MSc Materials Science and Sustainable Chemistry

01 Sep 2027 - 31 Aug 2033

Course Leader Christian Laycock
Course Team Gareth Owen, Nildo Costa, Michal Czachor, James Reed, Shepherd Siangwata, Tim Patterson, Savvas Savvas, Adam Henley, Stephen Carr, Rhys Jones, Jaime Massanet-Nicolau
Awarding Body University of South Wales
Teaching Institutions University of South Wales
Modes of Study Full Time, Part Time

Document Version

Version 0
Valid From 01 Sep 2027
Valid To 31 Aug 2033

QAA Benchmarks

N/A

Educational Aim

The main aims of the course are: 

  1. To develop advanced knowledge in materials science and sustainable chemistry, enabling students to understand, design and critically evaluate solutions to global challenges such as decarbonisation, pollution, and resource scarcity. 

  1. To equip students with the skills and confidence to tackle real-world, unsolved problems through challenge-based learning, authentic assessment and engagement with industry, community and policy stakeholders.  

  1. To foster collaborative, interdisciplinary thinking, enabling students to integrate perspectives from chemistry, engineering, biotechnology, data science and sustainability analysis when addressing complex environmental and societal issues. 

  1. To build professional, digital and research capabilities, including laboratory competence, data-driven problem solving, responsible use of AI, intellectual property awareness and scientific communication—preparing graduates to operate effectively in diverse scientific and innovation settings.  

  1. To nurture globally responsible, ethical and inclusive scientists, able to lead change, embed sustainability values, work across cultures and sectors, and contribute positively to the UN Sustainable Development Goals and wider society.  

Learning Outcomes

A1 Critically synthesise and evaluate advanced theories, concepts and emerging developments in materials science and sustainable chemistry, applying specialist knowledge to formulate solutions to complex and novel scientific challenges.
A2 Design, plan and execute independent, research-level investigations using appropriate experimental, analytical and computational methods to generate reliable and publishable-quality scientific data.
A3 Critically analyse complex quantitative and qualitative datasets, evaluate scientific evidence, and formulate robust, innovative solutions to advanced chemical, materials and sustainability problems.
A4 Critically evaluate and justify materials and chemical innovation strategies using systems-thinking approaches, balancing environmental, social, economic and ethical considerations to inform sustainable decision-making in complex contexts.
A5 Lead and contribute effectively across disciplinary boundaries—integrating chemistry, materials science, engineering, biological and computational insights—to address complex real-world sustainability challenges.
A6 Demonstrate professional capability in innovation management, including intellectual property awareness, technology readiness assessment, regulatory considerations, and pathways for commercialisation of scientific technologies.
A7 Critically reflect on professional practice, learning and decision-making, demonstrating autonomy and leadership in communicating complex scientific evidence and arguments to diverse specialist and non-specialist audiences.
B1 Critically synthesise and evaluate advanced theories, concepts and emerging developments in materials science and sustainable chemistry, applying specialist knowledge to formulate solutions to complex and novel scientific challenges.
B2 Design, plan and execute independent, research-level investigations using appropriate experimental, analytical and computational methods to generate reliable and publishable-quality scientific data.
B3 Critically analyse complex quantitative and qualitative datasets, evaluate scientific evidence, and formulate robust, innovative solutions to advanced chemical, materials and sustainability problems.
B4 Critically evaluate and justify materials and chemical innovation strategies using systems-thinking approaches, balancing environmental, social, economic and ethical considerations to inform sustainable decision-making in complex contexts.
B5 Lead and contribute effectively across disciplinary boundaries—integrating chemistry, materials science, engineering, biological and computational insights—to address complex real-world sustainability challenges.
B6 Demonstrate professional capability in innovation management, including intellectual property awareness, technology readiness assessment, regulatory considerations, and pathways for commercialisation of scientific technologies.
B7 Critically reflect on professional practice, learning and decision-making, demonstrating autonomy and leadership in communicating complex scientific evidence and arguments to diverse specialist and non-specialist audiences.
C1 Critically synthesise and evaluate advanced theories, concepts and emerging developments in materials science and sustainable chemistry, applying specialist knowledge to formulate solutions to complex and novel scientific challenges.
C2 Design, plan and execute independent, research-level investigations using appropriate experimental, analytical and computational methods to generate reliable and publishable-quality scientific data.
C3 Critically analyse complex quantitative and qualitative datasets, evaluate scientific evidence, and formulate robust, innovative solutions to advanced chemical, materials and sustainability problems.
C4 Critically evaluate and justify materials and chemical innovation strategies using systems-thinking approaches, balancing environmental, social, economic and ethical considerations to inform sustainable decision-making in complex contexts.
C5 Lead and contribute effectively across disciplinary boundaries—integrating chemistry, materials science, engineering, biological and computational insights—to address complex real-world sustainability challenges.
C6 Demonstrate professional capability in innovation management, including intellectual property awareness, technology readiness assessment, regulatory considerations, and pathways for commercialisation of scientific technologies.
C7 Critically reflect on professional practice, learning and decision-making, demonstrating autonomy and leadership in communicating complex scientific evidence and arguments to diverse specialist and non-specialist audiences.

Course Structure

Level 7 Modules

Module Code Module Id Module Title Module Status Credit Value Module Type
7B066E MOD014264 Principles of Sustainable Materials Running 30 specified
7B067E MOD014265 Catalysis for Sustainable Processes Running 30 specified
7B068E MOD014266 Advanced Functional Materials Running 30 specified
7B069E MOD014267 From Lab to Market: Emerging Materials and Sustainable Innovations in Practice Running 30 specified
7B070E MOD014268 Research Project in Materials, Sustainability and Innovation Running 60 specified

Teaching and Assessment


Learning and Teaching Methods

The learning and teaching strategy for the course aligns with USW’s 2030 Curriculum Design Principles and the Royal Society of Chemistry (RSC) expectations for Master’s-level chemical science programmes. It is designed to develop research-literate, professionally capable graduates able to apply advanced materials and chemical science knowledge to sustainability challenges in industry and society. 

Learning is research-engaged and challenge-based, with modules linked to contemporary issues including decarbonisation, resource efficiency, sustainable manufacturing and innovation. Real-world practice is embedded through industrial and policy-focused case studies, laboratory work, data-driven analysis and innovation-focused tasks that reflect professional chemical science and materials practice. Modules such as Advanced Functional Materials and Catalysis for Sustainable Processes include hands-on characterisation, catalytic evaluation and interpretation of authentic datasets, supporting the development of experimental competence, analytical skills and professional judgement. 

The programme uses a varied and inclusive range of learning activities, including lectures, seminars, workshops, laboratory sessions, guided independent study and supervised research. Lectures provide conceptual and theoretical foundations, while seminars and workshops focus on discussion, critical evaluation and problem-solving. Practical and laboratory activities develop applied skills, digital fluency and safe professional practice. The Research Project acts as a capstone experience centred on supervised independent enquiry and aligns with RSC expectations for a substantial research-led Master’s project. 

Student engagement and independence are developed progressively through scaffolded learning, formative feedback and increasing learner autonomy. Diverse learner needs are supported through multimodal learning resources, a blend of synchronous and asynchronous activities, clear guidance, and structured tutorials and supervision. Opportunities for student choice are embedded throughout assessment, including project topics, case-study focus and communication formats. Together, these approaches ensure constructive alignment between learning outcomes, teaching and assessment while preparing graduates for professional practice, innovation-focused careers and further research. 


Employer Engagement

Industry and employer feedback will be obtained through ongoing engagement with partners linked to the Sustainable Environment Research Centre (SERC), including collaborators in advanced manufacturing, energy, water and industrial decarbonisation. Insights from industry-informed projects, challenge briefs and dissertation co-supervision will be used to test curriculum relevance and update case studies, assessment contexts and skills emphasis. 


Means of Assessment

The assessment strategy for the MSc Materials Science and Sustainable Chemistry has been designed to align fully with the USW Assessment for Learning Principles and the Assessment Design Framework, ensuring that assessment is authentic, inclusive, developmental and constructively aligned with the course learning outcomes. Across all taught modules, assessments have been selected to reflect realistic scientific, industrial and research practices, providing students with opportunities to demonstrate the integrated knowledge and advanced competencies required at Master’s level. 

A central feature of the course is the use of bonded assessment, in which each assessment component within a module evaluates all module learning outcomes. This approach provides clarity, reduces fragmentation, and ensures that students are assessed holistically on the synthesis of scientific understanding, analytical capability, sustainability reasoning and professional communication. Bonded modules also support fairness and transparency, with a single overall pass/fail decision per module and simplified reassessment that maintains academic integrity while allowing students to demonstrate achievement of the required learning outcomes. 

The course incorporates a varied and appropriately scaffolded assessment mix, including research dossiers, sustainability evaluations, classroom tests, practical reports, digital artefacts, commercialisation portfolios, pitches, and the substantial research dissertation. This diversity ensures that students develop a range of advanced skills—analytical, practical, digital, research, entrepreneurial and communicative—while engaging with multiple modes of evidence and expression. Assessments increase in complexity and autonomy as students progress, culminating in the 60-credit dissertation, which requires independent research design, rigorous data analysis and professional dissemination of findings. 

Formative assessment is embedded throughout modules via workshops, draft reviews, peer dialogue, supervision meetings and in class problems solving. Academic integrity is supported through authentic assessment tasks, transparent criteria, use of digital literacy tools, and structured reflection on ethical, responsible and sustainability aligned scientific practice. 

Collectively, this assessment strategy ensures coherent learning progression, alignment with PSRB (RSC) expectations, and development of the professional capabilities required for research, industry and innovation roles.


Learning Support

Induction 

Pre-course induction: As part of the recruitment process, students are contacted by the recruitment team and the course team prior to enrolment. Pre-arrival communications provide guidance on enrolment, timetabling, laboratory access, and preparedness for postgraduate study. Students may also be invited to course taster or information sessions where appropriate.  
 
Course induction: Induction is aligned with the wider USW Welcome and induction programme and is tailored specifically to postgraduate students. Programme-specific induction sessions introduce students to the MSc Materials Science and Sustainable Chemistry, the Course Leader and teaching team, laboratory facilities within the Sustainable Environment Research Centre (SERC), health and safety requirements, and expectations of Master’s-level study. Induction also includes coverage of assessment processes, academic integrity (including responsible use of AI), research project pathways, student support services, and opportunities for peer networking and cohort building. 

Learner Analytics 

Student engagement and academic progress are monitored via the University’s Learner Analytics systems, including attendance data, assessment submission patterns and engagement with online learning platforms. These data are used proactively by the course team and Personal Academic Coaches (PACs) to identify students who may benefit from early academic or wellbeing support. Timely, supportive interventions are put in place where required, with referral to appropriate academic or student services as necessary. 

Office hours 

Academic staff provide regular office hours, communicated to students at the start of each academic year and updated as required. In line with current university practice, office hours are typically delivered through a blended model, combining on-campus availability with online appointments via Microsoft Teams. This flexible approach supports accessibility for full-time and part-time students, including those balancing study with employment or caring responsibilities. 

Tutorials 

Tutorial support is provided through both scheduled and ad-hoc sessions. Module leaders offer tutorials to support understanding of module content, laboratory work, assessment preparation, feedback interpretation and study skills development. Tutorials may be delivered individually or in small groups, and are available both on campus and online as appropriate to student needs. 

Seminars 

Seminars and workshops form a core component of teaching and learning on the programme. These interactive sessions promote critical discussion, problem solving and the application of theory to real-world materials, chemistry and sustainability challenges. Seminars support peer learning, interdisciplinary thinking and engagement with contemporary research and industrial practice. 

Formative Assessment 

Formative assessment and feedback are embedded throughout all modules to support student learning and progression. Students receive regular formative input through workshop activities, draft submissions, supervision meetings, peer discussion and in-class problem solving. This ongoing feedback supports reflection, skills development and preparation for summative assessments, and is particularly important in supporting students transitioning to Master’s-level expectations and independent research. 

Progress meetings 

Students are supported through regular progress discussions with their Personal Academic Coach, with at least one formal meeting per academic term. These meetings focus on academic progress, skills development, wellbeing and professional objectives. Additional meetings with module leaders or the Course Leader are welcomed and available on request. 

Research Supervision 

Students undertaking the research project are allocated an academic supervisor with relevant subject expertise to ensure parity of supervision experience. Supervision supports project planning, research design, ethics and governance requirements, data collection and analysis, and dissemination of findings. Supervision expectations and processes are clearly communicated through module and course handbooks, consistent with postgraduate research-informed teaching practice. 

Online Resources and Digital Support 

All modules are supported through UniLearn and Blackboard Ultra, where students access learning materials, assessment briefs, feedback and communication tools. Microsoft Teams is used for online tutorials, discussion forums and group collaboration. Digital resources, including recorded lectures, short explanatory videos and online datasets, supplement face-to-face teaching. Students receive guidance on responsible and ethical use of digital tools, including AI, as part of their academic development. 

Library Services 

The USW Library provides extensive print and digital resources supporting materials science, chemistry and sustainability, including specialist databases, journals and research tools. Subject librarians deliver tailored information literacy and research skills sessions, with additional one-to-one support available. Students have full access to online library services both on and off campus, including 24/7 chat support. Libraries are available across USW campuses, with access to wider UK collections through SCONUL Access. 

A specialist online resource guide is available: libguides.southwales.ac.uk/exercise 

Regular drop-in sessions, such a lunch with your librarian, provide opportunities to ask questions in a less formal setting. https://library.southwales.ac.uk/ 

Learner Development Services 

The Learner Development Service offers academic skills workshops and individual support covering postgraduate writing, critical analysis, referencing, data handling and presentation skills. Support is available both face-to-face and online, and is designed to complement the academic demands of Master’s-level study. 

Support is available in person or online. 

https://www.southwales.ac.uk/services/learner-development-service/

Advice Zone 

The USW Advice Zone acts as a central point of contact for student support, offering confidential advice on issues that may affect study, including finance, wellbeing, housing and personal circumstances. Students can access support online, by telephone, live chat or in person, and can self-refer or be signposted by academic staff. 

These services are available to students whether on campus or in practice learning experiences. 

https://advice.southwales.ac.uk

Disability Advice Team 

The Disability Service provides confidential advice and support for students with physical, sensory, mental-health or unseen disabilities, including specific learning differences and neurodivergence. Reasonable adjustments and inclusive learning support are coordinated in collaboration with academic staff. Students are encouraged to disclose support needs early to enable timely adjustments. 

https://disability.southwales.ac.uk/ 

Mental Wellbeing 

The University Wellbeing Service offers counselling, mental-health advice, workshops and self-help resources. The service works closely with academic teams to ensure appropriate support, early intervention and signposting where needed. 

https://www.southwales.ac.uk/current-students/advice-zone/a-z/support-for-students-at-usw/

Student Success 

Student Success Officers support students who may be experiencing academic or personal challenges affecting progression. This includes advice on study options, temporary withdrawal or mode-of-study changes, and the development of personalised support plans where appropriate. 

Careers Service 

USW Careers provides careers guidance, employability support and access to employer engagement, helping students prepare for careers in industry, research, consultancy or further study.  

https://www.southwales.ac.uk/services/careers/

Careers support complements the programme’s strong focus on employability, innovation and professional practice, particularly through industry-linked modules and research projects. 

Course Exit Points

Award Criteria Final
Master of Science 180 credits of which at least 150 must be at Level 7 and no more than 30 at Level 6 Final
Postgraduate Diploma in Higher Education 120 credits of which at least 90 must be at Level 7 and no more than 30 at Level 6 Exit
Postgraduate Certificate in Higher Education 60 credits with at least 40 at level 7 and no more than 20 at Level 6 Exit

Progression Route


Entry Requirements

Admission to the course is typically through the following qualifications:

In line with the Royal Society of Chemistry (RSC) requirements for accredited postgraduate taught Master’s programmes, applicants are expected to demonstrate sufficient prior learning in chemical science to support study at Master’s level. This typically includes substantial prior study in core areas of chemistry (such as organic, inorganic, physical and/or analytical chemistry), together with appropriate academic and practical skills developed at Bachelor’s level. 

Applicants holding degrees in related interdisciplinary subjects (for example materials science, chemical engineering, pharmaceutical science, forensic science, environmental chemistry or similar) may be considered where their prior studies contain a significant chemistry component. Assessment of suitability may involve scrutiny of academic transcripts, module content, and/or evidence of relevant professional or laboratory experience. 

Applicants whose prior learning does not fully meet the expected chemistry breadth may still be admitted, subject to academic judgement, where there is evidence of appropriate supplementary learning or professional experience. In such cases, students may be advised on preparatory or supporting study to strengthen areas of knowledge as appropriate. 

Applicants without prior learning in chemical sciences may be admitted to the programme at the University’s discretion; however, only those students with sufficient prior chemistry content will fully meet the academic requirements for progression towards Chartered Chemist (CChem) status, in accordance with RSC guidance. 

International applicants are required to meet the University’s English language requirements.


Inclusive Curriculum Statement

The University of South Wales operates a policy of inclusive learning, teaching and assessment to ensure that all students have an equal opportunity to fulfil their educational potential. Course teams will have considered ways of designing out any potentially disadvantageous element of courses during the course design process. However some specific needs may remain, details about how to apply to have your needs assessed can be found at: http://unilife.southwales.ac.uk/pages/3040-disability-and-dyslexia-service/


Addendum for Delivery at a Partner Institution

N/A


Methods Of Quality Standards

N/A


Quality Of Standards Indicators

Professional, Statutory and Regulatory Body (PSRB) oversight, particularly through engagement with the Royal Society of Chemistry (RSC), will inform curriculum review and academic standards. Feedback arising from accreditation discussions, curriculum guidance and sector reports will be used to enhance sustainability integration, research depth and professional practice alignment.