Bloom Filter Encryption and Applications to Efficient Forward-Secret 0-RTT Key Exchange

Forward secrecy is considered an essential design goal of modern key establishment (KE) protocols, such as TLS 1.3, for example. Furthermore, efficiency considerations such as zero round-trip time (0-RTT), where a client is able to send cryptographically protected payload data along with the very fi...

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Vydáno v:	Journal of cryptology Ročník 34; číslo 2
Hlavní autoři:	Derler, David, Gellert, Kai, Jager, Tibor, Slamanig, Daniel, Striecks, Christoph
Médium:	Journal Article
Jazyk:	angličtina
Vydáno:	New York Springer US 01.04.2021 Springer Nature B.V
Témata:	Algorithms Coding and Information Theory Combinatorics Communications Engineering Computational Mathematics and Numerical Analysis Computer Science Cryptography Data structures Encryption Networks Piercing Probability Theory and Stochastic Processes Bloom filter encryption Bloom filter Puncturable encryption Forward secrecy Key exchange 0-RTT
ISSN:	0933-2790, 1432-1378
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Abstract	Forward secrecy is considered an essential design goal of modern key establishment (KE) protocols, such as TLS 1.3, for example. Furthermore, efficiency considerations such as zero round-trip time (0-RTT), where a client is able to send cryptographically protected payload data along with the very first KE message, are motivated by the practical demand for secure low-latency communication. For a long time, it was unclear whether protocols that simultaneously achieve 0-RTT and full forward secrecy exist. Only recently, the first forward-secret 0-RTT protocol was described by Günther et al. ( Eurocrypt , 2017). It is based on puncturable encryption. Forward secrecy is achieved by “puncturing” the secret key after each decryption operation, such that a given ciphertext can only be decrypted once (cf. also Green and Miers, S&P 2015). Unfortunately, their scheme is completely impractical, since one puncturing operation takes between 30 s and several minutes for reasonable security and deployment parameters, such that this solution is only a first feasibility result, but not efficient enough to be deployed in practice. In this paper, we introduce a new primitive that we term Bloom filter encryption (BFE), which is derived from the probabilistic Bloom filter data structure. We describe different constructions of BFE schemes and show how these yield new puncturable encryption mechanisms with extremely efficient puncturing. Most importantly, a puncturing operation only involves a small number of very efficient computations, plus the deletion of certain parts of the secret key, which outperforms previous constructions by orders of magnitude. This gives rise to the first forward-secret 0-RTT protocols that are efficient enough to be deployed in practice. We believe that BFE will find applications beyond forward-secret 0-RTT protocols.
AbstractList	Forward secrecy is considered an essential design goal of modern key establishment (KE) protocols, such as TLS 1.3, for example. Furthermore, efficiency considerations such as zero round-trip time (0-RTT), where a client is able to send cryptographically protected payload data along with the very first KE message, are motivated by the practical demand for secure low-latency communication. For a long time, it was unclear whether protocols that simultaneously achieve 0-RTT and full forward secrecy exist. Only recently, the first forward-secret 0-RTT protocol was described by Günther et al. ( Eurocrypt , 2017). It is based on puncturable encryption. Forward secrecy is achieved by “puncturing” the secret key after each decryption operation, such that a given ciphertext can only be decrypted once (cf. also Green and Miers, S&P 2015). Unfortunately, their scheme is completely impractical, since one puncturing operation takes between 30 s and several minutes for reasonable security and deployment parameters, such that this solution is only a first feasibility result, but not efficient enough to be deployed in practice. In this paper, we introduce a new primitive that we term Bloom filter encryption (BFE), which is derived from the probabilistic Bloom filter data structure. We describe different constructions of BFE schemes and show how these yield new puncturable encryption mechanisms with extremely efficient puncturing. Most importantly, a puncturing operation only involves a small number of very efficient computations, plus the deletion of certain parts of the secret key, which outperforms previous constructions by orders of magnitude. This gives rise to the first forward-secret 0-RTT protocols that are efficient enough to be deployed in practice. We believe that BFE will find applications beyond forward-secret 0-RTT protocols. Forward secrecy is considered an essential design goal of modern key establishment (KE) protocols, such as TLS 1.3, for example. Furthermore, efficiency considerations such as zero round-trip time (0-RTT), where a client is able to send cryptographically protected payload data along with the very first KE message, are motivated by the practical demand for secure low-latency communication. For a long time, it was unclear whether protocols that simultaneously achieve 0-RTT and full forward secrecy exist. Only recently, the first forward-secret 0-RTT protocol was described by Günther et al. (Eurocrypt, 2017). It is based on puncturable encryption. Forward secrecy is achieved by “puncturing” the secret key after each decryption operation, such that a given ciphertext can only be decrypted once (cf. also Green and Miers, S&P 2015). Unfortunately, their scheme is completely impractical, since one puncturing operation takes between 30 s and several minutes for reasonable security and deployment parameters, such that this solution is only a first feasibility result, but not efficient enough to be deployed in practice. In this paper, we introduce a new primitive that we term Bloom filter encryption (BFE), which is derived from the probabilistic Bloom filter data structure. We describe different constructions of BFE schemes and show how these yield new puncturable encryption mechanisms with extremely efficient puncturing. Most importantly, a puncturing operation only involves a small number of very efficient computations, plus the deletion of certain parts of the secret key, which outperforms previous constructions by orders of magnitude. This gives rise to the first forward-secret 0-RTT protocols that are efficient enough to be deployed in practice. We believe that BFE will find applications beyond forward-secret 0-RTT protocols.
ArticleNumber	13
Author	Slamanig, Daniel Gellert, Kai Jager, Tibor Derler, David Striecks, Christoph
Author_xml	– sequence: 1 givenname: David surname: Derler fullname: Derler, David organization: DFINITY – sequence: 2 givenname: Kai surname: Gellert fullname: Gellert, Kai email: kai.gellert@uni-wuppertal.de organization: University of Wuppertal – sequence: 3 givenname: Tibor surname: Jager fullname: Jager, Tibor organization: University of Wuppertal – sequence: 4 givenname: Daniel surname: Slamanig fullname: Slamanig, Daniel organization: AIT Austrian Institute of Technology – sequence: 5 givenname: Christoph surname: Striecks fullname: Striecks, Christoph organization: AIT Austrian Institute of Technology
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Keywords	Bloom filter encryption Bloom filter Puncturable encryption Forward secrecy Key exchange 0-RTT
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Snippet	Forward secrecy is considered an essential design goal of modern key establishment (KE) protocols, such as TLS 1.3, for example. Furthermore, efficiency... Forward secrecy is considered an essential design goal of modern key establishment (KE) protocols, such as TLS 1.3, for example. Furthermore, efficiency...
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SubjectTerms	Algorithms Coding and Information Theory Combinatorics Communications Engineering Computational Mathematics and Numerical Analysis Computer Science Cryptography Data structures Encryption Networks Piercing Probability Theory and Stochastic Processes
Title	Bloom Filter Encryption and Applications to Efficient Forward-Secret 0-RTT Key Exchange
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