A Diffie-Hellman Key Exchange Protocol in the Standard Model
Ik-Rae Jeong, Jeong-Ok Kwon, Donghoon Lee, Dowon Hong
Abstract
Ik-Rae Jeong, Jeong-Ok Kwon, Donghoon Lee, Dowon Hong
Abstract
The MQV protocol has been regarded as the most efficient authenticated Diffie- Hellman key exchange protocol, and standardized by many organizations including the US NSA. In Crypto 2005, Hugo Krawczyk showed vulnerabilities of MQV to several attacks and suggested a hashed variant of MQV, called HMQV, which provides the same superb performance of MQV and provable security in the random oracle model. In this paper we suggest an efficient authenticated Diffie-Hellman key exchange protocol providing the same functionalities and security of HMQV without random oracles. So far there are no authenticated Diffie-Hellman protocols which are provably secure without using random oracles and achieve the same level of security goals of HMQV efficiently yet.
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The MQV protocol has been regarded as the most efficient authenticated Diffie- Hellman key exchange protocol, and standardized by many organizations including the US NSA. In Crypto 2005, Hugo Krawczyk showed vulnerabilities of MQV to several attacks and suggested a hashed variant of MQV, called HMQV, which provides the same superb performance of MQV and provable security in the random oracle model. In this paper we suggest an efficient authenticated Diffie-Hellman key exchange protocol providing the same functionalities and security of HMQV without random oracles. So far there are no authenticated Diffie-Hellman protocols which are provably secure without using random oracles and achieve the same level of security goals of HMQV efficiently yet.
Key concepts: Random oracle, Diffie–Hellman key exchange, Computer science, Authenticated Key Exchange, Key exchange, Protocol (science), Provable security, Computer security