The LED Block Cipher

By Jian Guo, Thomas Peyrin, Axel York Poschmann, Matthew J. B. Robshaw. IACR Cryptology ePrint Archive, 2011

950 citations recorded by the source corpus.

Subfields: Artificial Intelligence, Hardware and Architecture, Signal Processing

View Paper: https://www.semanticscholar.org/paper/f75b5d7f6d9b3b120daa2f4034e137451b595dee

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Artificial Intelligence

1. Vishal A. Thakor
2. Muhammad R. A. Khandaker
3. Mohammad Abdur Razzaque
4. Kyoji Shibutani
5. Toru Akishita
6. Harunaga Hiwatari
7. Takanori Isobe
8. Andrey Bogdanov

In Hardware and Architecture

1. Gregor Leander
2. Vishal A. Thakor
3. Christof Paar
4. Christian Rechberger
5. Muhammad R. A. Khandaker
6. Mohammad Abdur Razzaque

In Signal Processing

1. Andrey Bogdanov
2. Vishal A. Thakor
3. Kyoji Shibutani
4. Toru Akishita
5. Muhammad R. A. Khandaker
6. Harunaga Hiwatari
7. Takanori Isobe
8. Mohammad Abdur Razzaque

Citations in the corpus

• A roadmap for security challenges in the Internet of Things (2017, neutral): “…led to plenty number block ciphers primitives for IoT, including mCRYPTON [36], HIGHT [37], SEA [38], DESXL [39], CLEFIA [40], PRESENT [41], KATAN, KTANTAN [42], PRINT Cipher [43], TEA/XTEA [43], Kasumi [44], LED [45], CLEFIA [40], KLEIN [46], Piccolo [47], LBlock [48], Simon and Speck [49], etc.”
• PRINCE - A Low-Latency Block Cipher for Pervasive Computing Applications - Extended Abstract (2012, methodology): “For the same time constraints and technologies, PRINCE uses 6-7 times less area than PRESENT-80 and 14-15 times less area than AES-128.”
• The SKINNY Family of Block Ciphers and its Low-Latency Variant MANTIS (2016, methodology): “From the table, we can see that LED obtains better bounds for SK.”
• SIMON and SPECK: Block Ciphers for the Internet of Things (2015, background): “The designers of LED [35] and TWINE [57] are more intent on supporting software implementations, but these algorithms retain a bias toward hardware performance.”
• Lightweight Cryptography Algorithms for Resource-Constrained IoT Devices: A Review, Comparison and Research Opportunities (2021, methodology): “To obtain efficient hardware and software footprints, LED [75] borrows features from PRESENT (S-box), Lighter version of AES (row-wise data processing) [50] and PHO-TON (mix column approach) [76].”
• Midori: A Block Cipher for Low Energy (2015, background): “The field of lightweight cryptography has gone into overdrive as evident from the number of cipher proposals that have emerged in the past few years, like CLEFIA [33], KATAN [14], KLEIN [19], LED [20], PRESENT [12], Piccolo [32], PRINCE”
• Automatic Security Evaluation and (Related-key) Differential Characteristic Search: Application to SIMON, PRESENT, LBlock, DES(L) and Other Bit-Oriented Block Ciphers (2014, neutral): “Klein [29] 0 312 LBlock S6 12 205 Piccolo [57] 12 202 LBlock S7 12 205 TWINE [60] 0 324 LBlock S8 12 205 PRINCE [17] 0 300 LBlock S9 12 205 MIBS 0 378 Serpent S0 6 327 PRESENT/LED [31] 6 327 Serpent S1 6 327 LBlock S0 12 205 Serpent S2 6 325 LBlock S1 12 205 Serpent S3 0 368 LBlock S2 12 205 Serpent”