Embedded cryptography 2 / coordinated by Emmanuel Prouff, Guenael Renault, Mattieu Rivain, Colin O'Flynn.

Format:

Book

Contributor:

Prouff, Emmanuel, editor.

Renault, Guenael, editor.

Rivain, Mattieu, editor.

O'Flynn, Colin, editor.

Wiley InterScience (Online service)

Series:

SCIENCES: COMPUTER SCIENCE.

Language:

English

Subjects (All):

Data encryption (Computer science).

Physical Description:

1 online resource (432 pages)

Place of Publication:

London, UK : ISTE, Ltd. ; Hoboken, NJ : Wiley, 2025.

Contents:

Preface xiii Emmanuel PROUFF, Guenael RENAULT, Matthieu RIVAIN and Colin O'FLYNN

Part 1. Masking

Chapter 1. Introduction to Masking 3 Ange MARTINELLI and Melissa ROSSI

1.1. An overview of masking

1.2. The effect of masking on side-channel leakage

1.3. Different types of masking

1.4. Code-based masking: toward a generic framework

1.5. Hybrid masking

1.6. Examples of specific maskings

1.7. Outline of the part

1.8. Notes and further references

1.9. References

Chapter 2. Masking Schemes 15 Jean-Sebastien CORON and Rina ZEITOUN

2.1. Introduction to masking operations

2.2. Classical linear operations

2.3. Classical nonlinear operations

2.4. Mask refreshing

2.5. Masking S-boxes

2.6. Masks conversions

2.7. Notes and further references

2.8. References

Chapter 3. Hardware Masking 39 Begul BILGIN and Lauren DE MEYER

3.1. Introduction

3.2. Category I: td + 1 masking

3.3. Category II: d + 1 masking

3.4. Trade-offs

3.5. Notes and further references

3.6. References

Chapter 4. Masking Security Proofs 59 Sonia BELAID

4.1. Introduction

4.2. Preliminaries

4.3. Probing model

4.4. Robust probing model

4.5. Random probing model and noisy leakage model

4.6. Composition

4.7. Conclusion

4.8. Notes and further references

4.9. References

Chapter 5. Masking Verification 83 Abdul Rahman TALEB

5.1. Introduction

5.2. General procedure

5.3. Verify: verification mechanisms for a set of variables

5.4. Explore: exploration mechanisms for all sets of variables

5.5. Conclusion

5.6. Notes and further references

5.7. Solution to Exercise 5.1

5.8. References

Part 2. Cryptographic Implementations

Chapter 6. Hardware Acceleration of Cryptographic Algorithms 115 Lejla BATINA, Pedro Maat COSTA MASSOLINO and Nele MENTENS

6.1. Introduction

6.2. Hardware optimization of symmetric-key cryptography

6.3. Modular arithmetic for hardware implementations

6.4. RSA implementations

6.5. Post-quantum cryptography

6.6. Conclusion

6.7. Notes and further references

6.8. References

Chapter 7. Constant-Time Implementations 133 Thomas PORNIN

7.1. What does constant-time mean?

7.2. Low-level issues

7.3. Primitive implementation techniques

7.4. Constant-time algorithms

7.5. References

Chapter 8. Protected AES Implementations 177 Franck RONDEPIERRE

8.1. Generic countermeasures

8.2. Secure evaluation of the SubByte function

8.3. Other functions of AES

8.4. Notes and further references

8.5. References

Chapter 9. Protected RSA Implementations 201 Mylene ROUSSELLET, Yannick TEGLIA and David VIGILANT

9.1. Introduction

9.2. Building a protected RSA implementation step by step

9.3. Remarks and open discussion

9.4. Notes and further references

9.5. References

Chapter 10. Protected ECC Implementations 225 Lukasz CHMIELEWSKI and Louiza PAPACHRISTODOULOU

10.1. Introduction

10.2. Protecting ECC implementations and countermeasures

10.3. Conclusion

10.4. Notes and further references

10.5. References

Chapter 11. Post-Quantum Implementations 249 Matthias J. KANNWISCHER, Ruben NIEDERHAGEN, Francisco RODRIGUEZ-HENRIQUEZ and Peter SCHWABE

11.1. Introduction

11.2. Post-quantum encryption and key encapsulation

11.3. Post-quantum signatures

11.4. Notes and further references

11.5. References

Part 3. Hardware Security

Chapter 12. Hardware Reverse Engineering and Invasive Attacks 291 Sergei SKOROBOGATOV

12.1. Introduction

12.2. Preparation for hardware attacks

12.3. Probing attacks

12.4. Delayering and reverse engineering

12.5. Memory dump and hardware cloning

12.6. Conclusion

12.7. Notes and further references

12.8. References

Chapter 13. Gate-Level Protection 315 Sylvain GUILLEY and Jean-Luc DANGER

13.1. Introduction

13.2. DPL principle, built-in DFA resistance, and latent side-channel vulnerabilities

13.3. DPL families based on standard cells

13.4. Technological specific DPL styles

13.5. DPL styles comparison

13.6. Conclusion

13.7. Notes and further references

13.8. References

Chapter 14. Physically Unclonable Functions 339 Jean-Luc DANGER, Sylvain GUILLEY, Debdeep MUKHOPADHYAY and Ulrich RUHRMAIR

14.1. Introduction

14.2. PUF architectures

14.3. Reliability enhancement

14.4. Entropy assessment

14.5. Resistance to attacks

14.6. Characterizations

14.7. Standardization

14.8. Notes and further references

14.9. References

List of Authors

Index

Summary of Volume 1

Summary of Volume 3.

Notes:

Electronic reproduction. Hoboken, N.J. Available via World Wide Web.

ISBN:

9781394351909

1394351909

Publisher Number:

90101806138

Access Restriction:

Restricted for use by site license.