Karatsuba’s multiplication algorithm uses three singledigit multiplications to perform one two-digit multiplication. If we apply Karatsuba’s multiplier recursively, it takes only 3 n single-digit multiplications to multiply a pair of 2 n-digit numbers. This is a significant improvement compared to 4 n single-digit multiplications using grade-school multiplier. In this paper, we will use tensor production formulation to express Karatsuba’s multiplication algorithm in both recursive and iterative form. Usually, Karatsuba’s algorithm is implemented as recursive program. With the iterative tensor product formula of Karatsuba’s algorithm, we can derive an iterative (for loop) program to perform multiplication of long-digit numbers. Furthermore, ...
For each function on bit strings, its restriction to bit strings of any given length can be computed...
Best paper awardInternational audienceThis work presents an extension of Karatsuba's method to effic...
In this paper we present a hardware-software hybrid technique for modular multiplication over large ...
W pracy została zaprezentowana zracjonalizowana struktura algorytmiczna do obliczania iloczynu dwóch...
Multidigit multiplication is widely used for various applications in recent years, including numeric...
Long number multiplications (n ≥ 128-bit) are a primitive in most cryptosystems. They can be perform...
Multi-digit multiplication is widely used for various ap-plications in recent years, including numer...
AbstractIn computer arithmetic, multiplication is one of the most significant operations. Multiplica...
Combining Karatsuba multiplication with a technique developed by Krandick for computing the high-ord...
The Karatsuba multiplication algorithm is an algorithm for computing the product of two natural numb...
The efficiency of number theory based cryptosystems correlatesdirectly to the efficiency of large in...
AbstractTensor product notation is used to derive an iterative version of Strassen's matrix multipli...
This paper presents a new modular multiplication algorithm that allows one to implement modular mult...
AbstractWe present three parallel implementations of the Karatsuba algorithm for long integer multip...
Here, we present a modified version of the Karatsuba algorithm to facilitate the FPGA-based implemen...
For each function on bit strings, its restriction to bit strings of any given length can be computed...
Best paper awardInternational audienceThis work presents an extension of Karatsuba's method to effic...
In this paper we present a hardware-software hybrid technique for modular multiplication over large ...
W pracy została zaprezentowana zracjonalizowana struktura algorytmiczna do obliczania iloczynu dwóch...
Multidigit multiplication is widely used for various applications in recent years, including numeric...
Long number multiplications (n ≥ 128-bit) are a primitive in most cryptosystems. They can be perform...
Multi-digit multiplication is widely used for various ap-plications in recent years, including numer...
AbstractIn computer arithmetic, multiplication is one of the most significant operations. Multiplica...
Combining Karatsuba multiplication with a technique developed by Krandick for computing the high-ord...
The Karatsuba multiplication algorithm is an algorithm for computing the product of two natural numb...
The efficiency of number theory based cryptosystems correlatesdirectly to the efficiency of large in...
AbstractTensor product notation is used to derive an iterative version of Strassen's matrix multipli...
This paper presents a new modular multiplication algorithm that allows one to implement modular mult...
AbstractWe present three parallel implementations of the Karatsuba algorithm for long integer multip...
Here, we present a modified version of the Karatsuba algorithm to facilitate the FPGA-based implemen...
For each function on bit strings, its restriction to bit strings of any given length can be computed...
Best paper awardInternational audienceThis work presents an extension of Karatsuba's method to effic...
In this paper we present a hardware-software hybrid technique for modular multiplication over large ...