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Embedded Cryptography provides a comprehensive exploration of cryptographic techniques tailored for embedded systems, addressing the growing importance of security in devices such as mobile systems and IoT. The books explore the evolution of embedded cryptography since its inception in the mid-90s and cover both theoretical and practical aspects, as well as discussing the implementation of cryptographic algorithms such as AES, RSA, ECC and post-quantum algorithms. The work is structured into three volumes, spanning forty chapters and nine parts, and is enriched with pedagogical materials…mehr
Embedded Cryptography provides a comprehensive exploration of cryptographic techniques tailored for embedded systems, addressing the growing importance of security in devices such as mobile systems and IoT. The books explore the evolution of embedded cryptography since its inception in the mid-90s and cover both theoretical and practical aspects, as well as discussing the implementation of cryptographic algorithms such as AES, RSA, ECC and post-quantum algorithms.
The work is structured into three volumes, spanning forty chapters and nine parts, and is enriched with pedagogical materials and real-world case studies, designed for researchers, professionals, and students alike, offering insights into both foundational and advanced topics in the field.
Embedded Cryptography 2 is dedicated to masking and cryptographic implementations, as well as hardware security.
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Autorenporträt
Emmanuel Prouff is a researcher in Applied Cryptography and Embedded Security. He has worked as an expert for ANSSI, France, as well as for major security companies such as IDEMIA and SAFRAN, both to develop secure implementations against physical attacks.
Guénaël Renault is Deputy Head of the Hardware Security Lab at ANSSI, France. His research interests include cryptography, algebraic (symbolic) computation and computational number theory.
Mattieu Rivain is a researcher and entrepreneur in Cryptography, currently working as CEO at CryptoExperts, France. His research interests include provable security against side-channel attacks, white-box cryptography, zero-knowledge proofs and post-quantum signatures.
Colin O'Flynn is Assistant Professor in Embedded Hardware Security at Dalhousie University, Canada. His interests include embedded hardware security, PCB design and prototype construction.
Inhaltsangabe
Preface xiii Emmanuel PROUFF, Guenael RENAULT, Matthieu RIVAIN and Colin O'FLYNN Part 1. Masking 1 Chapter 1. Introduction to Masking 3 Ange MARTINELLI and Melissa ROSSI 1.1. An overview of masking 3 1.2. The effect of masking on side-channel leakage 4 1.3. Different types of masking 5 1.4. Code-based masking: toward a generic framework 8 1.5. Hybrid masking 10 1.6. Examples of specific maskings 11 1.7. Outline of the part 12 1.8. Notes and further references 13 1.9. References 13 Chapter 2. Masking Schemes 15 Jean-Sebastien CORON and Rina ZEITOUN 2.1. Introduction to masking operations 15 2.2. Classical linear operations 15 2.3. Classical nonlinear operations 16 2.4. Mask refreshing 18 2.5. Masking S-boxes 21 2.6. Masks conversions 27 2.7. Notes and further references 35 2.8. References 37 Chapter 3. Hardware Masking 39 Begul BILGIN and Lauren DE MEYER 3.1. Introduction 39 3.2. Category I: td + 1 masking 42 3.3. Category II: d + 1 masking 46 3.4. Trade-offs 51 3.5. Notes and further references 53 3.6. References 55 Chapter 4. Masking Security Proofs 59 Sonia BELAID 4.1. Introduction 59 4.2. Preliminaries 60 4.3. Probing model 62 4.4. Robust probing model 67 4.5. Random probing model and noisy leakage model 70 4.6. Composition 74 4.7. Conclusion 81 4.8. Notes and further references 81 4.9. References 81 Chapter 5. Masking Verification 83 Abdul Rahman TALEB 5.1. Introduction 83 5.2. General procedure 84 5.3. Verify: verification mechanisms for a set of variables 87 5.4. Explore: exploration mechanisms for all sets of variables 97 5.5. Conclusion 108 5.6. Notes and further references 109 5.7. Solution to Exercise 5.1 109 5.8. References 111 Part 2. Cryptographic Implementations 113 Chapter 6. Hardware Acceleration of Cryptographic Algorithms 115 Lejla BATINA, Pedro Maat COSTA MASSOLINO and Nele MENTENS 6.1. Introduction 115 6.2. Hardware optimization of symmetric-key cryptography 116 6.3. Modular arithmetic for hardware implementations 118 6.4. RSA implementations 123 6.5. Post-quantum cryptography 125 6.6. Conclusion 126 6.7. Notes and further references 127 6.8. References 128 Chapter 7. Constant-Time Implementations 133 Thomas PORNIN 7.1. What does constant-time mean? 133 7.2. Low-level issues 138 7.3. Primitive implementation techniques 146 7.4. Constant-time algorithms 163 7.5. References 175 Chapter 8. Protected AES Implementations 177 Franck RONDEPIERRE 8.1. Generic countermeasures 178 8.2. Secure evaluation of the SubByte function 180 8.3. Other functions of AES 192 8.4. Notes and further references 197 8.5. References 198 Chapter 9. Protected RSA Implementations 201 Mylene ROUSSELLET, Yannick TEGLIA and David VIGILANT 9.1. Introduction 201 9.2. Building a protected RSA implementation step by step 203 9.3. Remarks and open discussion 213 9.4. Notes and further references 214 9.5. References 220 Chapter 10. Protected ECC Implementations 225 Lukasz CHMIELEWSKI and Louiza PAPACHRISTODOULOU 10.1. Introduction 225 10.2. Protecting ECC implementations and countermeasures 226 10.3. Conclusion 242 10.4. Notes and further references 242 10.5. References 245 Chapter 11. Post-Quantum Implementations 249 Matthias J. KANNWISCHER, Ruben NIEDERHAGEN, Francisco RODRIGUEZ-HENRIQUEZ and Peter SCHWABE 11.1. Introduction 249 11.2. Post-quantum encryption and key encapsulation 251 11.3. Post-quantum signatures 265 11.4. Notes and further references 275 11.5. References 278 Part 3. Hardware Security 289 Chapter 12. Hardware Reverse Engineering and Invasive Attacks 291 Sergei SKOROBOGATOV 12.1. Introduction 291 12.2. Preparation for hardware attacks 291 12.3. Probing attacks 300 12.4. Delayering and reverse engineering 303 12.5. Memory dump and hardware cloning 309 12.6. Conclusion 311 12.7. Notes and further references 311 12.8. References 312 Chapter 13. Gate-Level Protection 315 Sylvain GUILLEY and Jean-Luc DANGER 13.1. Introduction 315 13.2. DPL principle, built-in DFA resistance, and latent side-channel vulnerabilities 316 13.3. DPL families based on standard cells 318 13.4. Technological specific DPL styles 328 13.5. DPL styles comparison 331 13.6. Conclusion 331 13.7. Notes and further references 332 13.8. References 334 Chapter 14. Physically Unclonable Functions 339 Jean-Luc DANGER, Sylvain GUILLEY, Debdeep MUKHOPADHYAY and Ulrich RUHRMAIR 14.1. Introduction 339 14.2. PUF architectures 347 14.3. Reliability enhancement 353 14.4. Entropy assessment 358 14.5. Resistance to attacks 361 14.6. Characterizations 364 14.7. Standardization 365 14.8. Notes and further references 366 14.9. References 368 List of Authors 375 Index 379 Summary of Volume 1 385 Summary of Volume 3 393
