MSc Renewable Energy and Sustainable Technology

01 May 2020 - 31 Aug 2027

Course Leader James Reed
Course Team Sandra Esteves, Christian Laycock, Jon Maddy, Stephen Carr, Fan Zhang, Jaime Massanet-Nicolau, Iain Michie, Tim Patterson, Richard Dinsdale, Alan Guwy
Awarding Body University of South Wales
Teaching Institutions University of South Wales
Modes of Study Full Time, Part Time

Document Version

Version 1
Valid From 01 May 2020
Valid To 31 Aug 2027

QAA Benchmarks

QAA UK Quality Code for Higher Education – The Frameworks for Higher Education Qualifications of UK Degree-Awarding Bodies (October 2014) QAA The Revised Quality Code for Higher Education (2018) QAA Characteristics Statement: Masters Degrees - https://www.qaa.ac.uk/docs/qaa/qucode/master%27s-degree-characteristics-statement.pdf?sfvrsn=6ca2f981_10

Educational Aim

The primary aim of the proposed course is to provide an advanced award that is in-line with the current practice and research developments in renewable energy and sustainable technology. This is to be achieved by increasing the depth of the student's scientific knowledge and broadening both their technical and non-technical knowledge and skills.

The MSc Renewable Energy and Sustainable Technology has the following generic aims:

Provide in-depth technical and non-technical understanding of theory and practice using recent research and development in the subject area.

To enable students to apply their knowledge, understanding and skills, to areas, techniques and applications beyond those they have directly experienced.

Develop the critical awareness necessary for effective analysis, problem solving and decision making to address a wide variety of real world problems.

To develop transferable skills, including communication, working with others, problem solving, self confidence and a desire for continuous professional development.

To develop an attitude of personal enterprise and self-responsibility, to work on their own initiative and handle varying workloads while maintaining standards and targets.

Learning Outcomes

A1 Demonstrate a systematic understanding of knowledge and a critical awareness of current problems and new insights of the core subject areas of renewable energy and sustainable technology, informed by research developments and new technologies.
A2 Demonstrate a critical understanding of the scientific, technological and management principles, rationale and techniques involved in the field of renewable energy and sustainable technology.
A3 Demonstrate a comprehensive understanding and the ability to apply various advanced quantitative methods and computer software in order to solve complex problems related to the field of renewable energy and sustainable technology.
A4 Demonstrate a critical understanding of commercial, social, and economic constraints in the pursuit of the implementation of renewable energy and sustainable technology objectives.
B1 Conceptual understanding to evaluate critically current research and advanced scholarship in the field of renewable energy and sustainable technology; and evaluate methodologies and develop critiques of them and, where appropriate, to propose new hypotheses
B2 Demonstrate creative analytical and innovative skills when problem solving with the ability to propose technical and non-technical solutions and critically evaluate these solutions.
B3 Deal with complex issues both systematically and creatively, make sound judgements in the absence of complete data, and communicate their conclusions clearly to specialist and non-specialist audiences
C1 Apply creativity in the use of design standards, guides and various tools in the design and decision making process.
C2 Demonstrate an appreciation of other relevant disciplines and professions closely associated and interacting with the field of renewable energy and resource management.
C3 Demonstrate an appreciation of and be able to apply project management tools and techniques.
C4 Demonstrate an understanding of and be able to use technical literature and information sources.

Course Structure

Level 7 Modules

Module Code Module Id Module Title Module Status Credit Value Module Type
RE4S006 MOD004279 Energy and Environmental Policy and Legislation Running 20 optional
RE4S010 MOD011585 Hydro, Tidal, Wave, and Wind Running 20 optional
RE4S011 MOD011586 Solar, Heat, and the Grid Running 20 optional
RE4S012 MOD011587 Bioprocesses for a Circular Economy Running 20 optional
RE4S013 MOD011588 Industrial Resource Recovery Running 20 optional
RE4S014 MOD011589 Hydrogen Energy Running 20 optional
RE4T002 MOD011590 Dissertation Running 60 core

Teaching and Assessment


Learning and Teaching Methods

Lectures provide the theoretical background to enable students to complete their assessments successfully and attain the learning outcomes for each module.Tutorials are used mostly in the taught part of the dissertation module to introduce and discuss various data analysis methods within the group before then developing into the individual project supervision process later in the year.Group-work is carried out by students in RE4S006. This enable students to learn about managing large tasks, delegation, teamwork, andProject supervision enables staff to provide support, encouragement, and advice to students on their dissertation project work.Practical classes in computer laboratories are used to develop IT skills and approaches to systems modelling to assist students with the completion of assessed work, and provide them with understanding and confidence that may encourage them to carry out modelling work as part of their dissertation.Students who undertake practical work for their dissertation are provided with training on the techniques, processes, and equipment that they will be required to use to help them gain confidence and an ability to work independently in the collection of their data.Site visits are used to place the taught material into context and enable students to have access to practicing engineers and scientists in the field of renewable energy and sustainable technology.Independent study broadens learning through reference to flexible learning materials available via the Virtual Learning Environment, set Library texts, journal papers and electronic sources. It includes the completion of course work assignmentsFormative assessment is integrated in to the assessment schedule of the taught modules. This allows students opportunity to gain feedback on their progress through their work before submitting their summative assessments. This gives students confidence that they understand the expectations of the staff and the marking structure and submission systems of the course.

Employer Engagement

A range of professionals from industry (e.g. RES, Dwr Cymru Welsh Water, Natural Resources Wales etc.) have offered, or will be approached to deliver guest lectures as part of the MSc course. We will also take advantage of the accreditation of the course by the Energy Institute to source speakers and promote external talks and events to the students.

Field trips are integrated into the taught modules. For example, visits to Dwr Cymru Welsh Water operated sites, or wind farms where we have links through our alumni; demonstrate to the students, possible employment pathways, whilst putting the theory taught in lectures into a practical industrial context.

Students may carry out their dissertation within the Sustainable Environment Research Centre where their projects will be linked to externally funded research projects supported by industry and SERC’s team of researchers. This provides students with the opportunity to engage with employers through a meaningful project that may have real impact.


Means of Assessment

Formative assessment is integrated in to the assessment schedule of the taught modules. This allows students opportunity to gain feedback on their progress through their work before submitting their summative assessments. This gives students confidence that they understand the expectations of the staff and the marking structure and submission systems of the course.

Group-work is carried out by students in RE4S006. This enable students to learn about managing large tasks, delegation, teamwork, and??

Practical classes in computer laboratories are used to develop IT skills and approaches to systems modelling to assist students with the completion of assessed work, and provide them with understanding and confidence that may encourage them to carry out modelling work as part of their dissertation.

Students who undertake practical work for their dissertation are provided with training on the techniques, processes, and equipment that they will be required to use to help them gain confidence and an ability to work independently in the collection of their data.



Learning Support

New and returning full and part-time students will attend induction sessions and activities in the first week of their course either in September, or February as required. The University’s Unilearn is used together with ICIS to provide access to the course handbook, module information, an assessment schedule and their timetable.

Staff are available to meet students when not teaching. Students are advised to speak to staff at the end of lectures, or to contact them via email to arrange a meeting.

The MSc REST is accredited by the Energy Institute, and students are encouraged to take advantage of the opportunity of free membership of the Energy Institute which provides them with opportunities to go to seminars arranged by the EI and engage with the EI young persons network and attend their events. Seminars are publicised to the students via Unilearn.

Each module has an element of formative assessment designed into its delivery program. This is to enable students to and staff to understand how the students are progressing through the course and to relieve assessment pressure by allowing students to become acclimatised to the level of study expected of them.

Each student will meet the course leader once a term to discuss progress.

The dissertation process begins at the start of the academic year and students are guided towards their proposal through one to one meetings with the dissertation module leader in the spring term to ensure they have a well defined set of aims and objectives before submission of their proposals. Each student will be allocated two project supervisors for their dissertation project and would typically be expected to meet their primary supervisor once a week for the duration of their project, either face to face or electronically (Skype/phone/email), depending on circumstance.

Teaching and coursework assessment materials are made available on-line through the University’s virtual learning environment (Unilearn).

Modern computing laboratories provide access to specialist resources. The University also has centrally-managed open-access laboratories for more general work. Each student has an academic e-mail account that is particularly useful when requesting support from teaching staff.

Staff email students via Unilearn to announce course and module related information.

The University operates advice zones located in the libraries of each campus. The Advice Zone supports students with anything that might affect their ability to study and achieve their goals. They help with both personal and academic issues. If they cannot help directly, they guide students towards the specialist support they need.

USW has a legal obligation to make reasonable adjustments in relation to education and services as required by disabled students. It does this through the use of individual support plans. The Disability Service provides information, advice and guidance to and co-ordinates support for USW students who have disabilities, including physical, sensory, mental health or unseen disabilities, specific learning difficulties (e.g. dyslexia) and autism. The Disability Service also has a key role in ensuring the University meets its commitment to providing an inclusive environment for disabled students.

Library Services provides a wide range of high-quality library and information services to USW students, academics and researchers.

IT Services provide students with their online student account (giving them access to email, printing and payments and more), Unilearn, open access to computers on each campus, printing services, and media equipment.

Course Exit Points

Award Criteria Final
Master of Science 180 credits of which at least 150 must be at Level 7 and no more than 30 at Level 6 Final
Postgraduate Certificate 60 credits with at least 40 at Level 7 and no more than 20 at Level 6 Exit
Postgraduate Diploma 120 credits of which at least 90 must be at Level 7 and no more than 30 at Level 6 Exit

Progression Route

Typically MSc graduates continue their careers in industry, or commence doctoral research.


Entry Requirements

Admission to the course is typically through the following qualifications:

A minimum 2:2 Honours degree in a science or engineering-related subject. Other applicants will be considered on an individual basis.

The course welcomes international applicants and requires an English level of IELTS 6.0 with a minimum of 5.5 in each component or equivalent.

International applicants further information:

Visa information


Inclusive Curriculum Statement

The University of South Wales operates a policy of inclusive learning, teaching and assessment to ensure that all students have an equal opportunity to fulfil their educational potential. Course teams will have considered ways of designing out any potentially disadvantageous element of courses during the course design process. However some specific needs may remain, details about how to apply to have your needs assessed can be found at: http://unilife.southwales.ac.uk/pages/3040-disability-and-dyslexia-service/


Addendum for Delivery at a Partner Institution

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Methods Of Quality Standards

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Quality Of Standards Indicators

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