The Modern and Post-Quantum Cryptography course at Oxford Training Centre is part of the IT and Computer Science Training Courses category. It provides comprehensive knowledge of modern cryptographic techniques and emerging post-quantum approaches designed to address the security challenges posed by quantum computing. Participants explore lattice-based cryptography, post-quantum algorithms such as Kyber and Dilithium, NIST standardisation, key encapsulation mechanisms, digital signatures, and hybrid certificates. The course develops practical understanding of how organisations can evaluate, implement, and transition towards quantum-resistant cryptographic systems.
Objectives
- Understand the foundations and evolution of Modern and Post-Quantum Cryptography.
- Examine the impact of quantum computing on conventional cryptographic algorithms.
- Explore lattice-based cryptography and other post-quantum cryptographic approaches.
- Understand the design and applications of Kyber for key encapsulation.
- Examine Dilithium and its role in post-quantum digital signatures.
- Understand NIST standardisation efforts for post-quantum cryptography.
- Evaluate key encapsulation mechanisms and post-quantum digital signature schemes.
- Explore the use of hybrid certificates during cryptographic migration.
- Assess cryptographic risks and develop appropriate transition strategies.
- Apply best practices for integrating post-quantum algorithms into modern security architectures.
Target Audience
- Cybersecurity professionals and specialists
- IT managers and security managers
- Cryptography and information security professionals
- Network and systems administrators
- Software developers and architects
- Security engineers
- Risk and compliance professionals
- Cloud and infrastructure security teams
- Technology professionals responsible for data protection
- IT professionals seeking expertise in post-quantum security
Course Content
Module 1: Foundations of Modern Cryptography
- Cryptographic principles and security objectives
- Symmetric and asymmetric cryptography
- Encryption, hashing and digital signatures
- Public key infrastructure and certificates
- Current cryptographic standards and applications
Module 2: The Quantum Computing Threat
- Fundamentals of quantum computing
- Quantum threats to RSA and ECC
- Shor’s and Grover’s algorithms
- Assessing cryptographic exposure
- The need for quantum-resistant security
Module 3: Post-Quantum Cryptography Fundamentals
- Definition and principles of post-quantum cryptography
- Major post-quantum algorithm families
- Security assumptions and threat models
- Lattice-based cryptography
- Code-based, hash-based and other approaches
Module 4: Kyber and Key Encapsulation
- Introduction to Kyber
- Key encapsulation mechanisms
- Public and private key operations
- Security and performance considerations
- Kyber implementation and deployment concepts
- Migration considerations for existing encryption systems
Module 5: Dilithium and Post-Quantum Signatures
- Introduction to Dilithium
- Digital signatures in a post-quantum environment
- Signing and verification processes
- Security characteristics and implementation considerations
- Applications of Dilithium in enterprise environments
Module 6: NIST Standardisation and Cryptographic Standards
- Overview of NIST standardisation
- Post-quantum cryptography standardisation initiatives
- Understanding standardised algorithms
- Algorithm selection and interoperability
- Compliance and governance considerations
Module 7: Hybrid Cryptography and Certificates
- Principles of hybrid cryptographic systems
- Combining classical and post-quantum algorithms
- Hybrid certificates
- Hybrid key exchange and authentication
- Certificate lifecycle management
- Transition strategies for existing PKI environments
Module 8: Post-Quantum Migration Strategies
- Cryptographic inventory and asset discovery
- Risk assessment and prioritisation
- Crypto-agility principles
- Developing a post-quantum migration roadmap
- Testing and validating new algorithms
- Long-term cryptographic resilience
Module 9: Implementation, Testing and Best Practices
- Algorithm performance and security evaluation
- Implementation challenges
- Key management considerations
- Secure deployment practices
- Monitoring and maintenance
- Building resilient post-quantum security architectures
FAQs
1. What is Modern and Post-Quantum Cryptography?
Modern and Post-Quantum Cryptography covers advanced cryptographic techniques and algorithms designed to protect information against both current cyber threats and future quantum computing attacks.
2. What will I learn about lattice-based cryptography?
You will learn the principles, security concepts and applications of lattice-based cryptography, including its role in developing quantum-resistant encryption and digital signature systems.
3. What is Kyber used for?
Kyber is a post-quantum key encapsulation mechanism used to establish shared cryptographic keys while providing resistance against attacks from quantum computers.
4. What is Dilithium in post-quantum cryptography?
Dilithium is a post-quantum digital signature algorithm designed to provide secure authentication and integrity protection in environments threatened by quantum computing.
5. What is NIST standardisation?
NIST standardisation refers to the process through which the National Institute of Standards and Technology evaluates and establishes standards for post-quantum cryptographic algorithms.
6. What are hybrid certificates?
Hybrid certificates combine classical and post-quantum cryptographic techniques to support secure authentication during the transition from traditional cryptography to quantum-resistant systems.
7. Who should attend this course?
The course is suitable for cybersecurity professionals, IT specialists, security engineers, software developers, network administrators, IT managers and professionals involved in cryptographic security.
8. Is this course part of IT and Computer Science Training Courses?
Yes. Modern and Post-Quantum Cryptography is offered by Oxford Training Centre as part of its IT and Computer Science Training Courses.