% for man-in-the-middle attacks at 18.7% QBER. The system achieves key generation rates of 1.82 kbps over 10 km simulated fiber, with 1.8-second quarantine response time meeting stringent incident response requirements. Scalability testing confirms support for 5,000+ concurrent users with 320 ms response time, making the solution suitable for production deployment. This work represents the first production-ready integration of quantum key distribution with a complete web chat application featuring automated attack detection and mitigation, bridging the gap between theoretical quantum cryptography and practical secure communication tools.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 3%
Quantum Information and Cryptography
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