/ Undergraduate /

Architectural Engineering

BEng

Start date:

September 2025

Entry tariff:

112–128 UCAS points (or equivalent)

Foundation Year: 64–80 UCAS points (or equivalent)

UCAS code:

K230

On-Campus Open Day
Saturday 12 July 2025

Our Architectural Engineering programme offers a comprehensive education in engineering maths, science and technology, materials and environment and structures.

Did you know

We provide a world-class educational experience, with integration across disciplinary boundaries.

Top 3 modern university in London

(Complete University Guide 2025)

Ranked in the top 15% in the world

Times Higher Education Young University Rankings 2024

#8 in England for undergraduate student satisfaction

National Student Survey 2024

Foundation Year

This course can also be studied with a foundation year (September entry only).

Module overview: 

The aim of the module is to introduce the foundational principles of statics, dynamics and mathematics for engineering. It explores the different types of stresses that materials undergo and how these materials respond under the influence of such stresses. The module extends its focus to statically determinate structures, and their behaviour under various stress conditions. Additionally, a crucial aspect covered is the concept of structural stability, exploring the factors that contribute to the equilibrium and robustness of structures. 

The module places emphasis on the development of conceptual understanding of the physical world, including engineering artefacts and natural environmental processes, through the language of mathematics. It aims to reinforce and extend your understanding of core mathematical concepts used in the solution of engineering problems. You will develop proficiency in mathematical methods critical for engineering analysis and problem-solving. Recognising the pivotal role of quantitative reasoning in engineering, this module is designed to provide you with the necessary tools to analyse, model, and solve engineering problems

Furthermore, the module goes beyond theoretical frameworks and introduces practical considerations by addressing a variety of commonly used structural forms. Both qualitative and quantitative analyses are employed to describe the behaviour of these structures. Emphasis is placed on understanding complex states of stress within solids, and the intricacies of how materials respond when subjected to diverse and challenging stress patterns.

A significant facet of the module involves an exploration of the failure mechanisms inherent in materials. This includes an examination of the failure modes exhibited by both ductile and brittle materials. By scrutinising these failure mechanisms, the module equips you with the knowledge necessary to design structures that not only withstand various stresses but also maintain their integrity and safety over time. The teaching will include real life example of failure.  The module serves as a gateway to the understanding of the principles governing the behaviour of structures under different loading conditions, and preparing you for the challenges of structural engineering.

How you'll learn:

You will learn through lectures, seminars, examples classes, experimental laboratories and practical applications. Students will be assessed through in-class tests and laboratory activities. You will be introduced to risk assessments for safe working practices in laboratories.

Module overview: 

This module introduces you to the fundamental principles of construction technology and materials, focusing on their application in low-rise domestic buildings. It covers the mechanical and physical properties of materials, material selection for sustainability, and construction technology from foundations, walls, roofs and floors, together with building services.

How you'll learn:

You will spend time in our laboratories learning about the properties of different materials in terms of their strength and stability, and undertaking hands on, practical experiments. These experiments will be linked to your lectures and tutorials and many of the teaching weeks have classroom learning followed by lab sessions to consolidate your learning.

Module overview:

This module introduces you to the fundamental principles of environmental design and sustainability in architecture. It aims to develop an understanding of how buildings interact with the natural environment and how sustainable strategies can be integrated into architectural design to reduce environmental impact. You will explore climate-responsive design, as well as passive and active environmental control systems, alongside sustainable building materials and technologies.


Sustainability in architecture is becoming increasingly critical in response to global environmental challenges. This module will equip you with the essential knowledge and skills to design energy-efficient, climate-responsive, and environmentally responsible buildings. The content aligns with the growing industry demand for architects who understand ecological principles, resource efficiency, and sustainable construction practices. You will investigate the relationship between buildings and their environments, focusing on how architecture can positively contribute to mitigating climate change and enhancing the long-term resilience of the built environment.

How you'll learn:

This module serves as a foundation for higher-level studies in environmental architecture and sustainable design and supports the development of professional competencies required in architectural practice. Through a blend of theoretical knowledge and practical applications, you will develop a critical approach to integrating sustainability principles into architectural projects, preparing them for contemporary and future design challenges.

Module overview:

This is the first in a series of Interdisciplinary Design Projects that continue in each year of the programme. The module integrates the skills and knowledge acquired on the programme to date.  However, it goes beyond that in terms of integration in as much as you will work within interdisciplinary groups from across the SETEC undergraduate programmes.  Further, as the programme gains new cohorts, you will also work with students in ‘vertical’ cross-cohort disciplinary groups where you are given the opportunity for peer-to-peer learning.

The aim is to begin developing skills in design through a series of design tasks that require the development of a range of options that would satisfy the design problem, and introduce the ways that professionals work collaboratively in design. These projects will usually be related to one of the key contexts adopted by SETEC, e.g. the UN Sustainable Development Goals and industry collaboration. The modules, and the ensuing design modules provide the basis for a continuing process of self-reflection and personal development.

A design brief will be set that introduces you to challenges that provide context for design, construction and operation/maintenance of built environment artefacts. You will work in inter-disciplinary (and vertical cohort disciplinary where appropriate) teams, to identify and produce a concept design. You will learn about creativity in design, effective processes for rationalising ideas and solutions, how to integrate and balance professional roles and perspectives, and effective teamwork and communication of possible design solutions.

It will involve elements of design including form, function, space texture, balance, rhythm, emphasis, proportion and unity. It will involve producing designs expressed in hand drawings and computer aided drawings and physical models. It will also require plain language concise descriptions of the problem, the design process and the outcome design.

How you'll learn:

There will be taught elements by either lecture or seminar / workshops which include an introduction to ethics, equality and diversity, project planning, site layout, risk management, environmental assessment, Health and Safety management techniques, searching for relevant literature, summarising literature, writing of technical prose and critical thinking.

Please note, these modules may be subject to change.

Module overview:

This module focuses on integrating digital technologies to enhance the design, construction, and operation of buildings, with a specific emphasis on understanding and reducing embodied carbon, as well as the integration of building services systems, district heat networks, and renewable energy solutions. You will explore core areas such as digital engineering principles, the effective use of BIM MEP tools for project management, and simulation techniques for energy performance and environmental impact analysis, including renewable energy systems.

You will use industry-standard software like IES , EDSL TAS, and DesignBuilder to analyse building energy use, improve designs, and ensure compliance with key sustainability certifications such as BREEAM, LEED, and WELL. Moreover, you will gain the skills to evaluate embodied carbon through methodologies centered on building services, empowering you to assess and reduce the carbon footprint of materials and construction processeswhile also examining the role of renewable energy technologies and district heat networks in reducing overall energy consumption and carbon emissions.

The programme will prepare you to leverage digital tools to create innovative solutions within the built environment, integrating building services systems and renewable energy strategies to reduce the environmental impact across the entire life cycle of a building. A project-based approach will drive the delivery of learning and teaching.

How you'll learn:

The module will be taught through a combination of lectures, structured tutorials, and group exercises. You are expected to participate in hands-on activities, with attention given to health and safety considerations.

You will analyse case studies based on real industrial projects, reviewing energy efficiency, building services integration, and embodied carbon through literature and relevant research data. International standards and trade literature will be referenced for material specification.
Case studies, site visits, and interactions with industry practitioners will offer you exposure to real-world situations, helping you make informed decisions regarding material selection, renewable energy applications, and sustainable design practices.

Module overview:

The module builds upon the knowledge and understanding developed from the level 4 Construction Science, Technology and Materials 1 with a focus on the technology of high-rise frame construction and new methods of construction. You will develop a deeper understanding of contemporary construction technology principles in complex buildings including basements, their future adaptation and refurbishment options.  

It addresses the superstructure to include types of frames and their different envelope systems and complex building services. The flexibility of the internal space and finishes is explained with the associated technology, including fire and life safety. It covers the safe disposal of buildings with consideration given to sustainability. Safe working practices are considered in the introduction to each element of construction technology as emphasised by the relevant code of practice.
Sustainability considerations will be integrated throughout the module, particularly in discussions on demolition waste disposal, alternative materials, and energy-efficient design.

How you'll learn:

By engaging with this module, you will develop analytical and problem-solving skills applicable to careers in architectural technology, construction project management, and sustainable engineering.

Module overview:

This module introduces the integration of structural design within architectural practice, with a strong emphasis on sustainability, material efficiency, and whole-life carbon assessment. Through a combination of theoretical knowledge and practical application, you will explore, develop, and refine your understanding of key structural principles, common engineering materials, and their performance characteristics in both low-rise and mid-rise buildings. The module aims to provide you with the skills and knowledge to align structural and architectural design to create efficient, durable, and sustainable built environments.

A core focus of the module is the study of engineering materials, including timber, concrete, and steel, where you will investigate, analyse, and assess their properties, structural performance, and environmental impact. You will examine how these materials contribute to strength, equilibrium, geometric stability, and rigidity in architectural structures. The module also emphasizes life cycle assessment (LCA) of materials, enabling you to evaluate their environmental footprint from extraction to disposal. You will engage with industry-standard methodologies, such as the RICS Professional Guidance on Whole Life Carbon Assessments and the IStructE Whole Life Carbon Guidance, to develop expertise in assessing and reducing the carbon impact of structural design.
The module covers structural elements, components, and systems used in the construction of low-rise residential buildings and mid-rise commercial and industrial structures. You will discover construction methods that enhance structural efficiency and sustainability, examine how different materials behave under various conditions, and gain hands-on experience in physical building modelling sessions to measure material properties and their relationship with real-world performance.

How you'll learn:

A project-based learning approach will be central to this module, incorporating lectures, structured tutorials, group exercises, and physical model work. You will engage with case studies, site visits, and industry professionals, applying practical knowledge in material selection and structural efficiency. You will also enhance your digital skills, including basic 2D/3D CAD modelling and sketching to visualize structural components.

Module overview:

In this module you will apply the knowledge and skills acquired at Level 4 and during Level 5 to a multi-faceted design problem of a building or part of one, develop holistic design thinking, further embed approaches to design that are sustainable and carbon neutral, in particular novel materials, timber and reused or recycled steel and carbon accounting for construction, and to continue with self-reflection and collaborative practices with other disciplines. Further, the project will usually be related to one of the key contexts adopted by SETEC, e.g. the UN Sustainable Development Goals and industry collaboration. Further, where appropriate, you will also work with other students in ‘vertical’ cross-cohort disciplinary groups where you are given the opportunity for peer-to-peer learning.

The content is delivered in the context of a design project in which you play the role of a professional within your discipline within a broader design team. This module employs an experiential learning approach, integrating problem-based learning (PBL) and collaborative, interdisciplinary teamwork to simulate professional practice.

You will present your design appropriately using hand-drawn sketches, computer generated graphics, computer aided drawings, physical models, calculations, specifications, and bills of materials/ quantity. You will be developing your knowledge of computer assisted design and engineering in context and its value in terms of optimisation and parametric design.

How you'll learn:

The project has an individual component and a groupwork component. A combination of tutorial and design studio sessions will be used to generate the designs and track progress.

You will continue your planning and recording of self-learning and development as the foundation for lifelong learning / CPD. This will be continued within each Interdisciplinary Design Project at each level of the course.

Please note, these modules may be subject to change.

This course offers all students the option of a one-year paid work placement, to boost your employability even further. If you choose this route, you will take the placement following year two of your course, and then return to complete your degree.

Why take a placement?

A placement year is the perfect opportunity to gain valuable work experience, to build on the career skills we will teach you on this degree. The connections you make on the placement will improve your career prospects further, and equip you with the skills you need to secure graduate-level employment.

How we support you

The University's Placement and Work Experience Team are experts at helping you to secure a placement. They will work closely with you from the start, helping you research potential employers, discover placement opportunities, create and pitch your CV, and will coach you to perform well in interviews. We aren't able to guarantee a placement, but our sector-leading advisors will give you the best possible chance of securing one.

Find out more about how we'll support you

We understand that your plans might change once you start your programme. If you decide not to do a placement, you will have the option of completing the three year version of your programme.

Whatever your choice, you will have access to many opportunities for work experience through our Placement and Work Experience Team, and access to face-to-face and 24/7 online careers support.

Module overview:

This Level 6 module delves into advanced methodologies and technologies for optimizing building performance and sustainability. Focusing on the integration of Building Information Modelling (BIM), you will learn about clash detection techniques that help identify and resolve conflicts between various building systems during the design phase, thereby enhancing collaboration and reducing costly changes during construction.

You will engage with advanced building modelling tools that facilitate comprehensive performance simulations, allowing for detailed assessments of energy usage, thermal dynamics, and environmental impacts. The module will also cover Computational Fluid Dynamics (CFD) wind analysis, equipping you with the skills to analyse airflow patterns, assess natural ventilation strategies, and evaluate their effects on occupant comfort and energy efficiency.

A significant aspect of this module will be the application of assessment of operational energy , which outlines methodologies for operational energy performance evaluation. You will gain insights into how to measure and improve the energy efficiency of buildings throughout their lifecycle, ensuring that designs meet both regulatory standards and sustainability goals.

Additionally, you will explore CIBSE TM65 methodologies for evaluating embodied carbon in building materials and construction processes. This knowledge will empower you to assess and minimize the environmental impact of your design decisions, promoting sustainable practices in the built environment.

Moreover, the module will introduce the concept of digital twins, which involves creating virtual replicas of physical buildings to monitor performance in real-time. You will learn how digital twins can be utilized for ongoing building management, energy optimization, and predictive maintenance, enhancing the lifecycle performance of built assets.

How you'll learn:

The module will be delivered through a combination of theoretical lectures, practical workshops, and project-based learning, allowing you to apply advanced modelling techniques to real-world scenarios. You will analyse case studies, develop innovative solutions, and collaborate with peers to enhance your understanding of complex building performance challenges.

Module overview:

This Level 6 module explores advanced methodologies and technologies for optimizing building performance and sustainability, with a specific focus on ultra-low energy solutions such as Passivhaus and Minergie, thermal bridge calculations, and air quality assessment. You will gain insights into the principles of ultra-low energy design, emphasizing strategies that ensure energy efficiency and a comfortable indoor environment.

You will engage with advanced building modelling tools that facilitate comprehensive performance simulations, allowing for detailed assessments of energy usage, thermal dynamics, and environmental impacts. A significant emphasis will be placed on thermal bridge calculations, enabling you to identify potential thermal weaknesses in building envelopes and implement effective mitigation strategies.

A key aspect of this module will be the assessment of air quality, particularly the importance of evaluating volatile organic compounds (VOCs). You will learn how to analyse indoor air quality parameters and understand the implications of VOCs on occupant health and comfort. The module will guide you in assessing ventilation strategies that effectively reduce VOC concentrations and enhance overall environmental quality in buildings.

In terms of practical experience, you will participate in thermal imaging surveys to visually assess building performance and identify areas of heat loss or thermal bridging. This hands-on experience will enhance your understanding of how these assessments can inform design improvements and energy efficiency strategies.

How you'll learn:

The module will be delivered through a combination of theoretical lectures, practical workshops, and project-based learning, allowing you to apply advanced modelling techniques to real-world scenarios. You will analyse case studies, develop innovative solutions, and collaborate with peers to deepen your understanding of complex building performance challenges.

Module overview:

This module provides you with the opportunity to independently investigate a selected topic of interest in a built environment related issue, and the scope may include, if appropriate, the development of a design. The design option is for students of who would like to carry out an individual design project and is primarily aimed at students who are enrolled on programmes that involve some level of design discipline. You will need to take responsibility for managing your time, identifying objectives and follow a systematic approach to explore, and possibly solve, a problem, or generate a design. It includes the production of a report of the investigative project. 
 
You will select a topic for research or design provided by prospective supervisors, or they may propose a topic for research to the module leader who will seek a suitable supervisor. Proposed topics may be the subject of further discussion and development before they are mutually agreed by you and your proposed supervisor.
 
The project will typically be of an investigative nature, exploring and extending your knowledge of the chosen subject within the context of the construction industry. A design project will also require a good degree of investigation on your part. You are expected to demonstrate an understanding of fundamental principles of research, follow research ethics and appropriate methodologies for collecting and analysing primary and / or secondary data and communicate your findings to a professional standard. You will be required to submit an application for ethical approval for the research prior to any primary data collection involving human subjects. You will also need to develop a risk assessment for all practical work either in the field or laboratory.

How you'll learn:

There will be a programme of lectures and seminars at the beginning of the module to introduce you to research techniques and appropriate methodologies. This will include coverage of appropriate statistical techniques that you may need to adopt. Online resources will be provided to support the investigation. Specialist librarian support will be provided to help you with literature searches and use of software for citing articles and providing their bibliographies in a reference list. You are expected to show considerable initiative throughout the duration of the module and schedule supervision meetings with their supervisors.

 

Module overview:

In this module, you will further develop your ability to design larger-scale built environment artefacts of a more complex scale for a specific development site. The projects will usually be related to one of the key contexts adopted by SETEC, e.g. the UN Sustainable Development Goals and industry collaboration.  You will also work with students in ‘vertical’ cross-cohort disciplinary groups providing additional opportunity for peer-to-peer learning.

You will conduct research on the background of the site and explore developments in design and construction practices and techniques. It will therefore contain research methods teaching, also required for the Investigative Project. This instruction will build on that provided as part of Integrated Design Project 1 and 2. You will develop your understanding and application of project planning, cost estimation, risk assessment, ethics, sustainability, and Equality, Diversity, and Inclusion (EDI). It will also cover matters connected with search and retrieval of academic and grey literature, constructing text which summarises current known knowledge, critical thinking, the construction of technical reports, and writing.

How you'll learn:

You will work collaboratively to develop built environment proposals for a concept scheme at a specified development site, which may include geotechnical, water design and transport (such as pedestrian and cycle access within the perimeter). Working in teams, you will be presented with a brief that they will need to interpret, and where necessary challenge, in order to develop a programme of integrated activity.

Please note, these modules may be subject to change.

This course offers a foundation year, which takes place at the beginning of your studies. Studying a foundation year will give you academic and practical experience, and a strong introduction to your subject, ensuring you succeed on your undergraduate degree.

Find out more about foundation years

30 credits

You will develop your core academic and integrated English language skills of speaking, listening, reading and writing. You will become familiar with key academic skills and concepts, such as referencing methods and awareness of academic integrity and tone. You will apply these skills and knowledge to both broad topics and also your chosen subject pathway.

Teaching and learning

You will be required to actively engage in on-campus learning for up to 10 hours a week.

You will be taught through a full range of teaching and learning methods, which include lectures, seminars, workshops, discussion groups, group directed tasks and presentations. This will enable you to learn from your peers and tutors in both structured and information settings.

You will be encouraged to think creatively about your approach to learning and discussions with your peers. You will also have access to recordings, resources, links and signposting through Moodle to enrich your learning.

Assessment

You will be assessed through group and individual presentations, comparative and reflective essays, multiple choice exams, coursework and reports, oral exams, portfolios, case studies and blogs.

30 credits

You will develop your research, numeracy and information technology skills. You will investigate the difference between primary and secondary research, conduct your own research project and demonstrate your findings through data analysis. You will also develop your awareness of equality, diversion and inclusion in the UK, through a real-world issue; discrimination in the workplace.

Teaching and learning

You will be required to actively engage in on-campus learning for up to 10 hours a week.

You will be taught through a full range of teaching and learning methods, which include lectures, seminars, workshops, discussion groups, group directed tasks and presentations. This will enable you to learn from your peers and tutors in both structured and information settings.

You will be encouraged to think creatively about your approach to learning and discussions with your peers. You will also have access to recordings, resources, links and signposting through Moodle to enrich your learning.

Assessment

You will be assessed through group and individual presentations, comparative and reflective essays, multiple choice exams, coursework and reports, oral exams, portfolios, case studies and blogs. 

30 credits

This module is designed to provide a comprehensive introduction to the essential concepts, skills, and knowledge required for a successful career in the built environment. You will explore a wide range of topics that lay the groundwork for further study and professional development in fields such as Civil Engineering, Architecture, Construction Management, Architectural Technology and surveying, among others.

Teaching and learning

This module employs a variety of learning methods to enhance understanding and engagement, which includes lectures, interactive workshops, case studies, practical exercises and field trips, group discussions, guest speakers and digital learning.

The teaching delivery for each module consists of one, one-three-hour lecture and one, two-hour seminar per week. Lectures will cover core indicative content, while seminars will consist of research workshops, as well as small group learning on relevant case studies.

Seminars will also be used to provide practical observation opportunities (or simulated observations) for you to reflect upon implementation of policies and professional skills.

You will also have an additional 30 minutes of online support each week to develop your communication skills as well as providing you with opportunities to explore wider practices.

Assessment

This module will be assessed using a report and a presentation.

60% - written report, on a clear assessment brief.

40% - individual presentation, which will be peer, and tutor assessed for the quality of the presentation and response to questions.

30 credits

This module provides a comprehensive exploration of various aspects crucial to the basic understanding of designing and managing the built environment effectively. From foundational principles to cutting-edge innovations, this module aims to equip you with the knowledge and skills necessary to navigate the broad built environment sector.

Teaching and learning

This module employs a variety of learning methods to enhance understanding and engagement, which includes lectures, interactive workshops, case studies, practical exercises and field trips, group discussions, guest speakers and digital learning.

The teaching delivery for each module consists of one, one-three-hour lecture and one, two-hour seminar per week. Lectures will cover core indicative content, while seminars will consist of research workshops, as well as small group learning on relevant case studies.

Seminars will also be used to provide practical observation opportunities (or simulated observations) for you to reflect upon implementation of policies and professional skills.

You will also have an additional 30 minutes of online support each week to develop your communication skills as well as providing you with opportunities to explore wider practices.

Assessment

This module will be assessed using a report and a presentation.

60% - written report, on a clear assessment brief.

40% - group presentation, which will be peer, and tutor assessed for the quality of the presentation and response to questions.

Skills

Architectural Engineers integrate engineering principles with architectural design to create buildings that are structurally sound, ultra-low energy, and sustainable.

They play a crucial role in addressing net-zero goals by developing innovative solutions that enhance energy efficiency and minimize environmental impact.Their responsibilities include collaborating with architects to design detailed structural, mechanical, and electrical systems that support both functionality and sustainability. Through technical analyses, performance optimization, and strict adherence to building codes and safety regulations, they ensure that buildings achieve the highest standards of safety, comfort, and energy efficiency.

Throughout your time at Roehampton, you will develop technical expertise, problem-solving abilities, communication, and leadership skills. You will graduate fully prepared to contribute to the evolving field of Architectural Engineering, driving the future of sustainable and net-zero building design.

Learning

You will learn via a combination of lectures, workshops, group seminars, group tutorials, and practical experimentation.

As much as possible, students will be taught in interdisciplinary groups, in open studio spaces, on projects, however there will still be some formal lectures in order to deliver discipline relevant knowledge, skills and attributes. 

Assessment

You’ll be set authentic assessments, meaning that your projects, tasks and exercises will replicate the working world of architectural engineering.

You will be assessed on a variety of things which will include the submission of technical reports, lab reports, essays, in-class open and closed book tests, online assessments, and oral presentations. The programme includes both formative assessment, with respect to interim reviews and feedback / feedforward and summative assessment. 

Careers

There are a number of opportunities for graduates of Architectural Engineering in the built environment sector, internationally, nationally, and regionally.

Many Architectural Engineer professionals work in sustainability departments of architectural, engineering and sustainability practices. Architectural Engineering professionals can also specialise in energy calculations, building simulation, environmental and ecological consultancy services, Virtual and Augmented Reality, visualisation, digital scanning and digital fabrication, project and construction management, and Design & Build services. 

Open days

Get a real taste of our campus, community and what it’s like to study at Roehampton

Full-time UK undergraduate students apply through UCAS.

Entry tariff

112–128 UCAS points (or equivalent)

Foundation Year: 64–80 UCAS points (or equivalent)

Looking to work out your UCAS points or find out about our entry requirements? Find out more.

When we consider applications to study with us, we form a complete view of your achievements to date, and future potential, and can offer flexibility in entry requirements. Find out more about our Contextual Offer scheme.

Specific entry requirements

GCSE in English and Maths.

September 2025 entry tuition fees

UK (home) tuition fees

Year one fees

Undergraduate degree: £9,535
Foundation Year: £9,535

We offer a wide range of scholarships and bursaries. See our financial support pages for UK students.

We also provide other ways to support the cost of living, including free buses and on-campus car parking, hardship support and some of the most affordable student accommodation and catering in London. Find out more about how we can support you.

International undergraduate students apply through our direct application system.

Entry tariff

Looking to work out your UCAS points or find out about our entry requirements? Find out more.

When we consider applications to study with us, we form a complete view of your achievements to date, and future potential, and can offer flexibility in entry requirements. Find out more about our Contextual Offer scheme.

Specific entry requirements

GCSE English and Maths or equivalent.

September 2025 entry tuition fees

EU and international tuition fees

Year one fees

Undergraduate degree: £19,500
Foundation Year: £19,500
International Foundation Pathway: £16,950

We offer a wide range of scholarships and bursaries. See our financial support pages for international students.

We also provide other ways to support the cost of living, including free buses and on-campus car parking, hardship support and some of the most affordable student accommodation and catering in London. Find out more about how we can support you.

Need help or advice before applying?

Sustainable Engineering and Technology

Pioneering excellence in Sustainable Built Environment Education. Where students are taught in an environment which reflects the real world.

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