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Advanced Chemical Engineering (Hydrogen and Low Carbon Technologies) MSc

Key Information

Start date

September

Subject area

Chemical Engineering

Aerospace Engineering

Mechanical and Automotive Engineering

Environmental Sciences

Civil Engineering

Mode of study

1 year full-time

Fees

2025/26

UK £14,435

International £24,795

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Entry requirements

2:2

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Overview

NEW FOR 2024: A pioneering course designed and delivered with a passionate commitment to achieving net-zero.

Taught within Brunel’s young and vibrant chemical engineering department, this new master’s programme is the first of its kind in the UK. The course’s pioneering approach is rooted in its collaboration with four other departments within the university - mechanical and aerospace engineering, civil engineering, environmental science and social and political sciences - giving you a holistic view of low carbon technology and the issues that surround it.

You will be taught by a team of world-leading academics with extensive experience and diverse backgrounds in low carbon technologies, who deliver research-informed teaching across topics such as hydrogen production, carbon capture, utilisation and storage (CCUS), biorefineries and fuel cells. You will benefit from the programme’s blended approach to teaching, which includes interactive modes, traditional lectures and tutorial-style learning, along with an active learning approach through extensive discussion.

A clear benefit of the programme’s interdisciplinary approach is that while you acquire the ground-breaking science expertise you’ll also have the opportunity to select employability-boosting modules, focusing for example on project management, environmental legislation and climate politics. The compulsory modules will give you industry-relevant problem solving and transferable skills through holistic assessments, including assignments, written exams, oral presentations, and report writing.

Brunel is recognised for its sector-leading chemical engineering facilities on campus, from where you will undertake practical project work comprising both computational modelling and laboratory experiments. This will not only enhance your employability on graduation, but also offer you a unique and exciting perspective on a range of modern technologies, and their potential to achieve sustainable resource management with minimal environmental impact.

At the end of their final year, engineering and maths students are invited to showcase their project work at Brunel Engineers +, an event that both celebrates their achievements and gives them the chance to network with industry figures and employers. This video shows some of the projects exhibited at the 2024 Brunel Engineers + event, with explanations by the students themselves.

You can explore our campus and facilities for yourself by taking our virtual tour.

Course content

Compulsory

  • Process Design and Safety

    The aim of this module is for students to enhance their understanding of various elements, assumptions and considerations involved in designing chemical processes and low carbon technologies. This advanced knowledge will enable them to create detailed designs, to analyse and to synthesise chemical processes and low carbon technologies including techno-economic, environmental and societal impacts. This will be further supported by learning process safety concepts and by applying appropriate techniques in safe process designs. The students will acquire and apply engineering management skills such as project management, reflective practices, critical thinking, decision-making and conflict resolution skills, while solving complex engineering problems.

  • Advanced Process Engineering
    This module aims to deliver advanced knowledge and skills in process engineering design, advanced particulate process technologies and advanced reactor design. It will enable students to properly select various separation processes in diverse industrial applications and designs.
  • Emerging Low Carbon Technologies
    This module ties closely with global environmental challenges and focuses on process intensification, which is a sustainable disruptive step change process at the core of modern Chemical and Biochemical Engineering thinking. The low carbon emerging technologies tackle and reduce capital, power and footprint through integration with advanced separation apparatus, manufacturing and thermodynamic cycles.
  • Research Dissertation

    The aim of this module is to give students the opportunity to develop independent and proactive learning, decision-making skills, and the ability to identify research needs in emerging areas. The open-ended nature of the research project related to low carbon technologies facilitates the development of critical thinking and problem-solving capacities.The aim of this module is to provide students the opportunity to develop independent and proactive learning, decision-making skills, and the ability to identify research needs in emerging areas. The open-ended nature of the research project related to low carbon technologies facilitates the development of critical thinking and problem-solving capacities.

  • Innovation Toolbox
    The aim of this module will be to consider the principles of leadership, strategic management and business culture in the management of chemical engineering projects and to develop understanding of how research drives innovation in a business context.
  • ME5569 - Renewable Energy Technologies III: Geothermal, Biomass, Waste, Hydrogen

    To consider the principles of renewable resources including geothermal, biomass and hydrogen as an energy carrier and their environmental impact and to provide an understanding of renewable energy conversion technologies.

Optional

  • Project Management

    This module will develop deeper understanding of the roles of various engineering professionals involved in engineering and construction project delivery, deeper understanding of management science as applied to engineering and infrastructure projects, and wider appreciation of the role of the Engineer in society and in sustainable project development.

  • CE5626 - Climate Change and the Environment

    The problem: to build understanding of climate change science and associated threats to society and the environment, with critical analysis of progress towards adaptation and mitigation.

    Available solutions: to promote innovative design solutions to climate change challenges affecting our critical infrastructure.

    Decision making: to critically reflect on the multi-disciplinary nature of climate change challenges and solutions by adopting a holistic, evidence-based approach to decision making.

  • CL5655 - Process Systems Engineering

    To teach students the fundamentals of mathematical modelling in the context of chemical engineering. The module will cover the development of both first-principles and empirical models, numerical methods for solving models and model validation. Linear and nonlinear programming for optimization will be also covered.

  • ES5633 - Natural Resources and Solid Waste Management

    The aim of this module is to immerse students in the principles and practices of sustainable natural resource and solid waste management. By exploring the complex interplay between environmental, economic, social, and technical factors, students will gain a deep understanding of effective resource management and waste reduction strategies, to oversee the design and implementation of sustainable resource management systems. The module emphasises practical, forward-thinking solutions to promote resource efficiency and drive the transition towards a circular economy.


This course can be studied undefined undefined, starting in undefined.

Please note that all modules are subject to change.

Careers and your future

This MSc programme has been developed to address the skills gap in the workforce needed to decarbonise industries in response to the growing energy demand and to achieve the net-zero target. Our MSc graduates will possess a comprehensive understanding of emerging low-carbon technologies and interdisciplinary knowledge in environmental sustainability, climate change politics, and project management. Equipped with these skills, they will be able to tackle global challenges such as meeting the UN Sustainable Development Goals and addressing climate change.

Graduates will be proficient in sustainable industrial system design, enabling them to take up vital technical, managerial, and advisory roles in engineering and consultancy firms, think tanks, and governmental organisations. They will play a key role in industrial decarbonisation, facilitating the transition from a fossil-based economy to a cleaner economy across sectors including energy, transportation, agriculture, pharmaceuticals, waste management and recycling, among others.

UK entry requirements

2024/5 entry

2:2 or above in Chemical and Process Engineering, Mechanical Engineering, Civil Engineering, Environmental Engineering, Physics, Chemistry

Entry to this programme requires all students who are not nationals of the European Economic Area (EEA) and have temporary immigration permission to remain in the UK to obtain an ATAS certificate. If you are made an offer to join this course and you are not an EEA national, you will be required to obtain an ATAS certificate as a condition of your offer.

Applicants who will need an Academic Technology Approval Scheme (ATAS) Certificate: find out if you will need an ATAS certificate, by visiting this webpage: https://www.gov.uk/guidance/find-out-if-you-require-an-atas-certificate#when-you-need-an-atas-certificate.

The deadline for Admissions to make offers to applicants who will require an ATAS certificate is 1st August 2025. 

EU and International entry requirements

If you require a Tier 4 visa to study in the UK, you must prove knowledge of the English language so that we can issue you a Certificate of Acceptance for Study (CAS). To do this, you will need an IELTS for UKVI or Trinity SELT test pass gained from a test centre approved by UK Visas and Immigration (UKVI) and on the Secure English Language Testing (SELT) list. This must have been taken and passed within two years from the date the CAS is made.

English language requirements

  • IELTS: 6 (min 5.5 in all areas)
  • Pearson: 59 (59 in all sub scores)
  • BrunELT: 58% (min 55% in all areas)
  • TOEFL: 77 (min R18, L17, S20, W17) 

You can find out more about the qualifications we accept on our English Language Requirements page.

Should you wish to take a pre-sessional English course to improve your English prior to starting your degree course, you must sit the test at an approved SELT provider for the same reason. We offer our own BrunELT English test and have pre-sessional English language courses for students who do not meet requirements or who wish to improve their English. You can find out more information on English courses and test options through our Brunel Language Centre.

Please check our Admissions pages for more information on other factors we use to assess applicants. This information is for guidance only and each application is assessed on a case-by-case basis. Entry requirements are subject to review, and may change.

Fees and funding

2025/26 entry

UK

£14,435 full-time

International

£24,795 full-time

More information on any additional course-related costs.

Fees quoted are per year and are subject to an annual increase. 

See our fees and funding page for full details of postgraduate scholarships available to Brunel applicants.

Scholarships and bursaries

Teaching and learning

This MSc programme offers significant flexibility for interdisciplinary learning, allowing students to engage with core chemical and process engineering subjects and select elective modules from various departments. Interactive learning modes are emphasised, combining traditional lectures with tutorial-style sessions and fostering active learning through extensive discussions.

Students will have the opportunity to work on design projects focusing on emerging low-carbon technologies, adopting a systems approach that considers economic, environmental, and social dimensions. Additionally, the programme provides exciting cutting-edge research projects encompassing both computational modelling and laboratory experiments, offering students insight into modern technologies and their potential for sustainable resource management and minimising environmental impact in the near future.

Assessment and feedback

Assessment of all learning outcomes is achieved through a balanced combination of coursework, projects, and examinations. Assignments, design projects, and research projects provide students with opportunities to apply their knowledge to real-world situations. Holistic assessments are conducted through a variety of summative and formative methods, including group and individual assignments, written exams, oral presentations, and report writing.

Read our guide on how to avoid plagiarism in your assessments at Brunel.