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Nowadays, various side-channel analysis techniques are playing an important role in cryptography and have brought serious threats on implementations of cryptographic algorithms. Among them, power analysis attack is a powerful cryptanalytic technique, aiming to extract secret data from a cryptographic device by collecting and analysing power consumption traces. Reversible logic gates theoretically consume zero power being the motivation of this work to design a ciphering algorithm. For the first time in literature, we propose a reversible logiynthesis of A5/1 stream cipher, for securing conversations in GSM cellular system in this work. The complete structure of A5/1 stream cipher is deduced to simple logical operations and they are synthesised with reversible gates such as Fredkin, CNOT and CCNOT gates. The performance metrics of the reversible A5/1 stream cipher such as ancilla inputs, garbage outputs and quantum cost are also tabulated. Keywords: A5/1; stream cipher; reversible logic; side channel attack; SCA; power analysis attack; quantum logiynthesis; GSM cellular system. Reference to this paper should be made as follows: Saravanan, P. and Kalpana, P. (2016) ` using power analysis attack resistant reversible logic gates', Int. J. Enterprise Network Management, Vol. 7, No. 1, pp.7085. Biographical notes: P. Saravanan completed his BE
International Journal of Enterprise Network Management – Inderscience Publishers
Published: Jan 1, 2016
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