We present an efficient bit-parallel algorithm for squaring in GF(2m) using polynomial basis. This algorithm achieves competitive efficiency while being aimed at any choice of low-weight irreducible polynomial. For a large class of irreducible polynomials it is more efficient than the previously best general squarer. In contrast, other efficient squarers often require a change of basis or are suitable for only a small number of irreducible polynomials. Additionally, we present a simple algorithm for modular reduction with equivalent cost to the state of the art for general irreducible polynomials. This fast reduction is used in our squaring method
We introduce a new efficient algorithm for computing Groebner-bases named M4GB. Like Faugere's algor...
International audienceWe present algorithms to perform modular polynomial multiplication or modular ...
Finite field GF(2(m)) is important to many practical application of modern communication. Exponentia...
We show that the step “modulo the degree-n field generating irreducible polynomial ” in the clas-sic...
We present explicit formulae and complexities of bit-parallel GF (2n) squarers for a new class of ir...
In this contribution, we introduce a low-complexity bit-parallel algorithm for computing square root...
We present a novel method of parallelization of the multiplication operation in GF(2 k) for an arbit...
Fast multiplication in a finite field GF(2m) is a basis step in communications engineering applicati...
International audienceThis paper introduces a new efficient algorithm for computing Gröbner bases. T...
In this contribution we introduce a low-complexity bit-parallel algorithm for computing square roots...
AbstractThis paper introduces a new efficient algorithm for computing Gröbner bases. To avoid as muc...
In this paper, we discuss an implementation of various algorithms for multiplying polynomials in : v...
This paper introduces a new efficient algorithm for computing Gröbner-bases named M4GB. Like Faugère...
A new GF(2 ) redundant representation is presented. Squaring in the representation is almost cost...
We describe an improvement of Itoh and Tsujii's algorithm for inversion over Galois fields GF ...
We introduce a new efficient algorithm for computing Groebner-bases named M4GB. Like Faugere's algor...
International audienceWe present algorithms to perform modular polynomial multiplication or modular ...
Finite field GF(2(m)) is important to many practical application of modern communication. Exponentia...
We show that the step “modulo the degree-n field generating irreducible polynomial ” in the clas-sic...
We present explicit formulae and complexities of bit-parallel GF (2n) squarers for a new class of ir...
In this contribution, we introduce a low-complexity bit-parallel algorithm for computing square root...
We present a novel method of parallelization of the multiplication operation in GF(2 k) for an arbit...
Fast multiplication in a finite field GF(2m) is a basis step in communications engineering applicati...
International audienceThis paper introduces a new efficient algorithm for computing Gröbner bases. T...
In this contribution we introduce a low-complexity bit-parallel algorithm for computing square roots...
AbstractThis paper introduces a new efficient algorithm for computing Gröbner bases. To avoid as muc...
In this paper, we discuss an implementation of various algorithms for multiplying polynomials in : v...
This paper introduces a new efficient algorithm for computing Gröbner-bases named M4GB. Like Faugère...
A new GF(2 ) redundant representation is presented. Squaring in the representation is almost cost...
We describe an improvement of Itoh and Tsujii's algorithm for inversion over Galois fields GF ...
We introduce a new efficient algorithm for computing Groebner-bases named M4GB. Like Faugere's algor...
International audienceWe present algorithms to perform modular polynomial multiplication or modular ...
Finite field GF(2(m)) is important to many practical application of modern communication. Exponentia...