Blueprint Bibliography🔗

Bibliography (17)

• Benedikt Auerbach, Yevgeniy Dodis, Daniel Jost, Shuichi Katsumata, and Rolfe Schmidt, 2025. “How to Compare Bandwidth-Constrained Two-Party Secure Messaging Protocols: A Quest for a More Efficient and Secure Post-Quantum Protocol”. In USENIX Security 2025.
  Cited from (16)

  • Chapter 2: Authenticated Encryption with Associated Data
  • Chapter 4: Erasure Codes
  • Chapter 6: Key Encapsulation Mechanism
  • Chapter 6: Key Encapsulation Mechanism, Section 6.3: On-Off KEM, Definition 6.3.3
  • Chapter 6: Key Encapsulation Mechanism, Section 6.3: On-Off KEM, Definition 6.3.4
  • Chapter 10: Secure Messaging
  • Chapter 10: Secure Messaging, Section 10.1: Double Ratchet SM
  • Chapter 10: Secure Messaging, Section 10.3: SCKA SM
  • Chapter 9: Sparse Continuous Key Agreement
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.5: ML-KEM Braid
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.3: Opp-BiKEM-CKA, Definition 9.3.1
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.2: Opp-UniKEM-CKA, Definition 9.2.1
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.2: Opp-UniKEM-CKA, Definition 9.2.3
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.1: SCKA Definitions, Definition 9.1.1
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.1: SCKA Definitions, Definition 9.1.2
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.6: SPQR
• Chanathip Namprempre, Phillip Rogaway, and Thomas Shrimpton, 2014. “Reconsidering Generic Composition”. In EUROCRYPT 2014.
  Cited from (2)

  • Chapter 2: Authenticated Encryption with Associated Data
  • Chapter 2: Authenticated Encryption with Associated Data, Section 2.3: Encrypt-then-MAC
• Irving S. Reed and Gustave Solomon (June 1960). “Polynomial Codes over Certain Finite Fields”. Journal of the Society for Industrial and Applied Mathematics. 8(2).
  Cited from (1)

  • Chapter 4: Erasure Codes, Section 4.2: Reed-Solomon Erasure Code
• J. Lacan, V. Roca, J. Peltotalo, and S. Peltotalo (April 2009). “Reed-Solomon Forward Error Correction (FEC) Schemes”. RFC. 5510.
  Cited from (2)

  • Chapter 4: Erasure Codes
  • Chapter 4: Erasure Codes, Section 4.2: Reed-Solomon Erasure Code
• Joppe Bos, Craig Costello, Léo Ducas, Ilya Mironov, Michael Naehrig, Valeria Nikolaenko, Ananth Raghunathan, and Douglas Stebila, 2016. “Frodo: Take off the ring! Practical, Quantum-Secure Key Exchange from LWE”. In ACM CCS 2016.
  Cited from (2)

  • Chapter 3: Continuous Key Agreement, Section 3.4: CKA from LWE
  • Chapter 3: Continuous Key Agreement, Section 3.4: CKA from LWE, Definition 3.4.1
• Joël Alwen, Sandro Coretti, and Yevgeniy Dodis, 2019. “The Double Ratchet: Security Notions, Proofs, and Modularization for the Signal Protocol”. In EUROCRYPT 2019.
  Cited from (17)

  • Chapter 2: Authenticated Encryption with Associated Data
  • Chapter 2: Authenticated Encryption with Associated Data, Section 2.1: AEAD Definitions
  • Chapter 2: Authenticated Encryption with Associated Data, Section 2.1: AEAD Definitions, Definition 2.1.2
  • Chapter 2: Authenticated Encryption with Associated Data, Section 2.3: Encrypt-then-MAC
  • Chapter 3: Continuous Key Agreement
  • Chapter 3: Continuous Key Agreement, Section 3.3: CKA from KEM
  • Chapter 3: Continuous Key Agreement, Section 3.4: CKA from LWE
  • Chapter 3: Continuous Key Agreement, Section 3.4: CKA from LWE, Definition 3.4.1
  • Chapter 3: Continuous Key Agreement, Section 3.4: CKA from LWE, Definition 3.4.1
  • Chapter 5: Forward-Secure Authenticated Encryption with Associated Data
  • Chapter 5: Forward-Secure Authenticated Encryption with Associated Data, Section 5.2: FS-AEAD from AEAD and PRG
  • Chapter 7: Pseudorandom Function and Generator
  • Chapter 7: Pseudorandom Function and Generator, Section 7.3: PRF-PRNG from PRP and PRG
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.2: RKEM from DDH (non-FS), Definition 8.2.1
  • Chapter 10: Secure Messaging
  • Chapter 10: Secure Messaging, Section 10.1: Double Ratchet SM
  • Chapter 10: Secure Messaging, Section 10.1.1: Double Ratchet SM - Abstract
• Lewis Glabush, Patrick Longa, Michael Naehrig, Chris Peikert, Douglas Stebila, and Fernando Virdia (2025). “FrodoKEM: A CCA-Secure Learning With Errors Key Encapsulation Mechanism”. IACR Communications in Cryptology. 2(3).
  Cited from (5)

  • Chapter 6: Key Encapsulation Mechanism
  • Chapter 6: Key Encapsulation Mechanism, Section 6.2: FrodoKEM
  • Chapter 6: Key Encapsulation Mechanism, Section 6.2: FrodoKEM
  • Chapter 6: Key Encapsulation Mechanism, Section 6.2: FrodoKEM
  • Chapter 6: Key Encapsulation Mechanism, Section 6.2: FrodoKEM
• Mihir Bellare and Chanathip Namprempre, 2000. “Authenticated Encryption: Relations among Notions and Analysis of the Generic Composition Paradigm”. In ASIACRYPT 2000.
  Cited from (0)

  • No citation uses recorded.
• Mihir Bellare and Phillip Rogaway, 2006. “The Security of Triple Encryption and a Framework for Code-Based Game-Playing Proofs”. In EUROCRYPT 2006.
  Cited from (1)

  • Chapter 7: Pseudorandom Function and Generator, Section 7.2: Pseudorandom Permutations
• Morris Dworkin (November 2007). “Recommendation for Block Cipher Modes of Operation: Galois/Counter Mode (GCM) and GMAC”. NIST Special Publication. 800-38D.
  Cited from (0)

  • No citation uses recorded.
• NIST (August 2024). “Module-Lattice-Based Key-Encapsulation Mechanism Standard”. NIST Federal Information Processing Standards. FIPS 203.
  Cited from (3)

  • Chapter 6: Key Encapsulation Mechanism
  • Chapter 6: Key Encapsulation Mechanism, Section 6.4: Incremental KEM
  • Chapter 6: Key Encapsulation Mechanism, Section 6.3: On-Off KEM, Definition 6.3.2
• Patrick Longa, Joppe W. Bos, Stephan Ehlen, and Douglas Stebila (June 2026). “FrodoKEM: key encapsulation from learning with errors”. IETF Internet-Draft. (draft-longa-cfrg-frodokem-03).
  Cited from (2)

  • Chapter 6: Key Encapsulation Mechanism, Section 6.2: FrodoKEM
  • Chapter 6: Key Encapsulation Mechanism, Section 6.2: FrodoKEM
• Phillip Rogaway, 2002. “Authenticated-Encryption with Associated-Data”. In CCS 2002.
  Cited from (0)

  • No citation uses recorded.
• Signal (2025). “Sparse Post Quantum Ratchet”. SparsePostQuantumRatchet. .
  Cited from (2)

  • Chapter 9: Sparse Continuous Key Agreement
  • Chapter 9: Sparse Continuous Key Agreement, Section 9.6: SPQR
• Signal (2025). “The ML-KEM Braid Specification”. Signal Specifications. .
  Cited from (0)

  • No citation uses recorded.
• Signal (2025). “Sparse Post Quantum Ratchet: Encoding Layer”. SparsePostQuantumRatchet. .
  Cited from (0)

  • No citation uses recorded.
• Yevgeniy Dodis, Daniel Jost, Shuichi Katsumata, Thomas Prest, and Rolfe Schmidt, 2025. “Triple Ratchet: A Bandwidth-Efficient Hybrid-Secure Signal Protocol”. In EUROCRYPT 2025.
  Cited from (15)

  • Chapter 2: Authenticated Encryption with Associated Data
  • Chapter 2: Authenticated Encryption with Associated Data, Section 2.1: AEAD Definitions
  • Chapter 2: Authenticated Encryption with Associated Data, Section 2.3: Encrypt-then-MAC
  • Chapter 3: Continuous Key Agreement
  • Chapter 4: Erasure Codes
  • Chapter 8: Ratcheting Key Encapsulation Mechanism
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.1: RKEM Definitions, Definition 8.1.2
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.1: RKEM Definitions, Definition 8.1.2
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.2: RKEM from DDH (non-FS), Definition 8.2.1
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.2: RKEM from DDH (non-FS), Theorem 8.2.2
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.2: RKEM from DDH (non-FS), Theorem 8.2.3
  • Chapter 8: Ratcheting Key Encapsulation Mechanism, Section 8.4: RKEM from KEM, Theorem 8.4.4
  • Chapter 10: Secure Messaging
  • Chapter 10: Secure Messaging, Section 10.1: Double Ratchet SM
  • Chapter 10: Secure Messaging, Section 10.2: Triple Ratchet SM