MEng Aeronautical Engineering

01 Aug 2025 - 31 Aug 2027

Course Leader Ilias Lappas
Course Team Darren Williams, Robert Warren, Ck Tan, Colin Morgan, Joao Ramos, Mohamed Mohamed, Shee-Meng Thai, Xiao Guo, Matthew Jones, Olusanjo Fadiya, Vishagen Ramasamy, Christian Hall
Awarding Body University of South Wales
Teaching Institutions University of South Wales
Modes of Study Full Time, Full Time Sandwich, Part Time

Document Version

Version 8
Valid From 01 Aug 2025
Valid To 31 Aug 2027

QAA Benchmarks

N/A

Educational Aim

The overall aim of this award is to produce an engineer with a specialist education related to aeronautical engineering who also has the versatility and depth of understanding necessary to deal with new and unusual problems of the aerospace industry. She/he should be imaginative, creative and able to implement change as well as providing technical leadership. Graduates from the MEng programme in particular are also expected to be capable of demonstrating managerial/ team leadership qualities. The awards contained within the scheme should produce high calibre engineering graduates who are;

Motivated to practice engineering and equipped to play leading roles in industry, the professions and public service.

Able to work independently and effectively, both as individuals and as part of a team, to design and develop solutions to meet engineering standards.

Recognised internationally as highly competent engineering graduates who possess the necessary management tools to support engineering decision making.

Aware of the current state of research and technological advancements in aeronautical engineering.

Aware of the financial, moral, legal, economic, environmental and cultural constraints and obligations under which they practice with particular emphasis on sustainability that impact on engineering decisions.

Enthusiastic, articulate, questioning and open minded

Committed to and prepared for continuous professional development & lifelong learning.

The MEng course had been designed to comply with the standards and expectations specified in the Engineering Council’s UK Standard for Professional Engineering Competence (UK-SPEC, 3rd edition), together with the latest RAeS Accreditation Guidelines (2018) for CEng accredited courses.

Learning Outcomes

A1 Appropriate mathematical methods
A2 Appropriate engineering science & technology
A3 General principles of design
A4 Research to support technical activities/solve problems
A5 Management and business practices
A6 Professional and ethical responsibilities including issues concerning sustainability & the environment
B1 Select and apply appropriate mathematical and/or computer based methods for modelling and analysing engineering problems
B2 Apply scientific principles to the development and analysis of engineering solutions
B3 Apply engineering technology to the development of solutions for engineering problems
B4 Evaluate the design of new processes or products through synthesis of ideas from a wide range of sources
B5 Produce engineering solutions which encompass technical risk evaluation
B6 Evaluate Business Risk
C1 Appropriate mathematical methods for modelling and analysing engineering problems
C2 Relevant test and measurement equipment including experimental laboratory work
C3 Engineering IT Tools
C4 Practical tools for the testing of synthesised engineering systems
C5 Information retrieval systems
C6 Apply engineering techniques taking account of industrial and commercial constraints

Course Structure

Level 4 Modules

Module Code Module Id Module Title Module Status Credit Value Module Type
AM1S50 MOD010118 Mathematics for Mechanical and Aeronautical Engineers Running 20 specified
NG1S206 MOD001273 Design and Manufacture Running 20
NG1S228 MOD001278 Engineering Mechanics 1 Running 20
NG1S242 MOD008372 Thermofluids 1 Running 20
NG1S234 MOD008968 Electrical Science Running 20
NG1S217 MOD008969 Engineering Computing Applications Running 20

Level 5 Modules

Module Code Module Id Module Title Module Status Credit Value Module Type
NG2S243 MOD010042 Engineering Materials Running 20 specified
NG2S254 MOD010513 Further Engineering Mathematics Running 20 specified
NG2S310 MOD008699 Aircraft Systems Integration and Performance Running 20 core
NG2S231 MOD001298 Control and Instrumentation Running 20
NG2S242 MOD008373 Thermofluids 2 Running 20
NG2S311 MOD008972 Aeronautical Design Running 20
GEPU203 MOD013664 Professional Practice and Sandwich Placement Running 120 specified

Level 6 Modules

Module Code Module Id Module Title Module Status Credit Value Module Type
NG3S238 MOD010121 Engineering Computational Analysis Running 20 specified
NG3S363 MOD012320 Propulsion Running 20 specified
NG3S310 MOD008973 Aircraft Structure Running 20
NG3D362 MOD012322 Integrative MEng Group Project Running 40
NG3S362 MOD012319 Aircraft Flight Dynamics Running 20

Level 7 Modules

Module Code Module Id Module Title Module Status Credit Value Module Type
NG4H245 MOD001340 Further Finite Element Analysis Running 10
NG4H246 MOD001341 Further Computational Fluid Dynamics Running 10
NG4H312 MOD008703 Aeroelasticity Running 10
NG4S311 MOD008976 Advanced Propulsion Running 20
NG4H218 MOD008977 Advanced Materials and Manufacture Running 10
NG4S258 MOD010514 Professional Engineering Management Running 20
NG4D241 MOD012323 Individual Project Running 40

Teaching and Assessment


Learning and Teaching Methods

Foundation Year in Aeronautical EngineeringIntegrated MEng & BEng (Hons) Degrees in Aeronautical Engineering with a Common First 3 YearsYear 0 modules are included in this programme to provide an appropriate educational background for those students who do not possess the normal entry requirements for the BEng (Hons) programme. Its content has an emphasis on developing the student’s proficiency in the base subject areas of mathematics and mechanical science, in addition to enhancing the individual development skills, including the use of computers.Year 1 modules are intended to provide students with the basic knowledge of routine mathematical methods, essential scientific principles and engineering practices associated with aeronautical engineering including an introduction to the use of design tools and general manufacturing/ workshop techniques, consequently an awareness of health & safety protocols. They are also taught in dedicated computer rooms on the use of industry standard CAD package and programming language. The aim is to develop the student CAD and programming skills at an early stage, and this will better prepare the students for later stage modules such as aeronautical design, group and individual projects, engineering computational analysis among others.Year 2 modules aim to further develop the student understanding and knowledge on key areas of aeronautical engineering, namely in the aspects of basic aerodynamics, flight behaviour and aircraft performance within the context of aeronautical design. Students will also develop an understanding on the necessary systems which are required and their integration to achieve sustained flight, supported by further mathematical treatment. Their learning process is further complemented through the teaching of complementary engineering subjects namely engineering materials, instrumentation & control and Thermofluids 2. The integrated group work on aircraft design should enable the students to develop a practical engineering base and an understanding on the regulatory/environmental requirements in the aviation industry. In addition, an appreciation of business practices, as applied to the various stages of the aircraft design and systems engineering will also be cultivated.Year 3 modules include an in-depth treatment of a coherent selection of technical subjects in flight dynamics, high speed aerodynamics, propulsion, aircraft structures, and the use of computational modelling techniques and their associated tools. This empowers the students to critically evaluate and analyse key challenges in aeronautical engineering. The individual project is seen as an opportunity for the student to carry out an extensive piece of work in a topic area usually of their own choice, over an extended period. This module further develops the creativity and innovative ability of the students. The written report, poster presentation and viva voce form a core learning experience. In addition, students are also expected to undertake a flight test exercise inside a single engine piston aircraft to further consolidate the academic teaching of flight dynamics which is supplemented by the use of an engineering flight simulator.Year 4 modules (at MEng level ONLY) aim to deepen and broaden the student’s technical knowledge in the key disciplines of aeronautical engineering namely development in new materials & manufacturing technology for aircraft/ components construction, aero-elasticity,broader case studies on the application of CFD & FEA, in addition to widening his/her appreciation on the leadership and managerial aspects of engineering business operation. A new autonomous flight systems module is proposed from 2021 that will bring the students in step with the current developments in this rapidly expanding sector of the aerospace industry. There is also asubstantial individual project which will further enhance the student’s ability to integrate their knowledge and understanding from all the learnt disciplines . This module also serves to further develop the student’s leadership skills.Formal teaching is delivered through classroom-based lectures supported by the appropriate support sessions namely tutorials, practical sessions, laboratory work, and or seminars. Software proficiency-based classes are conducted through the use of dedicated computer rooms and are coursework/ case study based. Project based work are carried out on a supervisory basis and students are expected to meet up regularly with their respective supervisors. Staff are making use of the BlackBoard virtual learning environment and for all modules this resource forms the major hub for students to access a wide variety of teaching materials such as course notes, tutorial questions and assignments, to support their learning process. The overall course delivery is supplemented by industrial visits and guest lecturers. The normal contact time between staff and student for a 20-credit module is 2 hours per week for 24-26 weeks, and that the estimated total student effort for each credit of study equates to 10 hours. Therefore, students are expected to carry out self-directed learning and preparation for exams/ assessments. Students must normally accumulate 120 credits to complete each year on the all the courses programme and the standard University-wide regulations apply

Employer Engagement

The subject area has an Industrial Advisory Group (IAG) which meets twice a year. This group had been consulted on the re-validation process, and discussions have been carried out for the proposed changes. As a result, their views had been taken on board in the development of the revised plan. The IAG also provides a forum which allows closer links between the industries represented and USW in terms of ongoing collaboration which includes support for research based project work, site visits, industrial guest lectures and student placements/ internships.


Means of Assessment

The assessment strategy reflects the requirements of the University’s academic blueprint and consists of a balanced array of assessment methods which had been carefully devised to measure the skill and competence of a student. As such assessments are designed to meet the learning outcomes of an individual module and therefore collectively within a coherent course structure, this satisfies the learning outcomes of the course as stipulated by the professional bodies. Means of assessment include formal unseen examinations, timed assignments, essays, reports, project work, group-based project work, independent projects, poster presentations and oral presentations.

Modules which are used to develop the student’s understanding of engineering principles are normally assessed through the formal year end examinations. These exams typically contribute between 50% and 70% of the available marks for the module, with the remainder being allocated to practical, assignment work or test. The design, project (individual and group) and computer-based modules are 100% coursework assessed. At all five levels of assessments, the examinations are normally three hours duration for a 20 credit module.

Oral presentations are utilised through all levels, particularly in design, individual and group-based project modules. This addresses the workplace/ industry’s requirement for engineers to be able to confidently present information across to an audience. Peer assessment is also used in the group based activities. In certain modules, phased class tests are used to gauge student engagement and prepare them for the final examination which normally carries a heavier weighting.

The assessment profile, together with its weighting and number of assessments (student workload), is presented for all levels in the later sections. The development of key skills is incorporated throughout the programme. It is located within the module descriptor and is related to the relevant assessments, as appropriate. The attainment level for each of the learning outcomes and key skills is indicated by the number of occurrences stated in the learning outcomes and key skills matrices. Students will experience a diverse and rewarding array of assessment procedures within their respective course of study.


Learning Support

Students undertaking taught modules within the subject area receive academic support from the module leader who liaises with the individual academic staff who might also be involved in the delivery to ensure consistency of both teaching and assessment. Students undertaking project based work/ modules which are largely self-directed receive academic guidance from the supervisor on a regular basis, typically weekly, to keep up with progress. Students are also encouraged to keep a logbook in order to help plan/ manage their work. A member of academic staff is also appointed to manage the allocation and overall running of projects, and to prepare samples for external verification.

Students on placement receive support from the industrial liaison and training officer, who assists with finding placement, provides advice on completing CVs and preparing for interviews, and subsequently provides support to the students when on placement. Students are visited at least once during their placement to discuss the University requirements with the respective on-site work placement supervisor/ officer.

Additional support to enhance the students learning experience include;

• One week induction programme for new students.

• Student online induction schedule, course structure, learning timetables, University calendar year, assessment dates, and the University regulations.

• Online database which contains the syllabus, assessment plan, learning outcomes for modules on their course.

• Blackboard as an on-line source of learning information, and communication portal for modules.

• Student email accounts to facilitate communication with staff.

• Modern suite of labs with technician support for design based, project work.

• Open door policy of academic staff.

• Student Development and Study Skills Service providing help with referencing & study skills for example. • Grad Edge – http://gradedge.southwales.ac.uk offered by the University student services which provides advice/ help with preparing CVs, application and cover letters, job searching, work experience and volunteering

Course Exit Points

Award Criteria Final
Master of Engineering 480 credits of which at least 100 must be at Level 7 or above, 120 at Level 6 or above, 120 at Level 5 or above, 120 at Level 4 or above Final
Bachelor of Engineering (with Honours) Honours 360 credits, of which at least 100 must be at Level 4 (Certificate) or above, plus 120 credits at Level 5 (Intermediate) or above, plus 120 credits at Level 6 (Honours) or above. Exit
Bachelor of Engineering (Unclassified) 300 credits, of which at least 100 must be at Level 4 (Certificate) or above, plus 120 credits at Level 5 (Intermediate) or above plus a further 60 credits at Level 6 (Honours). Exit
Diploma of Higher Education 240 credits, of which at least 100 must be at Level 4 (Certificate) or above, plus 120 credits at Level 5 (Intermediate) or above. Exit
Certificate of Higher Education 120 credits of which at least 100 credits must be at Level 4 (Certificate) or above. Exit
Foundation Certificate in Higher Education 120 credits of which at Level 3 (access) or above. Exit

Progression Route

Foundation Progression to the BEng (Hons) Aeronautical EngineeringStudents are required to obtain a minimum of 100 credits with a typical Level 3 average of 60% at the Mathematics modules(Students who do not meet these requirements will be offered entry to the 1st Year of the BSc (Hons) Mechanical Engineering.Progression Threshold onto the MEngBEng (hons) Aeronautical Engineering students who typically achieve an overall weighted average of 60% and more at Year 2 will be offered the opportunity to transfer onto the MEng course.


Entry Requirements

Admission to the course is typically through the following qualifications:

The arrangements for admissions will seek to ensure equality of opportunity for all applicants.

The University Regulations on Admissions (A.2.3) as defined in the “Regulations for Taught Courses” will be adopted wherever possible. It will be expected that anyone admitted onto an award will be able to fulfil the objectives and standard of the award.

Evidence will be sought of an applicant's professional and/ or educational experiences that provide indications of ability to meet the demands of the programme.

In general, international applicants will need to have achieved an overall IELTS grade of 6.0 with a minimum score of 5.5 in each component.

The entry criteria below shows the qualification range within which the University will make offers. Most offers we make are at the top of the range, but we take all aspects of an application into consideration and applicants receive a personalised offer. Combinations of qualifications are acceptable and other qualifications not listed here may also be acceptable.

Typical A-Level Offer

BCC - CDD to include Mathematics and one other Science subject (this is equivalent to 104-80 UCAS tariff points).

Typical Welsh BACC Offer

Pass the Advanced Welsh Baccalaureate Diploma with Grade C/D in the Skills Challenge Certificate and BC - CD at A Level to include Mathematics and one other Science subject (this is equivalent to 104-80 UCAS tariff points).

Typical BTEC Offer

BTEC Extended Diploma Distinction Merit Merit - Merit Merit Pass in a relevant Maths, Science or Engineering subject which must include Maths modules (this is equivalent to 112-80 UCAS tariff points).

Typical IB Offer

Pass the International Baccalaureate Diploma with a minimum score of 29 overall including a score of 5 in Mathematics and one other Science subject at Higher Level. You will also need to obtain a score of 5 or above in English at standard level.

Typical Access to HE Offer

Pass an Access to HE Diploma in Maths, Science or Engineering and obtain a minimum of 80 UCAS tariff points This programme can demonstrate its quality through: Internal moderation Annual Reports by the External Examiner Annual monitoring Faculty Quality Assurance Committee auditors Student feedback Investors in People status Highly supportive QAA institutional audit Quality of degrees awarded in the subject area. Industrial Advisory Committee Industrial prizes awarded to achieving students Consistent NSS scores . Indicators of quality and standards:

Additional Requirements

GCSEs: The University normally requires a minimum 5 GCSEs including Mathematics/Numeracy and English at Grade C or Grade 4 or above, or their equivalent, but consideration is given to individual circumstances.


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

N/A


Methods Of Quality Standards

A: Mechanisms for review and evaluation:

Module reviews (student feedback questionnaires)
Annual Programme review
Periodic review which includes external panel members
Annual staff appraisal
Annual Monitoring and Evaluation Reports
Award / Subject External examiner reports
Reflection on Academic Practice
Faculty Learning, Teaching & Student Experience committee

B: Committees responsible for monitoring and evaluation

Programme board
Faculty Quality Assurance Committee
Quality Audit Committee
Staff/student liaison committee
Annual monitoring meeting
Subject Boards
Subject and Programme Examination Boards, with reporting annually by the External Examiner.

C: Mechanisms for gaining student feedback

National Student Survey
Student representation on Programme Board
Student Feedback Questionnaires
Meetings between campus based and partner institutions

D: Staff development activities to improve the programme

Providing resources for research, consultancy and scholarly activities, including attendance / presentation at conferences, seminars and workshops in UK and oversees
Providing resources for purchase of supporting educational material
Enabling links with Professional Institutions and industry
Annual staff appraisal to identify both individual and broader staff development needs contributing to Investors in People status.
University provision of basic staff development courses.


Quality Of Standards Indicators

This programme can demonstrate its quality through:

Internal moderation
Annual Reports by the External Examiner
Annual monitoring
Faculty Quality Assurance Committee auditors
Student feedback
Investors in People status
Highly supportive QAA institutional audit
Quality of degrees awarded in the subject area.
Industrial Advisory Committee
Industrial prizes awarded to achieving students
Healthy NSS scores (> 90%) in 2010.