This module will provide the student with a significant level of understanding of the theoretical and development capability of Blockchain Technologies, incorporating an analysis of some innovative use cases.

1. Critically evaluate Blockchain technologies, their core components, protocols, and use cases  
2. Implement a Blockchain using Blockchain as a Service (B aa S)  
3. Critically evaluate the interaction of Blockchain technology and cryptocurrencies.  
4. Examine Bootstrapping network effects through Blockchain technology and crypto – economics  
5. Evaluate the use of Non-Fungible Tokens (NFTs) and implement tokenisation as an authentication mechanism.  
6. Investigate and critique the future of Blockchain technology, AI, and digital privacy  

This module will provide the student with a significant level of comprehension and development capability of cryptography and secure cryptographic systems.  The module will analyse the implementation vulnerabilities associated with cryptographic protocols and consider best practices and strategies to remediate them.

1. Critically evaluate the principles and practice of cryptography  
2. Evaluate the modes of operation and operational requirements in a business context.  
3. Critically analyse the principles of hashing and its use in blockchain, message authentication and integrity verification.  
4. E valuate the application of confidentiality, integrity, authentication, access and non-repudiation in the construction of secure systems.  
5. Appraise and critically analyse the implementation of cryptography in every day cryptographic application.  

This module is will provide the student with a significant level of comprehension and development capability within decentralised applications development and design, including theoretical concepts and implementation of smart contracts.

1. Review and evaluate distributed systems implementation and enterprise solutions  
2. Critically analyse and discuss decentralised applications design, development and performance requirements.  
3. Evaluate decentralised frameworks, discussing implementation strategies and network infrastructure.  
4. Appraise and critique existing decentralised applications, identifying security vulnerabilities and formulating effective design solutions.  
5. Design, develop and test decentralised applications utilising secure programming and industry best-practise.  
6. Analyse and evaluate smart contracts, concisely communicating security vulnerabilities and implementation requirements.  
7. Design, develop, test and deploy smart contracts, demonstrating succinct comprehension of selected design and implementation strategies, including appropriate deployment domain.  

The student will develop a comprehensive understanding of Distributed ledger Technology characteristics and components including critical analysis of consensus algorithms.  Students will appraise, review and critically and reflexively formulate issues involved with Cryptocurrencies and Non-Fungible Tokens (NFTs) including analysis of governance, immutability and transparency associated with the technology's implementation across numerous sectors.

1. Critically appraise distributed ledger technology implementations and characteristics.  
2. Analyse and evaluate consensus algorithms to evaluate distributed ledger technologies and cryptocurrencies.  
3. Produce original texts to communicate concepts surrounding governance, immutability and transparency concisely and effectively with written work demonstrating comprehension and coherent structure.  
4. Appraise, review and critically and reflexively formulate issues involved in cryptocurrencies and non-fungible tokens with considerations for social, economic and industry solutions.  
5. Develop, investigate, evaluate and defend distributed ledger technology use-cases supporting the implementation of decentralised protocols and tokenisation.  
6. Design, develop, test and deploy a non-fungible token protocol.  
7. Evaluate and discuss tokenisation strategies, including the development of next-generation security-conscious solutions.  

To make students aware of the risks and vulnerabilities using hacking, penetration, and on-chain forensic tools and frameworks, including developing comprehensive knowledge of mitigating actions. The learner will analyse and evaluate the security of current applications and systems, incorporating an analysis of innovative Blockchain use case solutions.

1. Evaluate and investigate the need for security in all applications using tools and frameworks.  
2. Implement risk assessment based on transaction data requirements and evaluate appropriate countermeasures .  
3. Analyse present day GDPR issues and critically evaluate Blockchain solutions used to demonstrate Regulatory Compliance.  
4. Evaluate and critically analyse the vulnerabilities in system architectures and develop appropriate Blockchain and programmer-based countermeasures.  
5. Investigate how business continuity and disaster plans can benefit from the application of Blockchain technology in cybersecurity attacks.  
6. Investigate ledger immutability and its application in cybersecurity.  

To provide the student with a practitioner's understanding of information security from the view of various stakeholders, roles and process that interact with data at rest or data in transit. This module will cover the core competencies and lead the learner to investigate further new areas as they arise.

1. Synthesise, evaluate and critically analyse current best practice frameworks and methodologies for the implementation of security protocols for information systems.  
2. Produce a scalable risk management plan including an appropriate risk response strategy based on risk analysis  
3. Compose and perform a risk analysis to identify , categorise and prioritize risk for communication to stakeholders and to enable directed response and monitoring for emerging risks  
4. Audit the necessary Information Systems appropriate to particular business requirements.  
5. Devise a strategy for the implementation of security protocols from the early stages of the SDLC to enhance the overall Application Lifecycle Management (ALM)  
6. Investigate and defend strategies using appropriate academic and industry sources.