Leading engineers are using cutting-edge computational design techniques to transform our world. The latest simulation software can give accurate insights into how innovative design ideas will work in practice. Effective modelling is vital in many industries including the automotive, aerospace and bioengineering sectors. We offer an exciting postgraduate degree in Computational Engineering Design covering the latest techniques and methods, taught by lecturers who are also active researchers working with industry.
The MSc Computational Engineering Design is a one-year masters degree. The course covers the latest techniques, methods and simulation software to give accurate insights into how innovative design ideas will work in practice and how to work effectively with industry.
Computational modelling is crucial for many industries, from bioengineering to automotive and aerospace. You will learn to use various software tools to assess the feasibility of designs. We also teach you to use advanced numerical methods and apply design search and optimisation principles to solve design problems.
The year will be divided into two semesters. Each semester, you will study core modules as well as choosing specialist modules that interest you, from Aircraft Structural Design to Engineering Design with Management.
The last four months will centre on research. You will have the chance to complete a significant research project under the guidance of our prestigious Computational Engineering and Design Research Groupwho have strong links with academia and industry.
The course will equip you with the specialist knowledge and practical skills for a professional career or further research in computational engineering design.
Visit our website for more information on fees, scholarships, postgraduate loans and other funding options to study Erasmus Mundus Computational Mechanics at Swansea University - 'Welsh University of the Year 2017' (Times and Sunday Times Good University Guide 2017).
Swansea University has gained a significant international profile as one of the key international centres for research and training in computational mechanics and engineering. As a student on the Master's course in Erasmus Mundus Computational Mechanics, you will be provided with in-depth, multidisciplinary training in the application of the finite element method and related state-of-the-art numerical and computational techniques to the solution and simulation of highly challenging problems in engineering analysis and design.
The Zienkiewicz Centre for Computational Engineering is acknowledged internationally as the leading UK centre for computational engineering research. It represents an interdisciplinary group of researchers who are active in computational or applied mechanics. It is unrivalled concentration of knowledge and expertise in this field. Many numerical techniques currently in use in commercial simulation software have originated from Swansea University.
The Erasmus Mundus MSc Computational Mechanics course is a two-year postgraduate programme run by an international consortium of four leading European Universities, namely Swansea University, Universitat Politècnica de Catalunya (Spain), École Centrale de Nantes (France) and University of Stuttgart (Germany) in cooperation with the International Centre for Numerical Methods in Engineering (CIMNE, Spain).
As a student on the Erasmus Mundus MSc Computational Mechanics course, you will gain a general knowledge of the theory of computational mechanics, including the strengths and weaknesses of the approach, appreciate the worth of undertaking a computational simulation in an industrial context, and be provided with training in the development of new software for the improved simulation of current engineering problems.
In the first year of the Erasmus Mundus MSc Computational Mechanics course, you will follow an agreed common set of core modules leading to common examinations in Swansea or Barcelona. In addition, an industrial placement will take place during this year, where you will have the opportunity to be exposed to the use of computational mechanics within an industrial context. For the second year of the Erasmus Mundus MSc Computational Mechanics, you will move to one of the other Universities, depending upon your preferred specialisation, to complete a series of taught modules and the research thesis. There will be a wide choice of specialisation areas (i.e. fluids, structures, aerospace, biomedical) by incorporating modules from the four Universities. This allows you to experience postgraduate education in more than one European institution.
Modules on the Erasmus Mundus MSc Computational Mechanics course can vary each year but you could expect to study the following core modules (together with elective modules):
Numerical Methods for Partial Differential Equations
Advanced Fluid Mechanics
Finite Element Computational Analysis
Entrepreneurship for Engineers
Finite Element in Fluids
Nonlinear Continuum Mechanics
Computational Fluid Dynamics
Dynamics and Transient Analysis
Reservoir Modelling and Simulation
The Erasmus Mundus Computational Mechanics course is accredited by the Joint Board of Moderators (JBM).
The Joint Board of Moderators (JBM) is composed of the Institution of Civil Engineers (ICE), the Institution of Structural Engineers (IStructE), the Chartered Institution of Highways and Transportation (CIHT), and the Institute of Highway Engineers (IHE).
This degree is accredited as meeting the requirements for Further Learning for a Chartered Engineer (CEng) for candidates who have already acquired an Accredited CEng (Partial) BEng(Hons) or an Accredited IEng (Full) BEng/BSc (Hons) undergraduate first degree.
See http://www.jbm.org.uk for further information.
This degree has been accredited by the JBM under licence from the UK regulator, the Engineering Council.
Accreditation is a mark of assurance that the degree meets the standards set by the Engineering Council in the UK Standard for Professional Engineering Competence (UK-SPEC). An accredited degree will provide you with some or all of the underpinning knowledge, understanding and skills for eventual registration as an Incorporated (IEng) or Chartered Engineer (CEng). Some employers recruit preferentially from accredited degrees, and an accredited degree is likely to be recognised by other countries that are signatories to international accords.
On the Erasmus Mundus MSc Computational Mechanics course, you will have the opportunity to apply your skills and knowledge in computational mechanics in an industrial context.
As a student on the Erasmus Mundus MSc Computational Mechanics course you will be placed in engineering industries, consultancies or research institutions that have an interest and expertise in computational mechanics. Typically, you will be trained by the relevant industry in the use of their in-house or commercial computational mechanics software.
You will also gain knowledge and expertise on the use of the particular range of commercial software used in the industry where you are placed.
The next decade will experience an explosive growth in the demand for accurate and reliable numerical simulation and optimisation of engineering systems.
Computational mechanics will become even more multidisciplinary than in the past and many technological tools will be, for instance, integrated to explore biological systems and submicron devices. This will have a major impact in our everyday lives.
Employment can be found in a broad range of engineering industries as this course provides the skills for the modelling, formulation, analysis and implementation of simulation tools for advanced engineering problems.
“I gained immensely from the high quality coursework, extensive research support, confluence of cultures and unforgettable friendship.”
Prabhu Muthuganeisan, MSc Computational Mechanics
Study a degree which develops your arts practice through the expressive world of creative computation. The Masters provides you with the historical foundations, frameworks and critical skills to produce a series of projects for public exhibition.
Computation consists of all the changes brought about by digital technology. Art is an open set of ways of acting inventively in culture. Mixing the two together in a systematic way gives us computational art. This is a very open field, and one that is set to expand enormously in the coming years. It is where the most exciting developments in technology and in culture can already be found. This degree will place you in the middle of this fast-evolving context.
This degree develops your arts practice through the expressive world of creative computation. Over a two years (full-time) or four years (part-time) you will develop your artistic work and thinking through the challenge of developing a series of projects for public exhibition which will explore the technological and cultural ramifications of computation.
Since computational artworks don’t necessarily involve computers and screens, we also encourage students to produce works across a diverse range of media. Supported by studio technicians in state-of-the-art facilities, our students are producing works using tools such as 3D printers, laser cutters, robotics, wearable technologies, paint, sculpture and textiles.
You will also study contextual modules on computational art and the socio-political effects of technology. Modules provide students with the historical foundations, frameworks, critical skills and confidence to express their ideas effectively. You will have the opportunity to learn the cultural histories of technology, to reflect on computation in terms of its wider cultural effects, and to understand the way in which art provides rigorous ways of thinking.
Through our masterclass series, we regularly invite world-class artists and curators to explain their work and engage in critical dialogue with the students. This allows you to develop a wider understanding of the contemporary art scene and how your work sits within the professional art world.
As well as the MFA, we also offer an MA in Computational Arts. The MA is 1 year (full-time), the MFA 2 years (full-time).
The first year of the MFA is identical to the MA. You take the same classes and you learn the same things. The differences between the two courses is that in the MFA you get a 2nd year in which you take additional courses which help you develop your arts practice further. These courses mean that you get a space to work under a tutor's supervision.
Year 1 shares the same core learning as our MA in Computational Arts programme:
The follwing are core modules:
You may then pick modules of your own choice from the optional modules listed below:
In year 2 you will study the following:
In Year 2 you will be assessed by: self-evaluation report of 2,500 words; essay of up to 6,000 words; viva voce; exhibition of final work.
The programme will equip you with a broad training in the use of creative computing systems that are currently most important in artistic, design and cultural practices and the creative industries, as well as technologies that are yet to emerge.
Find out more about employability at Goldsmiths.
This course addresses the need for creative professionals who are equipped with the IT skills, digital fabrication skills, simulation software skills, or the ability to design custom-software development tools to solve unique design problems.
This course addresses the need for creative professionals who are equipped with the IT skills, digital fabrication skills, simulation software skills, or the ability to design custom-software development tools to solve unique design problems. Our multidisciplinary approach will provide students with the knowledge and skills to discover innovative computational methods for use in the creative and design industries. In particular, we will look at form-finding using parametric and generative methods, preparing digital information for further rigorous analysis, and integrating the logic of digital fabrication into the early stages of design.
You will be taught by experts across the subjects of architecture, computer science and engineering, which will give you a distinctly interdisciplinary approach to looking at design.
The ethos of the course is based on the concept of rigorous creativity where algorithmic thinking, systematic parametric design, analytic methods, creative intuition and tectonic sensibilities are integrated into a more innovative design outcome than traditional methods currently allow.
During the course, you will be able to develop and specialise in areas of interest to you through a range of optional modules and your choice of dissertation topic. Topics you may specialise in include algorithmic thinking in parametric design and form-finding, performance-based design and analysis, or design for digital fabrication.
We aim to provide an exceptional environment for computational methods in architecture education and reflect our current research strengths and interests. This programme has been carefully designed to enable you to realise your maximum potential. We aim to deliver expert teaching, and comprehensive pastoral care.
The methods of teaching we employ will vary from module to module, as appropriate depending on the subject matter and the method of assessment. We teach using a mixture of lectures, seminars, workshops, and one-on-one and group tutorials. Lectures will explain overall concepts, seminars and workshops will guide you through the technical aspects of the module, and one-on-one and group tutorials will answer questions and help you with your project. Teaching also includes the provision of online learning materials as appropriate to the module.
The dissertation element of the programme is conducted through the process of design, continuing on from your taught modules completed in the first part of the course. We advise that you continue to meet with your tutor on a weekly basis. This is usually followed by a period of reflection and writing where you will work independently under the guidance of your tutor and under the supervision of the programme leader or another member of the academic staff.
Whilst many of our graduates may choose to undertake a career within architecture or other built environment professions (e.g. engineering and construction, landscape, interior design), the programme provides a large number of transferable skills which will be of benefit across a wide range of professions.
The knowledge and skills gained in computational methods such as 3D modelling, rendering, animation, parametric design, digital fabrication, and building information modelling (BIM) are highly desired by employers from various industries who are seeking experts with IT skills. Examples include: furniture designers, jewellery design firms, graphic design firms, computer game development firms, and even movie and theatre set design firms. These companies regularly need IT skills, digital fabrication skills, simulation software skills, or custom-software development tools to solve unique design problems.
The focus on independent, project based learning as well as the ability to solve complex problems individually and in groups is often welcomed by employers in that it provides graduates with skills in creative thinking, conceptual organisation, critical reflection and taking initiative.
Digital technologies are rapidly changing the way buildings and urban spaces are designed, constructed and inhabited. On this course you'll learn the theoretical knowledge and technical skills required to produce innovative blueprints for architecture in the digital era.
The past decade has shown rapidly growing expectations for built spaces with capacity to respond dynamically to changes such as shifts in demographics, new and emerging technology, climate change and ageing populations. These are global challenges and opportunities which demand architects and designers with the ability to creatively shape the way that buildings, landscapes and cities age and adapt over time.
This course uses theoretical and practical study to examine how digital tools and processes can be developed and applied to design built environments with capacity for change. At Sheffield, we produce postgraduates well equipped to become future leaders in this field.
Graduates go on to careers leading future practice in the digital creative industries, architecture and urban design, digital technology development and environmental design consultancy. The course also fully prepares graduates who are interested in pursuing doctoral studies towards a PhD.
Learning is through studio-based design work with individual and group tutorials, block seminars, workshops and traditional lecture modules. You’ll be assessed on course assignments and examinations, design thesis and a dissertation.
With the skills to design buildings that meet environmental performance targets you can compete for work in international markets. Your study will include the building services and structural and architectural aspects of the built environment. The course prepares you for a career as a consultant engineer, sustainability consultant or researcher. This programme is only available for full-time study.
With the skills to design buildings that meet environmental performance targets you can compete for work in international markets. Your study will include the building services and structural and architectural aspects of the built environment.
The course prepares you for a career as a consultant engineer, sustainability consultant or researcher. This programme is only available for full-time study.
Our graduates work for top UK and international consultancies, contractors, regulators, universities and other private and public sector organisations.
Many of them join engineering consultancies, in roles such as Structural Engineer, Building Services Engineer and Sustainability Consultant. Some join architecture practices. Employers include Arup, Buro Happold, Capita Symonds, Roger Preston and Partners, Cundall and Foster and Partners.
Our laboratories are equipped to a very high standard:
Monitoring equipment for assessing the real-life performance of buildings: energy monitors, indoor environment monitors, heat flux monitors, thermal camera; wind tunnel suitable for assessing the impact of wind on urban forms at 1:200 scale.
Lectures, design tutorials, computational tutorials, lab work and industrial seminars.
All courses use lectures by academic staff and industrial partners, laboratory work, site visits, design projects and dissertation. Assessment is by formal examinations, coursework assignments and a dissertation with oral examination.
September–June: taught modules and preparation for your dissertation.
June–August: complete your dissertation.
Your research dissertation gives you the opportunity to work with an academic on a piece of research in a subdiscipline. We’ll give you training in research skills.
This course provides you with a balance of molecular biology, engineering, computing and modelling skills necessary for a career in synthetic biology. Computational design of biological systems is important as the field of synthetic biology grows. This allows the construction of complex and large biological systems.
While laboratory approaches to engineering biological systems are a major focus, the course specialises in computational design. This provides you with essential computing and engineering skills to allow you to develop software to program biological systems.
Our course is designed for students from both biological and computational backgrounds. Prior experience with computers or computer programming is not required. Students with mathematical, engineering or other scientific backgrounds are also welcome to apply. It is ideal if you are aiming for careers in industry or academia.
We provide a unique, multidisciplinary experience that is essential for understanding synthetic biology. The programme draws together the highly-rated teaching and research expertise of our Schools of Computing Science, Mathematics and Statistics, and Biology, as well as the Medical Faculty and the Institute of Human Genetics.
Research is a large component of this course. The emphasis is on delivering the research training you will need in the future to meet the demands of industry and academia effectively. Newcastle's research in life sciences, computing and mathematics is internationally recognised.
The teaching staff are successful researchers in their field and publish regularly in highly-ranked systems synthetic biology journals.
Our experienced and friendly staff are on hand to help you. You gain the experience of working in a team in an environment with the help, support and friendship of fellow students.
Your five month research project gives you real research experience in Synthetic Biology. You will have the opportunity to work closely with a leading research team in the School and there are opportunities to work on industry led projects. You will have one-to-one supervision from an experienced member of the faculty, supported with supervision from associated senior researchers and industry partners as required.
The project can be carried out:
-With a research group at Newcastle University
-With an industrial sponsor
-With a research institute
-At your place of work
We have a policy of seeking British Computer Society (BCS) accreditation for all of our degrees, so you can be assured that you will graduate with a degree that meets the standards set out by the IT industry. Studying a BCS-accredited degree provides the foundation for professional membership of the BCS on graduation and is the first step to becoming a chartered IT professional.
The School of Computing Science at Newcastle University is an accredited and a recognised Partner in the Network of Teaching Excellence in Computer Science.
You will have dedicated computing facilities in the School of Computing. You will have access to the latest tools for system analysis and development. For certain projects, special facilities for networking can be set up.
You will enjoy access to specialist IT facilities to support your studies, including:
You will have access to a Linux based website that you can customise with PHP hosting services.
We have moved to the new £58m purpose-built Urban Sciences Building. Our new building offers fantastic new facilities for our students and academic community. The building is part of Science Central, a £350 million project bringing together:
This new and unique course covers a wide range of applications focused on aerospace computational aspects. As mirrored by developments in the motorsport industry, within the next five years there will be a demand for engineers and leaders who will be using 100% digital techniques for aeronautical design and testing.
With its blend of skills-based and subject-specific material this course aims to provide students with generic practical skills and cutting-edge knowledge adaptable to the wide variety of applications in the field of aerospace computational engineering.
The part-time option is suitable for qualified engineers to extend their knowledge and incorporate CFD into their skill set.
This course aims to enhance your skills through a detailed introduction to the state-of-the-art computational methods and their applications for digital age aerospace engineering applications. It provides a unique opportunity for cross-disciplinary education and knowledge transfer in the computational engineering of fluid and solid mechanics for aerospace industrial applications. Focusing on fully integrated digital design for aerospace applications you will be able to understand and implement numerical methods on various computing platforms for aerospace applications. You will be able to meet the demand of an evolving workplace that requires highly qualified engineers possessing core software engineering skills together with competency in mathematical analysis techniques.
Sharing modules with the MSc in Computational Fluid Dynamics and the MSc in Computational and Software Techniques in Engineering this course gives you the opportunity to interact with students from other disciplines.
Our strategic links with industry ensures that all of the materials taught on the course are relevant, timely and meet the needs of organisations competing within the computational analysis sector. This industry led education makes Cranfield graduates some of the most desirable for companies to recruit. Our industrial partners support this course by providing internship, act as visiting lectures and deliver industrial seminars.
Following the first graduation, this course will seek to obtain accreditation from:
The taught modules are delivered from October to April via a combination of structured lectures, and computer based labs. Many of the lectures are given in conjunction with some form of programming, you will be given time and practical assistance to develop your software skills.
Students on the part-time programme complete all of the compulsory modules based on a flexible schedule that will be agreed with the course director.
The Group project is related to digital wind tunnel development.
The taught element of the course finishes in May. From May to September you will work full-time on your individual research project. The research project gives you the opportunity to produce a detailed piece of work either in close collaboration with industry, or on a particular topic which you are passionate about.
Taught modules: 80%, Group project: 40%, Individual Research Project: 80%
The MSc in Aerospace Computational Engineering is designed to equip you with the skills required to pursue a successful career working in the UK and overseas in computational aeronautic design and engineering.
Our courses attract enquiries from companies in the rapidly expanding engineering IT industry sector across the world who wish to recruit high quality graduates who have strong technical programming skills in industry standard languages and tools. They are in demand by CAD vendors, commercial engineering software developers, aerospace, automotive and other industries and research organisations, and have been particularly successful in finding employment.
Some of our graduates go onto PhD degrees. Project topics are most often supplied by individual companies on in-company problems with a view to employment after graduation – an approach that is being actively encouraged by a growing number of industries.
The Advanced Architectural Design MSc provides the resources for you to gain further skills in design architecture.
About this course
You will take one of our four course pathways:
The Computation pathway enables you to develop a world-leading and future-proof design portfolio. You will learn the key skills in programming and computational hardware. You'll develop building systems based on responsive and biological based materials, challenging you to think in a new way about computation.
You'll have access to the School’s state of the art workshops, including:
You will then be able to develop your own project based on your personal interests. You will be able to make use of our research resources and infrastructure to complete this project.
The Sustainable Buildings and Environments (SBE) pathway will enable you to gain proficiency in designing sustainable buildings and built environments.
You will be set the challenge of designing to reduce carbon footprint without compromising the socio-cultural and economic significance of your architectural designs.
Leading academics and practitioners in sustainable buildings design contribute to the course. They will demonstrate how sustainable thinking can inform live projects.
The course reflects how architectural design is multidisciplinary, relating to areas such:
It aims to create a new genre of architects. You will be able to:
The Property Development pathway is unique and specifically set up for designers. Architects bring distinctive skills to property development. They are able to:
However, designers rarely lead such developments and sometimes lack the knowledge and skills to do so. This programme addresses this by offering students an introduction to:
It concludes with a individual Dissertation or Design Research Project. This programme will suit those with a degree in architecture who are keen to use their distinctive design abilities and broaden their practice into property and development.
Architecture and Cities pathway
This pathway focuses on understanding the role of architectural design in the built environment. You will be able to relate buildings, and the spaces between them, to human needs. You'll also conduct detailed studies of particular urban communities. The course will concentrate on determining strategies of appropriate development for specific urban sites.
You will complete projects based on devising community based frameworks for selected sites in all three semesters. Some of the themes of the projects are:
Your final semester thesis is a major design project that provides you with an opportunity to elaborate significantly on these themes.
You will challenge preconceived notions of:
The first year of Architecture and Cities provides an unprecedented underpinning for the second year. You will share teaching with the Stage 5 of the MArch course. As part of this, you'll continue to explore the notion of the urban realm.
In the first semester of Year 2, you will focus on masterplanning and generating ideas from research of the city the studio is set in. In the second semester, you are asked to focus on the detail of the project, both technically and atmospherically. You will learn about the components below which buildings need to function and remain sustainable:
The School of Architecture, Planning and Landscape has excellent studio teaching facilities. Our facilities include:
Find out more about the School facilities, including virtual tours of some teaching spaces.
Get in at the bleeding edge of contemporary chemistry: theoretical and computational chemistry are marking the new era that lies ahead in the molecular sciences. The aim of the programme is to train scientists that are able to address a wide range of problems inmodern chemical, physical and biological sciences through the combination of theoretical and computational tools.
This programme is organised by:
The Erasmus Mundus Master of Theoretical Chemistry and Computational Modelling is a joint initiative of these European Universities, including KU Leuven and co-ordinated by the Universidad Autónoma de Madrid.
This is an initial Master's programme and can be followed on a full-time or part-time basis.
The programme is organised according to a two-year structure.
The Department of Chemistry consists of four divisions, all of which conduct highquality research embedded in well-established collaborations with other universities, research institutes and companies around the world. Its academic staff is committed to excellence in teaching and research. Although the department's primary goal is to obtain insight into the composition, structure and properties of chemical compounds and the design, synthesis and development of new (bio)molecular materials, this knowledge often leads to applications with important economic or societal benefits.
The department aims to develop and maintain leading, internationally renowned research programmes dedicated to solving fundamental and applied problems in the fields of:
Modern Chemistry is unthinkable without the achievements of Theoretical and Computational Chemistry. As a result these disciplines have become a mandatory tool for the molecular science towards the end of the 20th century, and they will undoubtedly mark the new era that lies ahead of us.
In this perspective the training and formation of the new generations of computational and theoretical chemists with a deep and broad knowledge is of paramount importance. Experts from seven European universities have decided to join forces in a European Master Course for Theoretical Chemistry and Computational Modelling (TCCM). This course is recognized as an Erasmus Mundus course by the European Union.
Graduates will have acquired the skills and competences for advanced research in chemical, physical and material sciences, will be qualified to collaborate in an international research team, and will be able to develop professional activities as experts in molecular design in pharmaceutical industry, petrochemical companies and new-materials industry.
In addition to commanding sound theoretical knowledge in chemistry and computational modelling, you will be equipped to apply any of the scientific codes mastered in the programme in a work environment, or develop new codes to address new requirements associated with research or productive activities.
You will have attained the necessary skills to pursue a scientific career as a doctoral student in chemistry, physics or material science. You will also be qualified to work as an expert in molecular design in the pharmaceutical industry, at petrochemical companies and in the new-materials industry. You will also have a suitable profile to work as a computational expert.