The Master of Science (MSc) in Cybersecurity is designed to provide students with a comprehensive foundation in core and advanced techniques essential to the field of cybersecurity. The programme combines theory with hands-on practice, covering essential areas like malware analysis, penetration testing, digital forensics, cryptography, threat intelligence, risk management, and cybersecurity governance. Studnts will learn how to design secure systems, detect and respond to threats, investigate incidents, assess vulnerabilities, and manage cybersecurity projects with confidence.

Our curriculum is designed to prepare students for careers across a wide range of sectors, including finance, healthcare, critical infrastructure, telecommunications, government, and technology services. Students will also develop strong research skills, enabling you to explore new trends and contribute to the future of cybersecurity.

Professionals with a Master’s degree in Cybersecurity are employed as security analysts, ethical hackers, digital forensics investigators, penetration testers, threat intelligence analysts, security consultants, and cybersecurity managers. They can also work in security operations centres (SOCs), risk management divisions, research and development, or cybersecurity strategy teams within government agencies, financial institutions, defence and law enforcement, or private enterprises. An alternative career path could be the continuation of the research undertaken for the Master’s dissertation.

• A Bachelor’s degree in Computer Science (or a closely-related field) equivalent to an Upper Second Class (UK) or with a good GPA (3.0 or above) from an accredited university. The degree can be in one of many science or engineering disciplines, such as Computer Science, Artificial Intelligence, Cognitive Science, Engineering, Physics or Mathematics (with a programming background). A business or an engineering degree with a significant level of computing content may also be considered.
• Applicants with equivalent professional qualifications and/or relevant work experience may also be considered
• A minimum TOEFL score of 550 (213 CBT, 79 iBT), IELTS academic score of 6.0, or their equivalents on another standardised nationally, or internationally, recognised test that is approved by the Ministry of Higher Education and Scientific Research UAE (MOHESR).
• Applicants can be exempted from English Language if they had achieved the required score as part of their bachelor admission requirements.
• A copy of the updated C.V
• Submission of a certificate of equivalency issued by the Ministry of Higher Education and Scientific Research UAE (MOHESR) for all previous degree certificates awarded by institutions outside the UAE.
• A copy of the passport along with a copy of the Emirates ID (If available).
• Al Ethbara Number (for UAE nationals only).

Conditional Admissions for Master of Science in Cybersecurity programme:

• A student with a GPA of 2.5 to 2.99 will be conditionally admitted upon the programme tutor approval.
• A student with a GPA of 2.0 to 2.49 should have at least two years of relevant work experience after graduation
• An IELTS score of 5.5 (TOEFL 530, 71 iBT), or its equivalent in a standardised English language test approved by the Ministry of Higher Education and Scientific Research UAE (MOHESR) is required.

After conditional admission to the Master of Science in Cybersecurity programme, student must:

• Achieve a 6.0 IELTS/TOEFL 550/TOEFL iBT 79 or its equivalent by the end of the first semester.
• Take maximum of two modules in the first semester and must achieve a minimum grade of “C” in the first three modules taken.

English Exam Registration

• Students are encouraged to register for their IELTS or TOEFL at The British University in Dubai (BUiD) by contacting pdi@buid.ac.ae
• Paper-based ITP TOEFL are accepted by the administering institution only. Only those administered by AMIDEAST Abu Dhabi, Dubai and Sharjah will be accepted if it is sent by Amideast to BUiD directly.
• While registering with ETS for iBT or with Amideast for ITP TOEFL, please quote BUiD’s TOEFL code 0168.
• Internet (iBT) – test scores should be sent to BUiD directly by ETS.

Cybersecurity Science and Applications

This module explores the foundational science and practice of cybersecurity, offering students a thorough understanding of key concepts, principles, and methodologies. It covers a broad spectrum of topics, including security threats and vulnerabilities, risk management strategies, access control mechanisms, cryptographic techniques, network security, and incident response. Students will also engage with contemporary cybersecurity technologies and tools, while examining emerging threats and evolving challenges faced by individuals and organizations in the digital landscape.

Network Security

This module provides an advanced study of network security, equipping students with the critical knowledge and practical skills required to secure digital communication systems and infrastructure. It covers key principles, protocols, and technologies used to identify, assess, and mitigate network threats and vulnerabilities. Students will critically evaluate security policies, architectures, and solutions, applying industry standards and best practices to complex scenarios.

Cyber Threat Intelligence and Analysis

This module explores advanced concepts and methodologies in cyber threat intelligence. Students will learn to identify, analyse, and respond to evolving cyber threats using intelligence sources, adversary tactics, and analytical techniques. Emphasis is placed on the ethical, legal, and strategic aspects of intelligence collection, the application of artificial intelligence tools, and the communication of actionable insights to varied audiences. Learners will apply threat analysis methods to real-world scenarios and develop strategies that promote resilience, innovation, and stakeholder trust.

Cryptography and Information Security

This module provides a critical and practical introduction to cryptography and information security. Students will examine key principles, algorithms, and protocols used to protect data and ensure secure communication. Topics include symmetric and public-key encryption, authentication, access control, network and wireless security, and emerging areas such as quantum and post-quantum cryptography. Learners will apply theoretical concepts through analysis and secure system design while evaluating the strengths and limitations of modern cryptographic solutions in diverse computing environments.

Cybersecurity Governance, Risk Management, and Compliance

This module provides students with a comprehensive understanding of governance, risk management, and compliance (GRC) within cybersecurity. It covers key principles, frameworks, and regulatory requirements that shape secure and resilient enterprise systems. Students will critically evaluate governance strategies, assess risk, develop policy and response plans, and address emerging compliance challenges. Emphasis is placed on real-world application, decision-making, and communication in a complex regulatory and threat landscape.

Malware Investigation and Analysis

This module provides an advanced study of Malware including its reverse engineering, investigation, and analysis techniques. It will provide students with an in-depth understanding of Malware threats and expose them to the contemporary tools, technologies and techniques that are applicable in mitigating and eradicating Malware during incident response, security operations triage, or identifying them during threat hunting and forensics investigations. By means of extensive hands-on engagement, students will acquire skills to reverse engineer, dissect and investigate Malware in a safe environment while gaining the opportunity to apply critical thinking and problem-solving skills in the analysis of Malware behaviour. 

Penetration Testing and Vulnerability Assessment

This module equips students with advanced knowledge and hands-on skills in penetration testing and vulnerability assessment. It explores industry-standard methodologies for ethical hacking, reconnaissance, scanning, exploitation, and risk reporting. Students will learn to simulate real-world attack scenarios, evaluate system vulnerabilities, and recommend security improvements within ethical and legal boundaries. Emphasis is placed on critical analysis, tool development, collaborative engagement, and effective communication of technical findings to varied stakeholders.

Digital Forensics and Incident Investigation

This module provides students with critical knowledge and applied skills required for digital forensic investigations and incident response. Emphasis is placed on evidence identification, acquisition, analysis, and reporting using industry-recognized tools and methodologies. Students will investigate a variety of incidents, including data breaches and insider threats, while addressing legal, ethical, and procedural considerations. Through hands-on labs and projects, learners will develop forensic investigation competencies, ethical awareness, and the ability to communicate findings to technical and non-technical audiences.

Recent Trends and Issues in Cybersecurity

This module examines current and emerging trends developments, and challenges in cybersecurity, including AI-driven threats and defenses, zero-trust models, cloud security, quantum-safe cryptography, and supply chain risks. Students will explore the impact of new technologies on security, engaging with real-world cases, current research, and innovative solutions. Emphasis is placed on technical depth, ethical and legal considerations, and the societal impact of evolving cybersecurity issues.

Dissertation

This module focuses on the design, development, and completion of a research dissertation as partial fulfilment of the master’s degree. Students will identify a real-world cybersecurity problem, conduct a thorough literature review, and apply appropriate research methodologies to design, implement, and evaluate an original investigation. They will learn key research techniques and expand subject knowledge. Assessment consists of a written dissertation of 25,000–35,000 words (excluding references/appendices) and an oral viva, including a 15–20 minute presentation followed by jury questions.