Titlebook: Energy-Efficient Modular Exponential Techniques for Public-Key Cryptography; Efficient Modular Ex Satyanarayana Vollala,N. Ramasubramanian,

Cpap155

https://doi.org/10.1007/978-3-319-01360-2 given BFW techniques have been estimated with respect to energy, power and throughput. The performance of PKCs can be enhanced either by hardware or by software approaches. The software approaches are simple and less complex for maintaining, on the other hand, hardware approaches are more secure wh

GRIN

https://doi.org/10.1007/978-981-16-8229-2 simultaneously, for achieving higher throughput with a constant frequency. As we know that, modular exponentiation is a series of modular multiplications and in order to achieve better performance, we need an efficient implementation of modular multiplication. The modular multiplication has costly

失望昨天

法官

使饑餓

古文字學(xué)

Legion

Modular Exponential Techniquesy modulus operation over exponentiation operation. Modulus operation reduces the size of intermediate and final results but increases the division operation overhead. This . has significant applications in Cryptosystem. In this chapter four modular exponential techniques will be discussed.

inspired

Review of Algorithmic Techniques for Improving the Performance of Modular Exponentiationodular exponentiation. If we wish to optimize the time complexity of the PKC, it is essential to develop a transformation algorithm that minimizes the required number of modular multiplications. If we succeed in minimizing the number of required modular multiplications it will result in the reductio

國(guó)家明智

Abominate

Introduction to Montgomery MultiplicationSA algorithm and Diffie–Hellman algorithm. These algorithms are very much important to attain better information security over a public network. Cryptosystems have an important step of key exchange for which confidentiality is achieved by modular exponentiation. The modular exponentiation problem is