There is a more recent version of this academic item available.

Overview

This handbook entry is for students commencing their studies from 2024. Please refer to previous editions of the handbook for pre-2024 requirements. The nuclear debate is ongoing. Irrespective of the outcome of 'new build' proposals in the Western world, there is an existing portfolio of reactors that require maintenance, servicing, … For more content click the Read More button below. In addition, many countries are assessing nuclear energy programmes as one of a number of mechanisms to provide secure, low-carbon energy, and some have embarked on national nuclear build programmes. Such programmes are raising many global challenges, not least due to proliferation concerns and environmental security. The long-term needs of the nuclear engineering field are clear and many nations have long-term commitments to nuclear engineering including conventional power generation, radiological applications in medicine and healthcare, and proliferation monitoring and control. There is an ageing workforce in the sector and ample opportunities for nuclear engineering graduates. Hence there is a strong need for a new generation of nuclear-conversant engineers. The development of nuclear engineering skills is a timely opportunity for engineering graduates. The aim of the Nuclear Engineering stream is to educate and inform engineering graduates in the underpinning theory behind nuclear engineering techniques, technologies and processes, and provides a stream that allows engineering graduates, from traditional engineering disciplines, to prepare themselves for a career in nuclear engineering. The stream aims to produce graduates capable of embarking on a nuclear engineering career and contributing to the nuclear debate from a knowledgeable standpoint. The specialisation will have contributions from national and international experts in the Nuclear Engineering sector including material from the Centre for Nuclear Engineering at Imperial College, London, and the Australian Nuclear Science and Technology Organisation (ANSTO) in Australia.

Learning Outcomes

1.
Explain concepts, theories, and techniques relevant to an engineering science specialisation.
2.
Apply a breadth of relevant engineering knowledge, including engineering management, to professional practice.
3.
Identify, define, investigate, and analyse complex engineering problems.
4.
Apply appropriate engineering knowledge and methods to develop effective and innovative solutions to complex engineering problems.
5.
Communicate information to other professionals, clients, stakeholders and the broader community.
6.
Apply creative and ethical approaches to practice.
7.
Collaborate effectively in diverse professional contexts.

Available in Program(s)
Single degree program(s) in which this specialisation is available:

Graduate Certificate in Engineering Science - GCertEngSc7373 - Engineering Science

Specialisation Structure

Students must complete 48 UOC.

Advanced Disciplinary Knowledge Electives6 Units of Credit:

Enrolment Disclaimer

Please note that this Handbook is a comprehensive catalogue of our offerings and includes courses that can be taken to satisfy program requirements irrespective as to their availability for a particular year. Availability of courses is best checked using filters on this site or on the class timetable site.

You are responsible for ensuring that you enrol in courses according to your program requirements and by following the advice of your Program Authority. myUNSW enrolment checks that you have met enrolment requirements such as pre-requisites for individual courses but not that you are enrolling in courses that will count towards your program requirements.

Pre-2019 Handbook Editions

Access past handbook editions (2018 and prior)