A Hybrid Cryptosystem with MAC-Integrated Lattice-Based Quantum Encryption for Secure Communication in WBSNs
DOI:
https://doi.org/10.31838/NJAP/07.02.34Keywords:
Hybrid Cryptosystem, Message Authentication Code, Improved Lattice-Based Quantum Cryptography, Wireless Body Sensor Networks, Post-Quantum Security, Data Integrity, Secure Communication, Key Exchange, Healthcare SecurityAbstract
A wireless wearable human body sensor network. Sensor modules are implanted within the human body, on the body surface, and in garments to check the health of the patient at regular intervals for remote treatment and monitoring. Wireless Body Sensor Networks (WBSN) has applications such as healthcare, military, sports and remote treatment. It creates better quality human life with accurate, faster disease diagnosis and time-gap treatment and better treatment. The existing cryptographic protocols are plagued with the drawback of vulnerability to attacks and resource efficiency. The scheme under proposal was a combination of symmetric as well as asymmetric cryptographic protocols to provide an effective hybrid authentication for WBSN. Message Authentication Code (MAC) is a symmetric key cryptographic protocol for authentication of communicators' authentication. It has been deliberated in the proposed approach for authentication verification of authentic registration data. Enhanced Lattice-Based Quantum cryptography (ILBQC) is a cryptographic method which is asymmetric in order to verify human body sensed physiological data authentication. ILBQC is using a new in lattice quantum cryptography-based for generating keys, encryption, and decryption process. Thus, the proposed method uses plaintext partitioning, double encryption and decryption scheme in an attempt to validate secure authentication in WBSN. Performance of the suggested MAC-ILBQC method is measured in terms of key generation time, encryption time, decryption time, memory usage, overall execution time, energy expense, and resistance against attack.
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