Duration
3 days on campus plus 15 hours of self-study
Access
Public enrolment · Private / corporate
Delivery
Face-to-face · Hybrid
Sessions and enrolment
Check the provider's website for upcoming sessions and enrolment information.
Price
  • £2,250 per person (fees for 2026/27 entry)
As published by the provider, last verified 6 Nov 2026. Indicative only: confirm the current fee with the provider.Indicative daily price band: $$ (US$1,000 to under US$2,000). How bands work
Facilitator
Not identified in public sources checked

About this course

Addresses the safety of autonomous systems that employ artificial intelligence. The course covers systems engineering and safety assurance for autonomous systems, including how AI is used and assured for autonomy, for decision support and in support of the safety assurance process itself. It examines the disruption autonomy brings to established system safety practice, the elements of autonomy and the mitigation of their hazards, the basics of offline supervised and reinforcement learning, legal, social and ethical issues, human factors and human-AI teaming, post-deployment assurance, regulation and risk acceptance, and a framework for building a safety case for an autonomous system, with an ethics case for such projects.

Taught in a blended format: three days of lectures and extensive group case-study exercises on the University of York campus, plus 15 hours of self-study before and after. It can be taken on its own for continuing professional development, with an optional coursework assessment of about 65 hours that counts towards York's postgraduate awards in safety critical systems engineering.

Facilitators

Facilitator not identified in public sources checked.

Learning outcomes

  • Identify and describe the technical, engineering and social disruptors that autonomous systems bring to existing system safety engineering practice.
  • Describe and evaluate the changes needed in safety assessment and assurance practice to accommodate autonomous systems and related emerging technologies.
  • Communicate concepts and issues in autonomous systems engineering and safety clearly and consistently.
  • Identify the societal and regulatory impact of autonomous systems and its implications for risk acceptance in safety-critical domains.
  • Demonstrate how to provide a compelling safety case for an autonomous system.

Course outline

  1. 01

    Course topics

    Autonomy opportunities and assurance challenges · Elements of autonomy and mitigation of autonomous system hazards · Guidance for developing an autonomous system safety case · Basics of offline supervised and reinforcement learning · Assuring the contribution of AI to autonomy, decision support and safety analysis · Legal, social and ethical issues · Human factors and human-AI teaming · Post-deployment assurance

Training areas