Polynomial time adversaries based on a computational view of cryptography have additional capabilities that the classical Dolev-Yao adversary model does not include. To relate these two different models of cryptography, in this paper we enrich a formal model for cryptographic expressions, originally based on the Dolev-Yao assumptions, with computational aspects based on notions of probability and computational power. The obtained result is that if the cryptosystem is robust enough, then the two adversary models turn out to be equivalent. As an application of our approach, we show how to determine a secrecy property against the computational adversar
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
none3noWe present a formal view of cryptography that overcomes the usual assumptions of formal model...
Polynomial time adversaries based on a computational view of cryptography have additional capabilit...
Polynomial time adversaries based on a computational view of cryptography have additional capabilit...
Abstract. Polynomial time adversaries based on a computational view of cryptography have additional ...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
The Dolev–Yao model is a useful and widespread framework in which to analyze security protocols. How...
The Dolev-Yao model is a simple and useful framework in which to analyze security protocols, but it ...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
none3noWe present a formal view of cryptography that overcomes the usual assumptions of formal model...
Polynomial time adversaries based on a computational view of cryptography have additional capabilit...
Polynomial time adversaries based on a computational view of cryptography have additional capabilit...
Abstract. Polynomial time adversaries based on a computational view of cryptography have additional ...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
Polynomial time adversaries based on a computational view of cryptography have additional capabiliti...
The Dolev–Yao model is a useful and widespread framework in which to analyze security protocols. How...
The Dolev-Yao model is a simple and useful framework in which to analyze security protocols, but it ...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
We present a formal view of cryptography that overcomes the usual assumptions of formal models for r...
none3noWe present a formal view of cryptography that overcomes the usual assumptions of formal model...