Abstract. Recently, Eisenträger et al. proposed a very elegant method for speeding up scalar multiplication on elliptic curves. Their method relies on improved formulas for evaluating S = (2P + Q) from given points P and Q on an elliptic curve. Compared to the naive approach, the improved formulas save a field multiplication each time the operation is performed. This paper proposes a variant which is faster whenever a field inversion is more expensive than six field multiplications. We also give an improvement when tripling a point, and present a ternary/binary method to perform efficient scalar multiplication
Elliptic curve cryptosystems can be constructed over a smaller definition field than the ElGamal cry...
Elliptic curve cryptography has gained much popularity in the past decade and has been challenging t...
AbstractThe basic operation in elliptic curve cryptoschemes is multiplication. In this paper, we fir...
Efficient and secure public-key cryptosystems are essential in today’s age of rapidly growing Intern...
The use of precomputed data to speed up a cryptographic protocol is commonplace. For instance, the o...
Efficient and secure public-key cryptosystems are essential in today’s age of rapidly growing Intern...
We describe new fast algorithms for multiplying points on elliptic curves over finite fields of char...
In this paper we compare the computational complexity of two parallel scalar multiplication methods ...
Abstract-Since the inception of elliptic curve cryptography by Koblitz [1] and Miller [2] for implem...
Elliptic curve scalar multiplication is the operation of successively adding a point along an ellipt...
Accelerating scalar multiplication has always been a significant topic when people talk about the el...
This paper reduces the number of field multiplications required for scalar multiplication on conserv...
The fast implementation of elliptic curve cryptosystems relies on the efficient computation of scala...
Among the various arithmetic operations required in implementing public key cryptographic algorithm...
Scalar multiplication is the most important and expensive operation in elliptic curve cryptosystems....
Elliptic curve cryptosystems can be constructed over a smaller definition field than the ElGamal cry...
Elliptic curve cryptography has gained much popularity in the past decade and has been challenging t...
AbstractThe basic operation in elliptic curve cryptoschemes is multiplication. In this paper, we fir...
Efficient and secure public-key cryptosystems are essential in today’s age of rapidly growing Intern...
The use of precomputed data to speed up a cryptographic protocol is commonplace. For instance, the o...
Efficient and secure public-key cryptosystems are essential in today’s age of rapidly growing Intern...
We describe new fast algorithms for multiplying points on elliptic curves over finite fields of char...
In this paper we compare the computational complexity of two parallel scalar multiplication methods ...
Abstract-Since the inception of elliptic curve cryptography by Koblitz [1] and Miller [2] for implem...
Elliptic curve scalar multiplication is the operation of successively adding a point along an ellipt...
Accelerating scalar multiplication has always been a significant topic when people talk about the el...
This paper reduces the number of field multiplications required for scalar multiplication on conserv...
The fast implementation of elliptic curve cryptosystems relies on the efficient computation of scala...
Among the various arithmetic operations required in implementing public key cryptographic algorithm...
Scalar multiplication is the most important and expensive operation in elliptic curve cryptosystems....
Elliptic curve cryptosystems can be constructed over a smaller definition field than the ElGamal cry...
Elliptic curve cryptography has gained much popularity in the past decade and has been challenging t...
AbstractThe basic operation in elliptic curve cryptoschemes is multiplication. In this paper, we fir...