Chemistry
Develop your skills in core and applied chemistry through to Master's level in this professionally accredited course.
Chemistry with a Year in Industry
Develop your skills in core and applied chemistry through to Master's level in this professionally accredited course.
Chemistry with Research Abroad
Develop your skills in core and applied chemistry through to Master's level in this professionally accredited course.
Chemistry with Research Abroad and a Year in Industry
Develop your skills in core and applied chemistry at Imperial and abroad, through to Master's level in this professionally accredited course. The only Chemistry degree in the UK with both an academic and industrial placement.
Course key facts
Qualification
MSci
Duration
4 years
Start date
October 2027
UCAS course code
F103
Study mode
Full-time
Delivered by
Location
-
South Kensington
-
White City
-
Applications: places
8 : 1 (2025)
Minimum entry standard
AAA (A-level)
38 points (International Baccalaureate)
Qualification
MSci
Duration
5 years
Start date
October 2027
UCAS course code
F105
Study mode
Full-time
Delivered by
Location
-
South Kensington
-
White City
-
Applications: places
8 : 1 (2025)
Minimum entry standard
AAA (A-level)
38 points (International Baccalaureate)
Qualification
MSci
Duration
4 years
Start date
October 2027
UCAS course code
F104
Study mode
Full-time
Delivered by
Location
-
South Kensington
-
White City
-
Applications: places
8 : 1 (2025)
Minimum entry standard
AAA (A-level)
38 points (International Baccalaureate)
Qualification
MSci
Duration
5 years
Start date
October 2027
UCAS course code
F101
Study mode
Full-time
Delivered by
Location
-
South Kensington
-
White City
-
Applications: places
8 : 1 (2025)
Minimum entry standard
AAA (A-level)
38 points (International Baccalaureate)
Course overview
Develop your appreciation of core and applied chemistry through to Master's level on this professionally accredited four-year course.
You'll be taught by world leaders in the field as you explore fundamental chemistry topics through interdisciplinary modules during your first two years.
You'll examine key aspects of inorganic, organic, physical, analytical, synthetic and computational chemistry, before specialising across a series of advanced topics as your degree develops.
An extensive laboratory programme will help develop your practical skills and understanding of experimental measurements and computational models. Through this work, you'll build a broad range of research skills from finding reliable information, to designing an experimental investigation and analysing and communicating the results.
During the third year, you'll examine emergent ‘industry 4.0’ approaches and technologies such as rapid prototyping, 3D Printing, electronics and machine learning.
An extensive research project forms the major component of your final year. You'll join one of the department’s academic research groups to complete a six-month independent research project.
Teaching is primarily delivered at our South Kensington Campus, with regular opportunities to advance your skills at our state-of-the-art Molecular Sciences Research Hub in White City.
Develop your appreciation of core and applied chemistry through to Master's level on this professionally accredited five-year course.
Incorporating a year in industry, this programme is led by world leaders in the field and provides a thorough grounding in fundamental chemistry topics.
You'll examine key aspects of inorganic, organic, physical, analytical, synthetic and computational chemistry across interdisciplinary modules, before specialising across a series of advanced topics as your degree develops.
An extensive laboratory programme will help develop your practical skills and understanding of experimental measurements and computational models. Through this work, you'll build a broad range of research skills from finding reliable information, to designing an experimental investigation, and analysing and communicating the results.
During the third year, you'll examine emergent ‘industry 4.0’ approaches and technologies such as rapid prototyping, 3D printing, electronics and machine learning.
A year in industry during your fourth year provides you with an opportunity to gain paid experience of using chemistry in an industrial context. Previous graduates have completed placements with leading industrial partners including GlaxoSmithKline, Merck, Johnson Matthey and Schlumberger.
An extensive research project forms the major component of your final year.
You'll join one of the department’s academic research groups to complete a six-month independent research project.
Teaching is primarily delivered at our South Kensington Campus, with regular opportunities to advance your skills at our state-of-the-art Molecular Sciences Research Hub in White City.
Enrich your study of core chemistry on this four-year course, which includes the option of an integrated research year abroad.
You'll be taught by world leaders in the field as you explore fundamental chemistry topics through interdisciplinary modules during your first two years.
You'll examine key aspects of inorganic, organic, physical, analytical, synthetic and computational chemistry, before specialising across a series of advanced topics.
An extensive laboratory programme will help develop your practical skills and understanding of experimental measurements and computational models.
Through this work, you'll build a broad range of research skills from finding reliable information, to designing an experimental investigation and analysing and communicating the results.
During the third year, you'll examine emergent ‘industry 4.0’ approaches and technologies such as rapid prototyping, 3D printing, electronics and machine learning.
Teaching is primarily delivered at our South Kensington Campus, with regular opportunities to advance your skills at our state-of-the-art Molecular Sciences Research Hub in White City.
An extensive research project forms the major component of your final year, spent abroad with one of our partner universities.
This work will enable you to enhance your research expertise in a different academic and cultural environment, with all grades counting directly towards your Imperial degree.
Enrich your study of core chemistry on this five-year professionally accredited course.
Incorporating both a year in industry and integrated research year abroad (the only Chemistry degree in the UK with both types of placement), you'll be taught by world leaders in the field as you explore fundamental chemistry topics.
You'll examine key aspects of inorganic, organic, physical, analytical, synthetic and computational chemistry across interdisciplinary modules, before specialising across a series of advanced topics as your degree develops.
An extensive laboratory programme will help develop your practical skills and understanding of experimental measurements and computational models.
Through this work, you'll build a broad range of research skills from finding reliable information, to designing an experimental investigation and analysing and communicating the results.
During the third year, you'll examine emergent ‘industry 4.0’ approaches and technologies such as rapid prototyping, 3D printing, electronics and machine learning.
Teaching is primarily delivered at our South Kensington Campus, with regular opportunities to advance your skills at our state-of-the-art Molecular Sciences Research Hub in White City.
A year in industry during your fourth year provides you with an opportunity to gain paid experience of using chemistry in an industrial context.
Previous graduates have completed placements with leading industrial partners including GlaxoSmithKline, Syngenta, Merck and AstraZeneca.
An extensive research project forms the major component of your final year, spent abroad with one of our partner universities.
This work will enable you to enhance your research expertise in a different academic and cultural environment, with all grades counting directly towards your Imperial degree.
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Undergraduate events
Want to get a feel for life at Imperial?
Save the date for our next Open Days on 24–25 June and 12 September 2026. You can also find upcoming in-person and online events across the UK and overseas on our Events pages.
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This page is updated regularly to reflect the latest version of the curriculum. However, this information is subject to change.
Find out more about potential course changes.
Please note: it may not always be possible to take specific combinations of modules due to timetabling conflicts. For confirmation, please check with the relevant department.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Taking a language through Imperial Horizons may be for degree credit or for extra credit (in addition to one degree credit option).
Core modules
Begin to engage with thinking like a chemist, and receive training in teamwork, use of GenAI and finding chemical information.
Explore how structures and concepts in chemistry are represented and described, and learn drawing, naming, structure, shape and properties of molecules.
Build familiarity with the tools used to predict molecular structures and use theoretical models to explain the bonding in molecules and other chemical structures.
Develop your understanding of the physical and theoretical basis for spectroscopic measurements and examine spectroscopic and mass spectrometric techniques.
Learn about the major types of reactivity at carbon centres and how to rationalise trends in reactivity, and apply your understanding of properties of compounds.
Explore the major theories and methodologies (linked to thermodynamics and kinetics) that are used to interpret chemical reactions and chemical equilibrium at a macroscopic level.
Examine concepts and trends in the chemistry of the s-, p-, d- and f- block elements, and their compounds.
Develop skills in synthetic chemistry, measurement science and coding, and begin to apply these to investigative practical work and data analysis.
Optional (ancillary) modules
Explore more deeply, important mathematical and physics concepts that underpin theory of physical phenomena and at the chemistry-physics interface. May be taken for degree credit only.
Explore the principles that underpin medicinal chemistry, including biomolecule structure and function, and drug design in the pharmaceutical industry. May be taken for degree credit only.
Study one of ten languages through the Imperial Horizons department. May be taken for degree credit or for extra credit.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Taking a language through Imperial Horizons may be for degree credit or for extra credit (in addition to one degree credit option).
(Please note, Mathematics and Physics 1 and Medicinal Chemistry 1 are prerequisites to study Mathematics and Physics 2 and Medicinal Chemistry 2 respectively).
Core modules
Appreciate the expectations as a scientist, learning about inclusivity and diversity, and how to communicate science to different audiences.
Study what electronic states are and why chemical bonds form, based on approximate quantum mechanical models, building up to polyatomics, complexes and solids.
Gain skills in analysis and applying theories behind a variety of spectroscopic, mass spectrometric and purification techniques and applications.
Apply knowledge of thermodynamic quantities to describe the state of equilibrium and non-equilibrium systems, phases and interfaces; and calculate how such quantities change during a chemical transformation.
Build on your knowledge of properties, reactivity and synthesis, and apply it to a wider range of molecular chemical systems, including use of transition metals in catalysis.
Extend your knowledge of properties, reactivity and synthesis of small molecules, applying to solids, polymers and biomolecules such as carbohydrates, DNA and peptides.
Apply your prior knowledge of synthesis and molecular properties to achieve control and selectivity in chemical reactions, including use of organometallic reagents and retrosynthetic analysis.
Build on training foundation from Year 1, developing more complex practical design and analytical skills and independence through synthetic, physical/data analysis and computational experimental work.
Optional (ancillary) modules
Build knowledge and application of mathematical techniques relevant in the analysis and interpretation of physical theories including electromagnetism and molecular interactions. May be taken for degree credit only.
Further your knowledge of medicinal chemistry in pharmacokinetics, drug design and optimisation, assays in drug discovery and protein therapeutics. May be taken for degree credit only.
Stimulate your professional and intellectual growth in areas including languages, humanities and social sciences, and collaborative Change Makers modules. May be taken for degree credit or for extra credit.
Examine a range of business, finance and management topics on a module delivered by the Imperial Business School. May be taken for degree credit only.
You’ll study all of these core modules.
You will also produce a proposal for your final year research project and a literature review of your chosen research area.
Core modules
Explore five advanced chemistry topics.
You’ll choose from topics including advanced synthesis, materials chemistry, soft condensed matter and molecular reaction dynamics.
Investigate a further five advanced chemistry topics.
You’ll choose from topics including chemical biology, environmental and green chemistry, process chemistry and strategies in drug discovery.
Further develop your skills in practical chemistry, experiment design and research in a variety of contexts, including advanced project-style lab practicals.
Through I-Explore, you'll have the chance to deepen your knowledge in a brand new subject area, chosen from a huge range of for-credit modules.
All of our undergraduate courses include one module from I-Explore's wide selection. The module you choose will be fully integrated into your course's curriculum and count as credit towards your degree.
You’ll complete a substantive research project over two terms and choose three optional modules.
Core modules
Join one of the department’s academic research groups to complete a six-month independent research project.
Optional modules
Study modern catalysis concepts, and develop understanding of catalyst activity and selectivity through mechanistic (kinetic) studies.
Develop a high-level understanding of the tactics and strategies deployed in synthesis of complex molecules and natural products, and biosynthesis.
Apply fundamental concepts of chemistry to biological and medical imaging, including MRI contrast agents, optical probes and radiolabelling.
Appreciate current applications and challenges in sustainable chemical processes and products, and learn how to assess sustainability.
Examine various methods for discovering, synthesising, characterising and optimising nanomaterials for a wide variety of applications.
Analyse the structure and dynamics of membranes and lipid assemblies and understand how these regulate key biological processes.
Broaden your understanding of the operation mechanisms and application of organic/plastic electronic devices, and structure property relationships in their design.
Apply cross-disciplinary topics to investigate how renewable energy can be captured, stored and used to synthesise fuels and chemical feedstocks.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Taking a language through Imperial Horizons may be for degree credit or for extra credit (in addition to one degree credit option).
Core modules
Begin to engage with thinking like a chemist, and receive training in teamwork, use of GenAI and finding chemical information.
Explore how structures and concepts in chemistry are represented and described, and learn drawing, naming, structure, shape and properties of molecules.
Build familiarity with the tools used to predict molecular structures and use theoretical models to explain the bonding in molecules and other chemical structures.
Develop your understanding of the physical and theoretical basis for spectroscopic measurements and examine spectroscopic and mass spectrometric techniques.
Learn about the major types of reactivity at carbon centres and how to rationalise trends in reactivity, and apply your understanding of properties of compounds.
Explore the major theories and methodologies (linked to thermodynamics and kinetics) that are used to interpret chemical reactions and chemical equilibrium at a macroscopic level.
Examine concepts and trends in the chemistry of the s-, p-, d- and f- block elements, and their compounds.
Develop skills in synthetic chemistry, measurement science and coding, and begin to apply these to investigative practical work and data analysis.
Optional (ancillary) modules
Explore more deeply, important mathematical and physics concepts that underpin theory of physical phenomena and at the chemistry-physics interface. May be taken for degree credit only.
Explore the principles that underpin medicinal chemistry, including biomolecule structure and function, and drug design in the pharmaceutical industry. May be taken for degree credit only.
Study one of ten languages through the Imperial Horizons department. May be taken for degree credit or for extra credit.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Taking a language through Imperial Horizons may be for degree credit or for extra credit (in addition to one degree credit option).
(Please note, Mathematics and Physics 1 and Medicinal Chemistry 1 are pre-requisites to study Mathematics and Physics 2 and Medicinal Chemistry 2 respectively).
Core modules
Appreciate the expectations as a scientist, learning about inclusivity and diversity, and how to communicate science to different audiences.
Study what electronic states are and why chemical bonds form, based on approximate quantum mechanical models, building up to polyatomics, complexes and solids.
Gain skills in analysis and applying theories behind a variety of spectroscopic, mass spectrometric and purification techniques and applications.
Apply knowledge of thermodynamic quantities to describe the state of equilibrium and non-equilibrium systems, phases and interfaces; and calculate how such quantities change during a chemical transformation.
Build on your knowledge of properties, reactivity and synthesis, and apply it to a wider range of molecular chemical systems, including use of transition metals in catalysis.
Extend your knowledge of properties, reactivity and synthesis of small molecules, applying to solids, polymers and biomolecules such as carbohydrates, DNA and peptides.
Apply your prior knowledge of synthesis and molecular properties to achieve control and selectivity in chemical reactions, including use of organometallic reagents and retrosynthetic analysis.
Build on training foundation from Year 1, developing more complex practical design and analytical skills and independence through synthetic, physical/data analysis and computational experimental work.
Optional (ancillary) modules
Build knowledge and application of mathematical techniques relevant in the analysis and interpretation of physical theories including electromagnetism and molecular interactions. May be taken for degree credit only.
Further your knowledge of medicinal chemistry in pharmacokinetics, drug design and optimisation, assays in drug discovery and protein therapeutics. May be taken for degree credit only.
Stimulate your professional and intellectual growth in areas including languages, humanities and social sciences, and collaborative Change Makers modules. May be taken for degree credit or for extra credit.
Examine a range of business, finance and management topics on a module delivered by the Imperial Business School. May be taken for degree credit only.
You’ll study all of these core modules.
You will also search for and apply for an industrial placement during this year.
Core modules
Explore five advanced chemistry topics.
You’ll choose from topics including advanced synthesis, materials chemistry, soft condensed matter and molecular reaction dynamics.
Investigate a further five advanced chemistry topics.
You’ll choose from topics including chemical biology, environmental and green chemistry, process chemistry and strategies in drug discovery.
Further develop your skills in practical chemistry, experiment design and research in a variety of contexts, including advanced project-style lab practicals.
Through I-Explore, you'll have the chance to deepen your knowledge in a brand new subject area, chosen from a huge range of for-credit modules.
All of our undergraduate courses include one module from I-Explore's wide selection. The module you choose will be fully integrated into your course's curriculum and count as credit towards your degree.
You spend this year on an industrial placement, normally for 12 months.
During this time you remain registered as an Imperial student and usually pay reduced tuition fees to the university. You also receive a salary from your host company.
Our strong industry links means we have an extensive list of firms willing to host our students, across the UK and Europe. Most Most placement opportunities are advertised online, and some by the department. Alternatively, you can arrange your own placement in consultation with the Department.
The work you do during your placement must be predominantly related to chemical research.
You will complete a formal research project report on the work you have carried out. This will be assessed by your academic and industrial supervisors.
You will also produce a proposal for your final year research project and a literature review of your chosen research area.
You’ll complete a substantive research project over two terms and choose three optional modules.
Core modules
Join one of the department’s academic research groups to complete a six-month independent research project.
Optional modules
Study modern catalysis concepts, and develop understanding of catalyst activity and selectivity through mechanistic (kinetic) studies.
Develop a high-level understanding of the tactics and strategies deployed in synthesis of complex molecules and natural products, and biosynthesis.
Apply fundamental concepts of chemistry to biological and medical imaging, including MRI contrast agents, optical probes and radiolabelling.
Appreciate current applications and challenges in sustainable chemical processes and products, and learn how to assess sustainability.
Examine various methods for discovering, synthesising, characterising and optimising nanomaterials for a wide variety of applications.
Analyse the structure and dynamics of membranes and lipid assemblies and understand how these regulate key biological processes.
Broaden your understanding of the operation mechanisms and application of organic/plastic electronic devices, and structure property relationships in their design.
Apply cross-disciplinary topics to investigate how renewable energy can be captured, stored and used to synthesise fuels and chemical feedstocks.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Those taking a placement in a non-English speaking location (France, Germany, Spain or Switzerland) will usually need to take the relevant language through Imperial Horizons.
Those taking a placement in an English-speaking location have no additional language requirement.
Core modules
Begin to engage with thinking like a chemist, and receive training in teamwork, use of GenAI and finding chemical information.
Explore how structures and concepts in chemistry are represented and described, and learn drawing, naming, structure, shape and properties of molecules.
Build familiarity with the tools used to predict molecular structures and use theoretical models to explain the bonding in molecules and other chemical structures.
Develop your understanding of the physical and theoretical basis for spectroscopic measurements and examine spectroscopic and mass spectrometric techniques.
Learn about the major types of reactivity at carbon centres and how to rationalise trends in reactivity, and apply your understanding of properties of compounds.
Explore the major theories and methodologies (linked to thermodynamics and kinetics) that are used to interpret chemical reactions and chemical equilibrium at a macroscopic level.
Examine concepts and trends in the chemistry of the s-, p-, d- and f- block elements, and their compounds.
Develop skills in synthetic chemistry, measurement science and coding, and begin to apply these to investigative practical work and data analysis.
Optional (ancillary) modules
Explore more deeply, important mathematical and physics concepts that underpin theory of physical phenomena and at the chemistry-physics interface. May be taken for degree credit only.
Explore the principles that underpin medicinal chemistry, including biomolecule structure and function, and drug design in the pharmaceutical industry. May be taken for degree credit only.
Study one of ten languages through the Imperial Horizons department. May be taken for degree credit or for extra credit.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Those taking a placement in a non-English speaking location (France, Germany, Spain or Switzerland) will usually need to take the relevant language through Imperial Horizons.
Those taking a placement in an English-speaking location have no additional language requirement.
(Please note, Mathematics and Physics 1 and Medicinal Chemistry 1 are prerequisites to study Mathematics and Physics 2 and Medicinal Chemistry 2 respectively).
Core modules
Appreciate the expectations as a scientist, learning about inclusivity and diversity, and how to communicate science to different audiences.
Study what electronic states are and why chemical bonds form, based on approximate quantum mechanical models, building up to polyatomics, complexes and solids.
Gain skills in analysis and applying theories behind a variety of spectroscopic, mass spectrometric and purification techniques and applications.
Apply knowledge of thermodynamic quantities to describe the state of equilibrium and non-equilibrium systems, phases and interfaces; and calculate how such quantities change during a chemical transformation.
Build on your knowledge of properties, reactivity and synthesis, and apply it to a wider range of molecular chemical systems, including use of transition metals in catalysis.
Extend your knowledge of properties, reactivity and synthesis of small molecules, applying to solids, polymers and biomolecules such as carbohydrates, DNA and peptides.
Apply your prior knowledge of synthesis and molecular properties to achieve control and selectivity in chemical reactions, including use of organometallic reagents and retrosynthetic analysis.
Build on training foundation from Year 1, developing more complex practical design and analytical skills and independence through synthetic, physical/data analysis and computational experimental work.
Optional (ancillary) modules
Build knowledge and application of mathematical techniques relevant in the analysis and interpretation of physical theories including electromagnetism and molecular interactions. May be taken for degree credit only.
Further your knowledge of medicinal chemistry in pharmacokinetics, drug design and optimisation, assays in drug discovery and protein therapeutics. May be taken for degree credit only.
Stimulate your professional and intellectual growth in areas including languages, humanities and social sciences, and collaborative Change Makers modules. May be taken for degree credit or for extra credit.
Examine a range of business, finance and management topics on a module delivered by the Imperial Business School. May be taken for degree credit only.
You’ll study all of these core modules.
Those taking a placement in a non-English speaking location (France, Germany, Spain or Switzerland) will usually need to take the relevant language through Imperial Horizons (as part of I-Explore).
Those taking a placement in an English-speaking location have no additional language requirement.
Core modules
Explore five advanced chemistry topics.
You’ll choose from topics including advanced synthesis, materials chemistry, soft condensed matter and molecular reaction dynamics.
Investigate a further five advanced chemistry topics.
You’ll choose from topics including chemical biology, environmental and green chemistry, process chemistry and strategies in drug discovery.
Further develop your skills in practical chemistry, experiment design and research in a variety of contexts, including advanced project-style lab practicals.
Optional modules
Through I-Explore, you'll have the chance to deepen your knowledge in a brand new subject area, chosen from a huge range of for-credit modules.
All of our undergraduate courses include one module from I-Explore's wide selection. The module you choose will be fully integrated into your course's curriculum and count as credit towards your degree.
Your Research Abroad year consists of an agreed programme of study at an approved university in both non-English speaking locations (France, Germany, Spain and Switzerland) and majority English-speaking locations (Australia, Canada, Singapore, The Netherlands, and the USA).
For placements in France, Germany, Spain or Switzerland, you will usually need to take the relevant language through Years 1-3. You will also take an accompanying Year in Europe class, providing scientific and technical language training.
We currently have exchange agreements with:
Non-English Speaking partner institutions
- Université Paris Cité, France
- École Normale Supérieure Paris (ENS), France
- Ecole Supérieure de Physique et de Chimie Industrielles of Paris (ESPCI), France
- Leibniz Universität Hannover, Germany
- Ludwig-Maximilians-Universität München (LMU), Germany
- Universidad de Barcelona, Spain
- Universidad de Valencia, Spain
- Ecole Polytechnique Fédérale de Lausanne (EPFL), Switzerland
- Eidgenoessische Technische Hochschule Zuerich (ETH Zürich), Switzerland
English Speaking partner institutions
- Monash University, Australia
- University of Toronto (St. George's Campus), Canada
- Nanyang Technological University (NTU), Singapore
- Universiteit Leiden, The Netherlands
- Utrecht University, The Netherlands
- Massachusetts Institute of Technology (MIT)
This is an integrated year abroad so the grades you achieve will count directly towards your Imperial degree.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Those taking a placement in a non-English speaking location (France, Germany, Spain or Switzerland) will usually need to take the relevant language through Imperial Horizons.
Those taking a placement in an English-speaking location have no additional language requirement.
Core modules
Begin to engage with thinking like a chemist, and receive training in teamwork, use of GenAI and finding chemical information.
Explore how structures and concepts in chemistry are represented and described, and learn drawing, naming, structure, shape and properties of molecules.
Build familiarity with the tools used to predict molecular structures and use theoretical models to explain the bonding in molecules and other chemical structures.
Develop your understanding of the physical and theoretical basis for spectroscopic measurements and examine spectroscopic and mass spectrometric techniques.
Learn about the major types of reactivity at carbon centres and how to rationalise trends in reactivity, and apply your understanding of properties of compounds.
Explore the major theories and methodologies (linked to thermodynamics and kinetics) that are used to interpret chemical reactions and chemical equilibrium at a macroscopic level.
Examine concepts and trends in the chemistry of the s-, p-, d- and f- block elements, and their compounds.
Develop skills in synthetic chemistry, measurement science and coding, and begin to apply these to investigative practical work and data analysis.
Optional (ancillary) modules
Explore more deeply, important mathematical and physics concepts that underpin theory of physical phenomena and at the chemistry-physics interface. May be taken for degree credit only.
Explore the principles that underpin medicinal chemistry, including biomolecule structure and function, and drug design in the pharmaceutical industry. May be taken for degree credit only.
Study one of ten languages through the Imperial Horizons department. May be taken for degree credit or for extra credit.
For placements in France, Germany, Spain or Switzerland, you will usually need to take the relevant language for degree or extra credit. You will also take an additional Year in Europe class.
You’ll study the following core modules.
You’ll also take one optional (ancillary) module for degree credit.
Those taking a placement in a non-English speaking location (France, Germany, Spain or Switzerland) will usually need to take the relevant language through Imperial Horizons.
Those taking a placement in an English-speaking location have no additional language requirement.
Core modules
Appreciate the expectations as a scientist, learning about inclusivity and diversity, and how to communicate science to different audiences.
Study what electronic states are and why chemical bonds form, based on approximate quantum mechanical models, building up to polyatomics, complexes and solids.
Gain skills in analysis and applying theories behind a variety of spectroscopic, mass spectrometric and purification techniques and applications.
Apply knowledge of thermodynamic quantities to describe the state of equilibrium and non-equilibrium systems, phases and interfaces; and calculate how such quantities change during a chemical transformation.
Build on your knowledge of properties, reactivity and synthesis, and apply it to a wider range of molecular chemical systems, including use of transition metals in catalysis.
Extend your knowledge of properties, reactivity and synthesis of small molecules, applying to solids, polymers and biomolecules such as carbohydrates, DNA and peptides.
Apply your prior knowledge of synthesis and molecular properties to achieve control and selectivity in chemical reactions, including use of organometallic reagents and retrosynthetic analysis.
Build on training foundation from Year 1, developing more complex practical design and analytical skills and independence through synthetic, physical/data analysis and computational experimental work.
Optional (ancillary) modules
Build knowledge and application of mathematical techniques relevant in the analysis and interpretation of physical theories including electromagnetism and molecular interactions. May be taken for degree credit only.
Further your knowledge of medicinal chemistry in pharmacokinetics, drug design and optimisation, assays in drug discovery and protein therapeutics. May be taken for degree credit only.
Stimulate your professional and intellectual growth in areas including languages, humanities and social sciences, and collaborative Change Makers modules. May be taken for degree credit or for extra credit.
For placements in France, Germany, Spain or Switzerland, you will usually need to take the relevant language for degree or extra credit. You will also continue to take an additional Year in Europe class.
Examine a range of business, finance and management topics on a module delivered by the Imperial Business School. May be taken for degree credit only.
You’ll study all of these core modules.
Those taking a placement in a non-English speaking location (France, Germany, Spain or Switzerland) will usually need to take the relevant language through Imperial Horizons (as part of I-Explore).
Those taking a placement in an English-speaking location have no additional language requirement.
You will also search for and apply for an industrial placement during this year.
Core modules
Explore five advanced chemistry topics.
You’ll choose from topics including advanced synthesis, materials chemistry, soft condensed matter and molecular reaction dynamics.
Investigate a further five advanced chemistry topics.
You’ll choose from topics including chemical biology, environmental and green chemistry, process chemistry and strategies in drug discovery.
Further develop your skills in practical chemistry, experiment design and research in a variety of contexts, including advanced project-style lab practicals.
Through I-Explore, you'll have the chance to deepen your knowledge in a brand new subject area, chosen from a huge range of for-credit modules.
All of our undergraduate courses include one module from I-Explore's wide selection. The module you choose will be fully integrated into your course's curriculum and count as credit towards your degree.
For placements in France, Germany, Spain or Switzerland, you will usually need to take the relevant language as part of I-Explore. You will also continue to take an additional Year in Europe class.
You spend this year on an industrial placement, normally for 12 months.
During this time you remain registered as an Imperial student and usually pay reduced tuition fees to the College. You also receive a salary from your host company.
Our strong industry links means we have an extensive list of firms willing to host our students, across the UK and Europe. Most placement opportunities are advertised online, and some by the department. Alternatively, you can arrange your own placement in consultation with the Department.
The work you do during your placement must be predominantly related to chemical research.
You will complete a formal research project report on the work you have carried out. This will be assessed by your academic and industrial supervisors.
Your Research Abroad year consists of an agreed programme of study at an approved university in both non-English speaking locations (France, Germany, Spain and Switzerland) and majority English-speaking locations (Australia, Canada, Singapore, The Netherlands, and the USA).
For placements in France, Germany, Spain or Switzerland, you will usually need to take the relevant language through Years 1-3. You will also take an accompanying Year in Europe class, providing scientific and technical language training.
You will conduct a substantial research project in a research group and study a selection of courses/modules at a partner institution.
We currently have exchange agreements with:
Non-English Speaking partner institutions
- Université Paris Cité, France
- École Normale Supérieure Paris (ENS), France
- Ecole Supérieure de Physique et de Chimie Industrielles of Paris (ESPCI), France
- Leibniz Universität Hannover, Germany
- Ludwig-Maximilians-Universität München (LMU), Germany
- Universidad de Barcelona, Spain
- Universidad de Valencia, Spain
- Ecole Polytechnique Fédérale de Lausanne (EPFL), Switzerland
- Eidgenoessische Technische Hochschule Zuerich (ETH Zürich), Switzerland
English Speaking partner institutions
- Monash University, Australia
- University of Toronto (St. George's Campus), Canada
- Nanyang Technological University (NTU), Singapore
- Universiteit Leiden, The Netherlands
- Utrecht University, The Netherlands
- Massachusetts Institute of Technology (MIT)
This is an integrated year abroad so the grades you achieve will count directly towards your Imperial degree.
Professional accreditation
This degree leads to a Master’s level qualification and is professionally accredited by the Royal Society of Chemistry (RSC).
This accreditation is internationally respected in an increasingly global industry and graduate market. It will allow you to demonstrate that you’ve completed a high-quality degree programme designed to meet the needs of both students and their future employers.
This MSci degree fully satisfies the academic requirements for professional registration as a Chartered Chemist (CChem). Becoming a Chartered Chemist earns you an internationally recognised qualification which can enhance your career prospects and earning potential
Our accreditation agreement with the Royal Society of Chemistry is renewed every five years. The current accreditation agreement was recently extended through 2027.
Associateship
In addition to your degree, you’ll receive the Associateship of the Royal College of Science (ARCS) upon completion of this course. This associateship is awarded by one of our historic constituent Colleges.
Teaching and assessment
Balance of teaching and learning
This is a general guide to how teaching and learning are usually balanced across this course. The methods used may change based on the modules you take.
Key
- Classroom teaching and laboratory work
- Independent study
Years 1 and 2
- 30% Title 1 goes here
- 70% Title 2 goes here
Year 3
- 20% Title 1 goes here
- 80% Title 2 goes here
Year 4
- 10% Title 1 goes here
- 90% Title 2 goes here
Teaching and learning methods
-
Lectures
-
Tutorials
-
Practical workshops
-
Guided laboratory work
-
Group work
-
Literature reports
-
Research projects
Balance of assessment
This is an example of how assessments are usually divided, based on a typical pathway through the course. The actual breakdown may vary depending on the modules you choose.
Key
- Examination
- Coursework and practical work
Year 1
- 75% Title 1 goes here
- 25% Title 2 goes here
Year 2
- 65% Title 1 goes here
- 35% Title 2 goes here
Year 3
- 40% Title 1 goes here
- 60% Title 2 goes here
Year 4
- 25% Title 1 goes here
- 75% Title 2 goes here
Assessment methods
-
Written examinations
-
Oral presentation
-
Written reports
-
Coursework
-
Academic posters
-
Viva voce
-
Practical Assessment
Balance of teaching and learning
This is a general guide to how teaching and learning are usually balanced across this course. The methods used may change based on the modules you take.
Key
- Classroom teaching and laboratory work
- Independent study
Years 1 and 2
- 30% Title 1 goes here
- 70% Title 2 goes here
Year 3
- 20% Title 1 goes here
- 80% Title 2 goes here
Year 5
- 10% Title 1 goes here
- 90% Title 2 goes here
Teaching and learning methods
-
Lectures
-
Tutorials
-
Practical workshops
-
Guided laboratory work
-
Group work
-
Literature reports
-
Research projects
Balance of assessment
This is an example of how assessments are usually divided, based on a typical pathway through the course. The actual breakdown may vary depending on the modules you choose.
Key
- Examination
- Coursework and practical work
Year 1
- 75% Title 1 goes here
- 25% Title 2 goes here
Year 2
- 65% Title 1 goes here
- 35% Title 2 goes here
Year 3
- 40% Title 1 goes here
- 60% Title 2 goes here
Year 4
- 0% Title 1 goes here
- 100% Title 2 goes here
Year 5
- 25% Title 1 goes here
- 75% Title 2 goes here
Assessment methods
-
Written examinations
-
Oral presentation
-
Written reports
-
Coursework
-
Academic posters
-
Viva voce
-
Practical Assessment
Balance of teaching and learning
This is a general guide to how teaching and learning are usually balanced across this course. The methods used may change based on the modules you take.
Key
- Classroom teaching and laboratory work
- Independent study
Years 1 and 2
- 30% Title 1 goes here
- 70% Title 2 goes here
Year 3
- 20% Title 1 goes here
- 80% Title 2 goes here
Year 4
- 10% Title 1 goes here
- 90% Title 2 goes here
Teaching and learning methods
-
Lectures
-
Tutorials
-
Practical workshops
-
Guided laboratory work
-
Group work
-
Literature reports
-
Research projects
Balance of assessment
This is an example of how assessments are usually divided, based on a typical pathway through the course. The actual breakdown may vary depending on the modules you choose.
Key
- Examination
- Coursework and practical work
Year 1
- 75% Title 1 goes here
- 25% Title 2 goes here
Year 2
- 65% Title 1 goes here
- 35% Title 2 goes here
Year 3
- 40% Title 1 goes here
- 60% Title 2 goes here
Year 4
- 25% Title 1 goes here
- 75% Title 2 goes here
Assessment methods
-
Written examinations
-
Oral presentation
-
Written reports
-
Coursework
-
Academic posters
-
Viva voce
-
Practical Assessment
Balance of teaching and learning
This is a general guide to how teaching and learning are usually balanced across this course. The methods used may change based on the modules you take.
Key
- Classroom teaching and laboratory work
- Independent study
Years 1 and 2
- 30% Title 1 goes here
- 70% Title 2 goes here
Year 3
- 20% Title 1 goes here
- 80% Title 2 goes here
Year 4
- 10% Title 1 goes here
- 90% Title 2 goes here
Year 5
- 10% Title 1 goes here
- 90% Title 2 goes here
Teaching and learning methods
-
Lectures
-
Tutorials
-
Practical workshops
-
Guided laboratory work
-
Group work
-
Literature reports
-
Research projects
Balance of assessment
This is an example of how assessments are usually divided, based on a typical pathway through the course. The actual breakdown may vary depending on the modules you choose.
Key
- Examination
- Coursework and practical work
Year 1
- 75% Title 1 goes here
- 25% Title 2 goes here
Year 2
- 65% Title 1 goes here
- 35% Title 2 goes here
Year 3
- 40% Title 1 goes here
- 60% Title 2 goes here
Year 4
- 0% Title 1 goes here
- 100% Title 2 goes here
Year 5
- 25% Title 1 goes here
- 75% Title 2 goes here
Assessment methods
-
Written examinations
-
Oral presentation
-
Written reports
-
Coursework
-
Academic posters
-
Viva voce
-
Practical Assessment
Entry requirements
We consider all applicants on an individual basis, welcoming students from all over the world.
How to apply
Apply via UCAS
Once applications open, you can register and start your application via the UCAS Hub. There, you can add this course as one of your choices and track your application.
Applications open on 12 May 2026.
Applications open on 12 May 2026.
Applications open on 12 May 2026.
Applications open on 12 May 2026.
Assessing your application
Admissions Tutors consider all the evidence available during our rigorous selection process and the College flags key information providing assessors with a more complete picture of the educational and social circumstances relevant to the applicant. Some applicants may be set lower offers and some more challenging ones.
Post-application open day and interview
If assessment of your UCAS application indicates that you are likely to satisfy our requirements, you will be shortlisted for an academic interview as part of our interview programme.
There will be a pre-recorded talk by the admissions tutor made available online, about the department, the structure of the course and other opportunities available to enrich your experience with us. There will also be talks and presentations available by the accommodation and finance teams, and from Horizons about the great range of modules they offer. We are organising online Q&A sessions, where you will have the chance to talk to the admissions tutor and to current undergraduates, and you can see more about the department on the Chemistry and Virtual Tour websites.
We will run interviews in the morning and afternoon (UK time) to accommodate students in different time-zones, and each applicant will be interviewed individually. The interview will comprise a discussion with two experienced academics or researchers who will be looking to assess an applicant’s motivation for studying chemistry and their potential for the future.
Although the discussion may begin with topics mentioned in the UCAS personal statement, the conversations will likely expand to cover topics that the applicant may not be so familiar with. This enables the interviewers to observe how an applicant thinks and how they reason their way through a problem.
The interviewers are highly experienced and are able to see through nerves, stress and silly mistakes so you should not worry about answering the questions. There are no trick questions, if an answer seems obvious, it might be just that. Do talk through what you are thinking with the interviewers.
We then use the interview feedback in combination with the UCAS application, to decide whether we are able to make an offer, and what the conditions of the offer will be. We will be making offer decisions only after all interviews are complete. We will aim to contact all applicants directly by e-mail, by early March with a decision. You should be able to see this updated on UCAS Hub by the end of March.
The Department of Chemistry have put together an admissions support page with frequently asked questions that often arise during the admissions process.
An ATAS certificate is not required for students applying for this course.
We offer both Master in Science (MSci) degrees and Bachelor of Science (BSc) degrees.
Our MSci degrees cover more in-depth chemistry study than our BSc degrees, making them more suited to students who are considering a career in research or who may wish to progress to further study such as a PhD.
Our MSci degrees also include a more substantial individual project in the final year, which gives you the chance to gain more experience in a research environment; you also engage with more advanced research-led lecture modules in your final year.
Years one and two of our Chemistry degrees follow the same core course content, supplemented by optional modules designed to match your chosen course of study.
This structure offers you the opportunity to transfer between Chemistry degrees at a later stage providing you have studied the appropriate optional subjects, and as such you should apply to only one degree within the Department of Chemistry.
You may need to meet a certain academic standard to be eligible for placements in industry or abroad.
If you are an international student, transferring to a different course could have an impact on your student visa. Please visit our International Student Support webpage for further information.
Fees and funding
Home fee
2027 entry
£10,050* per year
Fees to be confirmed
*Home tuition fees
In England and Wales, the UK government sets the maximum tuition fee (known as a 'fee cap') chargeable by universities for Home students. Imperial’s Home fees for undergraduate courses starting in 2027 will align with this cap, which means that, subject to parliamentary approval, they are expected to be £10,050.
It is current Imperial policy to charge Home fees in line with the Government’s fee cap. The UK government announced its proposed fee caps for the 2026–27 and 2027–28 academic years in November 2025.
The fee cap beyond this hasn’t been announced yet but the Government plans to increase the fee cap each year to match inflation.
So, you should expect a rise in your fee each year. As soon as we know what this will be for 2028- to 2029 academic year and beyond, we will publish it on our course pages.
If you choose a course with a work placement or year abroad, your fee for this non-standard year will be calculated as follows:
- Work placement year: Faculty of Engineering: 10% of the standard full-time fee for that year; all other faculties: 20% of the standard full-time fee for that year.
- Overseas study year or Turing year: 15% of the standard full-time fee for that year (Turing work placements in the Faculty of Engineering will be charged at 10% of the standard full-time fee for that year).
Whether you pay the Home or Overseas fee depends on your fee status. This is assessed based on UK Government legislation and includes things like where you live and your nationality or residency status. Find out how we assess your fee status.
If you're a Home student, you can apply for a Tuition Fee Loan from the UK government to cover the entire cost of tuition for every year of your course.
The loan is paid directly to the university.
You will start repaying it only after you leave your course, have a job, and are earning above a certain amount.
Once the repayments start, the amount you pay each month depends on how much you earn, not on how much you owe in total.
Upcoming changes: Lifelong Learning Entitlement
From January 2027, students who live in England can access student finance through the Lifelong Learning Entitlement (LLE) – a single funding system that brings together Tuition Fee and Maintenance Loans.
The LLE currently applies to England only. Student finance in Wales, Scotland and Northern Ireland is not affected by this change.
You can learn more about the LLE on the GOV.UK website.
Home students can apply for a means-tested Maintenance Loan to help with their living costs.
How you apply for student finance depends on whether you have studied before and where you’re from or normally live. Find out more on the UK government's website.
Upcoming changes: Lifelong Learning Entitlement
From January 2027, students who live in England can access student finance through the Lifelong Learning Entitlement (LLE) – a single funding system that brings together Tuition Fee and Maintenance Loans.
The LLE currently applies to England only. Student finance in Wales, Scotland and Northern Ireland is not affected by this change.
You can learn more about the LLE on the GOV.UK website.
The Imperial Bursary is available to all Home undergraduate students with a household income below £70,000 per year.
The amount awarded is based on your household income, with up to £5,000/year available for students from the lowest income households.
It's money which you don't need to pay back, and it's paid on top of any government funding you may also receive.
It is available for each year of your course, as long as your annual household income remains below £70,000.
You might need to budget for additional costs related to your course that aren't covered by your tuition fees – like field trips, books and protective clothing.
Our extra costs page outlines the additional costs related to courses in each of our departments. It's not an exhaustive list and any additional costs you could incur will be determined by the course and modules you choose.
Overseas fee
2027 entry
Not set
As a guide, the Overseas fee for 2026-27 was £45,500.
Year abroad
2027 entry
Not set
As a guide, the Overseas fee for 2026-27 was 100% of the fee for that year.
Year in industry
2027 entry
Not set
As a guide, the Overseas fee for 2026-27 was 20% of the fee for that year.
Whether you pay the Home or Overseas fee depends on your fee status. This is assessed based on UK Government legislation and includes things like where you live and your nationality or residency status. Find out how we assess your fee status.
You might need to budget for additional costs related to your course that aren't covered by your tuition fees – like field trips, books and protective clothing.
Our extra costs page outlines the additional costs related to courses in each of our departments. It's not an exhaustive list and any additional costs you could incur will be determined by the course and modules you choose.
How will studying at Imperial help my career?
93% Of Imperial Chemistry graduates in work or further study*
- 93% Of Imperial Chemistry graduates in work or further study*
- 7%
84% Of Imperial Chemistry graduates in work highly skilled or further study*
- 84% Of Imperial Chemistry graduates in work highly skilled or further study*
- 16%
*2022-23 graduate outcomes data, published by HESA in 2025
Become familiar with a broad range of research skills.
Gain proficiency in finding, designing, analysing and communicating reliable information.
Chemistry graduates pursue careers in high-demand fields, as well as further education at the PhD level.
Consulting, research, accounting, industrial development, production control, marketing, and teaching are common careers.
Other potential careers include pharmaceuticals, data science, accounting, and defence.
Further links
Contact the department
- Email: ch.admissions@imperial.ac.uk
Visit the Department of Chemistry website
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Request info
Learn more about studying at Imperial. Receive useful information about our life in our undergraduate community and download our latest Study Guide.
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Events, tasters and talks
Meet us and find out more about studying at Imperial.
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Course data
Terms and conditions
There are some important pieces of information you should be aware of when applying to Imperial. These include key information about your tuition fees, funding, visas, accommodation and more.
You can find further information about your course, including degree classifications, regulations, progression and awards in the programme specification for your course.
Programme specifications