The course consists of 120 credits of core modules, with an MSc project worth 60 credits, making a total of 180 credits.
Fundamentals of Additive Manufacturing (autumn): 20 credits
This is a two week intensive module. This module examines both the basic implementation and theory of Additive Manufacturing its translation into modern additive manufacturing techniques that are currently being researched and exploited within both academia and industry which result in net shape parts. The content of the module is as follows:
- Introduction and individual coursework setting
- Design and design systems for AM
- Integration aspects with 3D scanning
- Overview of the 7 ASTM AM processes
- Material Jetting
- Powder Bed Fusion
- Vat Polymerisation
- Material Extrusion
- Direct Energy Deposition
- Sheet Lamination
- Binder Jetting
- Commercial 3D Printing
- Experimental Systems for AM
- Materials Requirements for 3D Printing
- InkJet materials
- Software and systems
- Impact of AM and 3D Printing
- Case Studies of AM in Industry
- The Future of AM and 3D Printing
The module will be mainly delivered in an intensive week(s) of lectures and laboratory classes.
Group Grand Challenge (autumn): 40 credits
This module runs throughout the autumn semester. The module aims to provide the opportunity to work in small, multidisciplinary teams to address a grand challenge in the area of additive Manufacturing. Although some variation in content is expected due to the varying nature of the possible challenges, it is expected that a common project will take the following form:
- Discussion of challenge with the tutor and setting of challenge brief
- Literature review and fact finding
- Definition of challenge brief and setting of aims, objectives, deliverables, methodology and time-plan
- Experimental/theoretical/computational work
- Analysis and interpretation of results
- Presentation of results
In many cases the project will take the form of a design and make project in which the stages of the project will include the evaluation of alternative design concepts, engineering analysis, prototyping, performance evaluation and improvement.
Advanced Topics in Additive Manufacturing (spring): 20 credits
The module will be based on a number of topics of interest in research in additive manufacturing, which may change over time as the module is refreshed to reflect the current state of the art. Example topics to be included in the module programme include materials development for AM, in-situ and post process characterisation of materials and structures and computational methods for the modelling, design and optimisation of AM processes and parts.
Advanced Engineering Research Project Organisation and Design (spring): 10 credits
A project-oriented module involving a review of publications and views on a topic allied to the chosen specialist subject. The module will also involve organisation and design of the main project. Skills will be acquired through workshops and seminars that will include:
- Further programming in MATLAB and /or MSExcel Macros
- Project planning and use of Microsoft Project
- Measurement and error analysis
- Development of laboratory skills including safety & risk assessment
Students will select a further set of specialist seminars from, e.g.:
- Meshing for computational engineering applications
- Modelling using CAE packages
- Use of CES Selector software
- Specific laboratory familiarisation
- Use of MSVisio software for process flow
- Use of HYSYS process modelling software
- Use of PSpice to simulate analogue and digital circuits
The specialist seminars will be organised within the individual MSc courses.
Introduction to Metrology (spring): 10 credits
This is a one-week intensive module. The course provides cutting-edge lectures on a range of metrology topics for dimensional measurement of additive structures. Topics include introductory and advanced metrology lectures, and hands-on training in the use of measuring instruments. The lectures are designed to give a feel for the subject and why it is important, but do not cover difficult mathematical detail. The lectures will cover the following topics: Basics of measurement, terminology, SI units, uncertainty analysis, tolerance principles, length measurement, form measurement, coordinate measurement, x-ray computed tomography and surface texture measurement.
The module will be mainly delivered in an intensive week of lectures and laboratory classes.
Individual Postgraduate Project (summer): 60 credits
This project involves students undertaking an original, independent, research study into an engineering or industrial topic appropriate to their specific MSc programme. The project should be carried out in a professional manner and may be undertaken on any topic which is relevant to the MSc programme, as agreed by the relevant Course Director and module convenor.
The project has several aims, beyond reinforcing information and methodology presented in the taught modules; the student is expected to develop skills in research, investigation, planning, evaluation and oral and written communication. Final reporting will take the form of a written account including a literature review and an account of the students contribution. A presentation will be made to academic staff towards the end of the project.
Optional (one is required)
Advanced Materials (spring): 10 credits
MM4ADM is a module which requires personal engagement in the classes and there is no examination. In this way MM4ADM is like the Individual Project. MM4ADM has four cycles each comprising students individually preparing a talk, and report, on a topic within a theme and with a title that has been negotiated with the MM4ADM Teachers (Prof AB Seddon, Dr E Barney and Dr I Ahmed) straight after the Teachers have delivered an introductory lecture on that theme. The point of the module is to improve oral presentation and engineering report-writing skills using advanced materials as a vehicle. The classes are seminars where good practice is openly discussed and materials advantages and disadvantages are openly debated. Not to attend classes is not an option or failure of the module at the end is very likely to ensue. This module is designed to deal with a wide range of materials (including advanced metallic, ceramic, glass, composite and polymeric-based materials) for a wide range of applications. Also it considers materials themes such as: aerospace materials, medical materials, coatings, carbon-based materials and so on. The module deals with: the underlying principles behind the suitability of material properties for the targeted applications; the processing of these materials; the effects of processing on their subsequent structure and properties and ultimate performance.
Advanced Technology Review (spring): 10 credits
This module will initially look at new technology development and introduction focussing on innovation, funding and decision-making processes. The rest of the module will cover an engineering topic dealing with new and/or rapidly developing technologies with important applications. Coverage of each subject will typically include:
- a review of background and context, importance, and pressures driving development
- engineering principles, current research and development objectives and progress being made
- case study illustration(s)
- analysis of prospects, technology transfer, market applications, challenges and imperatives
Topics are selected each year to reflect current developments and issues; one or more topics may be changed each time the module is run. These topics will be associated with activities in major segments of manufacturing or service industries or of generic technologies. In each case, emphasis will be placed on review and analysis.
Materials Design Against Failure (spring): 10 credits
This module focuses on understanding and manipulating of materials microstructure to avoid failure. It addresses the main areas of mechanical failure using specific material system examples to illustrate how materials design is used to develop better materials for particular applications. The four areas are:
- Design for strength – metallic alloys, ceramics
- Design for toughness – metallic alloys (including discussion of strength/toughness balance for Al alloys)
- Design for creep resistance - metallic alloys
- Design for fatigue resistance
The modules we offer are inspired by the research interests of our staff and as a result may change for reasons of, for example, research developments or legislation changes. This list is an example of typical modules we offer, not a definitive list.