MSc in Safety Critical Systems Engineering

1 Year On Campus Masters Program

University of York

Program Overview

The MSc in Safety Critical Systems Engineering at the University of York trains students to lead the design and assurance of systems whose failure could endanger human life. It is ideal for those who want to work across domains such as aerospace, automotive, rail, nuclear, or autonomous systems, combining technical rigor with organisational insight.

Curriculum Structure

Year 1 (Full‑time, 12 months / Part‑time, 2–3 years)
Students begin with fundamental modules such as Foundations of System Safety Engineering and Hazard and Risk Assessment, learning how to think systematically about safety throughout a system’s lifecycle. They then take advanced courses including Computers and Safety, System Safety Assessment, and Safety Case Development and Review, building the competence to evaluate and assure the safety of complex systems. Further optional modules include Robotics and Autonomous Systems Safety, Security for Safety-Critical Systems, and Human Factors for Safety, allowing students to specialise according to their career goals. The programme culminates in an individual research project or dissertation on a safety-critical topic, supervised by expert faculty.

Focus Areas
Safety assurance and risk management, system architecture and lifecycle safety, safety in autonomous and robotic systems, human factors and organisational safety, security in safety-critical environments.

Learning Outcomes
Graduates will be able to apply system safety thinking across a system or service lifecycle; assess and assure safety using rigorous analytical techniques; design and maintain safety management processes considering human and organisational factors; communicate safety issues effectively to technical and non-technical stakeholders; and conduct independent safety research, contributing to engineering practice and theory.

Professional Alignment (Accreditation)
The MSc is partially accredited by the BCS, The Chartered Institute for IT, fulfilling part of the academic requirement for Chartered IT Professional (CITP) status. It also meets part of the academic criteria for Chartered Engineer (CEng) status via the Engineering Council, reinforcing its relevance to professional safety and systems engineering roles.

Reputation (Employability / Rankings)
The Department of Computer Science at York is highly regarded, and the course draws on extensive industrial experience in key safety domains including aerospace, automotive, railway, and nuclear sectors. Graduates are well-positioned for careers as safety managers, systems safety engineers, software safety consultants, or assurance leads.

Experiential Learning (Research, Projects, Internships etc.)

The MSc Safety Critical Systems Engineering at York equips students to become leaders in designing, analysing, and assuring safety-critical systems — systems whose failure could risk human lives. The course develops a deep understanding of how technology, human operators, and organisational contexts interact to influence safety. By studying real-world systems in domains such as aerospace, automotive, rail, military, and nuclear, students gain the mindset and tools to assess, mitigate, and assure safety risks throughout a product or service lifecycle. The programme also embeds ethical and professional thinking, preparing graduates who can confidently communicate safety concerns and participate in high-stakes decision-making.

Students engage in rigorous, hands-on, and applied learning, supported by York’s dedicated facilities, expert staff, and industry-grounded curriculum:

Institute for Safe Autonomy: Students work in a specialised facility that includes collaborative design spaces, a rooftop lab, and robotics testing environments — ideal for studying and developing autonomous systems in safety-critical contexts.
Teaching Structure: Modules are delivered in intensive teaching weeks with face-to-face lectures, case studies, and group exercises that challenge students to think critically about safety risks.
Core & Specialist Modules: Foundational modules include Hazard & Risk Assessment, System Safety Assessment, and Safety Case Development. Specialist modules include Robotics & Autonomous Systems Safety, Security for Safety-Critical Systems, Computers & Safety, and Human Factors, allowing tailored learning.
Group Work & Case Studies: Students work in small teams on realistic safety-critical scenarios, analysing risks, proposing solutions, and defending their safety case decisions.
Research Project / Dissertation: Each student completes an individual project, supervised by faculty. Projects may focus on topics such as safety in autonomous maritime systems, automating safety-case requirements, or managing safety assurance in legacy systems.
Professional Reflection & Ethics: The programme integrates reflection on ethical, legal, and organisational aspects of safety engineering, encouraging professional decision-making in high-stakes contexts.
Short Course Integration: Optional short courses in system safety engineering or specialised safety topics support professional development and MSc credit accumulation.

Progression & Future Opportunities

Graduates are prepared for roles such as Safety Systems Engineer, Reliability Engineer, Systems Assurance Analyst, and Risk Assessment Consultant.

Key supporting factors include:

University services: Career Development Service provides targeted workshops, industry networking events, and guidance tailored to safety-critical sectors.
Employment stats and salary figures: Graduates typically secure positions with starting salaries ranging from £32,000 to £45,000, reflecting strong demand for safety and reliability expertise.
University–industry partnerships: The program collaborates with aerospace, automotive, and rail companies to provide students with practical exposure and professional connections.
Long-term accreditation value: The program’s focus on internationally recognized safety standards and system assurance enhances long-term professional credibility.
Graduation outcomes: Alumni contribute to designing, verifying, and managing high-reliability systems in critical industries, ensuring safety, compliance, and operational excellence.

Further Academic Progression:
Graduates may pursue doctoral research in safety-critical systems, reliability engineering, or risk management. This pathway enables specialization in advanced research, consultancy, or high-level industry positions focused on safety and compliance.