Recent years have seen a major involvement of deep learning architecture in the cryptanalysis of various lightweight ciphers. The present study is inspired by the work of Gohr and Baksi et al. in the field to develop a deep neural network-based differential distinguisher for round reduced PRESENT lightweight block cipher. We present a multi-layer perceptron network which can distinguish between 3-6 rounds of PRESENT cipher data and a randomly generated data with a significantly high probability. We also discuss the possible improvements in the original approach of the differential distinguisher presented by Baksi et al
This paper studies the use of deep learning (DL) models under a known-plaintext scenario. The goal o...
In this article, we analyse the known-key security of the standardized PRESENT lightweight block cip...
Resistance against differential cryptanalysis is an important design criteria for any modern block c...
While many similarities between Machine Learning and cryptanalysis tasks exists, so far no major res...
At CRYPTO\u2719, A. Gohr proposed neural distinguishers for the lightweight block cipher Speck32/64,...
Differential cryptanalysis is an important technique to evaluate the security of block ciphers. Ther...
In CRYPTO\u2719, Gohr introduced a novel cryptanalysis method by developing a differential-neural di...
At CRYPTO’19, A. Gohr proposed neural distinguishers for the lightweight block cipher Speck32/64, ac...
In CRYPTO 2019, Gohr made a pioneering attempt, and successfully applied deep learning to the differ...
The lightweight block cipher PRESENT has become viable for areas like IoT (Internet of Things) and R...
At CRYPTO\u2719, Gohr built a bridge between deep learning and cryptanalysis. Based on deep neural n...
Modern day lightweight block ciphers provide powerful encryption methods for securing IoT communicat...
Most of the traditional cryptanalytic technologies often require a great amount of time, known plain...
Neural cryptanalysis is the study of cryptographic primitives through machine learning techniques. F...
Block cipher resistance against differential cryptanalysis is commonly assessed by counting the numb...
This paper studies the use of deep learning (DL) models under a known-plaintext scenario. The goal o...
In this article, we analyse the known-key security of the standardized PRESENT lightweight block cip...
Resistance against differential cryptanalysis is an important design criteria for any modern block c...
While many similarities between Machine Learning and cryptanalysis tasks exists, so far no major res...
At CRYPTO\u2719, A. Gohr proposed neural distinguishers for the lightweight block cipher Speck32/64,...
Differential cryptanalysis is an important technique to evaluate the security of block ciphers. Ther...
In CRYPTO\u2719, Gohr introduced a novel cryptanalysis method by developing a differential-neural di...
At CRYPTO’19, A. Gohr proposed neural distinguishers for the lightweight block cipher Speck32/64, ac...
In CRYPTO 2019, Gohr made a pioneering attempt, and successfully applied deep learning to the differ...
The lightweight block cipher PRESENT has become viable for areas like IoT (Internet of Things) and R...
At CRYPTO\u2719, Gohr built a bridge between deep learning and cryptanalysis. Based on deep neural n...
Modern day lightweight block ciphers provide powerful encryption methods for securing IoT communicat...
Most of the traditional cryptanalytic technologies often require a great amount of time, known plain...
Neural cryptanalysis is the study of cryptographic primitives through machine learning techniques. F...
Block cipher resistance against differential cryptanalysis is commonly assessed by counting the numb...
This paper studies the use of deep learning (DL) models under a known-plaintext scenario. The goal o...
In this article, we analyse the known-key security of the standardized PRESENT lightweight block cip...
Resistance against differential cryptanalysis is an important design criteria for any modern block c...