Everything you need to know...
-
What is the fee?
Home: See fees section below
International/EU: £17,155 per year -
How long will I study?
3 / 4 Years
-
Where will I study?
-
What are the entry requirements?
-
What is the UCAS code?
C700
-
When do I start?
September 2025
-
Placement year available?
Yes
Course summary
- Study life at cellular, molecular and chemical levels.
- Combine biological and chemical modules, ranging from Cellular and Molecular Biochemistry to Medical Chemistry and Drug Synthesis.
- Tailor your degree structure to your interests and career ambitions.
- Learn how the latest scientific innovations are being used to have a positive impact on the world.
- Work with our expert staff to complete your own cutting-edge research projects in our award-winning labs using industry standard equipment.
- Take an optional placement year, enabling you to gather priceless hands-on experience in an industrial setting.
Our BSc Biochemistry course provides a theoretical and practical knowledge of biochemistry. As well as the option to take a year-long placement, you can adapt the degree to your career ambitions – choosing a biological or chemical focus. You can also transfer to the MSci route for a specialist year of research-intensive study.
Accredited by
This programme has been accredited by the Royal Society of Biology.
![ug open day with tef logo final](https://www.shu.ac.uk/-/media/home/olp/page-promo-cards/ug-open-day-with-tef-logo-final.jpg?iar=0&hash=2FDED2B83815E7BE810DF15EE987BA12)
Come to an open day
Visit us to learn more about our gold-rated teaching and why we were awarded the highest possible rating in the Teaching Excellence Framework.
Employability
100% of our graduates are in work or further study fifteen months after graduating (2021/22 Graduate Outcomes Survey).
How you learn
Student's success story
![A blonde woman wearing saftey goggles smiling at the camera while working a machine in a Bioschemistry lab.](https://www.shu.ac.uk/-/media/home/study-here/student-stories/katie-boulton-technostics-bioscience-content-listing.jpg?iar=0&sc_lang=en&hash=5C387B13A31B1240DAE2B456D1631A2D)
Katie chose to study BSc Biochemistry as a career move from working as an art & design technician and volunteering as a community first responder for South Yorkshire ambulance service and has now completed her placement year in a lab at Technostics in Hull.
You’ll be taught by active researchers and scientific experts with a history of working in the pharmaceutical industry. We encourage a hands-on approach, with your learning linked to departmental research themes to make sure you’re learning at the forefront of science.
You’ll also have opportunities to undertake research projects at the end of each year, culminating in a final year 6-week project. This could be a lab-based biochemical or chemistry project, or focus on bioinformatics, big data, computational modelling, systematic reviews, educational development or scientific communication.
You learn through:
- In-person seminars and lectures
- Independent study
- Tutorials and academic adviser sessions
- Practical lab experiences with industry-standard equipment
- Placements and research opportunities
- Real life research projects
- The latest scientific software and data analysis tools
- Problem solving and group activities
Key themes
In your first year, you’ll learn fundamental life sciences before moving onto applied modules such as biochemistry and genetics, using the latest technologies including PCR, genome sequencing, and bioinformatics software. You’ll be trained in organic and physical chemistry and analytical techniques.
In your second year, you’ll study molecular and cellular biochemistry – training in the latest analytical and bioanalytical technologies and undertaking a laboratory project. You’ll get to choose a more chemical or biological focus too.
In your third year, you’ll study applied biochemistry and advanced analytical techniques, with elective choices such as advanced therapeutics and personalised medicine, medical chemistry and drug discovery, neuroscience and neurophysiology, and genetics. You’ll also work with staff to complete an independent research project.
Course support
Throughout your learning journey, you’ll experience a range of dedicated support, such as:
- Access to specialist support services to help with your personal, academic and career development.
- Access to our Skills Centre with one to ones, webinars and online resources to help you to plan and structure your assignments.
Course leaders and tutors
![Dr Nikki Jordan-Mahy](/assets/images/4to3aspect.png)
Dr Nikki Jordan-Mahy
BSc/MSci Biochemistry Course Leader and Principal LecturerDr Nikki Jordan-Mahy is the BSc/MSci Biochemistry Course Leader and Principal Lecturer at Sheffield Hallam University. She is a graduate of Royal Holloway and Bedfor … Read more
Applied learning
Work placements
You’ll have the opportunity to complete a year-long placement between your second and third year. This gives you valuable work experience to prepare you for your future career and allows you to graduate with an Applied Professional Diploma to add to your CV.
Previous students have completed placements for companies and organisations such as Ricketts and Benkiser, Labcorp, Marks and Spencer Food, the Wellcome Sanger Institute Cambridge, and a variety of pharmaceutical and petrochemical companies.
Research projects
Throughout your degree, you’ll undertake a series of research projects in which you’ll be given a question and hypothesis to test, putting the practical skills you’ve developed throughout the year into practice within mini projects. This will help you build confidence in the laboratory, as you work towards becoming a more autonomous scientist.
You’ll then complete your own independent research project in your final year. You’ll select a topic from your preferred discipline, and you’ll work alongside a research-active member of staff.
Previous students have completed research in areas such as cancer cell biology, organic synthesis of new drugs, understanding the mechanism of disease progression, as well as bioinformatics and data analysis projects.
Live projects
You could also return to your placement host and undertake a real-world research project in their labs. In recent years, our students have undertaken research at the Sheffield Institute for Translational Neuroscience (SITRANS), Technostics Hull, Reckitt Benckiser Hull and the University of Sheffield Medical School.
Future careers
This course prepares you for a career in:
- Medical research
- Clinical science
- Analytical science
- Scientific sales and marketing
- Pharmaceutical research and development
- The biotechnology industry
- Scientific communication or journalism
- Doctoral Research
- Academia
Previous graduates of this course have gone on to work for:
- Biological Immunoassay Department at Huntingdon Life Science, Cambridge
- Marks and Spencer Foods
- Biocorp
- Reckitt Benckiser
- Labcorp
Many graduates also go on to complete further study, including PhDs at the best research institutions in the World.
Where will I study?
You study at City Campus through a structured mix of lectures, seminars and practical sessions as well as access to digital and online resources to support your learning.
City Campus
City Campus is located in the heart of Sheffield, within minutes of the train and bus stations.
City Campus map | City Campus tour
![students working on computers in the library](https://www.shu.ac.uk/-/media/home/olp/page-promo-cards/global/adsetts-library.jpg?iar=0&hash=E2AB8EF65D1391058CE543E883A7C0A6)
Adsetts library
Adsetts Library is located on our City Campus. It's open 24 hours a day, every day.
Learn moreLearn more about your department
Biosciences and Chemistry Facilities Tour
Take a look around the biosciences and chemistry facilities at Sheffield Hallam University with senior lecturer and recruitment lead Dr Susan Campbell.
Equipment and facilities
You’ll have access to a wide variety of collaborative and independent learning spaces – including our cell culture facilities, which won an S-lab award for the best refurbished laboratory. The S-lab scheme is sponsored by highly-regarded organisations including HE-STEM, the Society of Biology and the Royal Society of Chemistry.
On this course you work with:
- Our specialist laboratories using industry-standard scientific equipment and software.
- The latest molecular molecule tools such as RTqPCR, genome sequencing, cellular transfection, plus data analysis and bioinformatics software.
- Analytical tools such as HPLC, mass spectrometry, NMR and gas chromatography equipment.
- Digital resources to help with drug design and synthesis, bioinformatics and practical lab preparation, as well as full lab simulations.
We’ve invested over £100m in new facilities to help you study how and when you want. This means 24-hour libraries and study spaces designed by our students.
360 tour - biosciences and chemistry facilities
Entry requirements
All students
UCAS points
- 112-120
From A levels (including Biology and Chemistry with at least 32 points from one of these subjects) or equivalent BTEC National qualifications in applied science to include suitable biology and chemistry modules. We do not accept General Studies. We will consider a combination of qualification types. For example:
- DDM in BTEC Extended Diploma in Applied Science will be considered with relevant chemistry modules (please include units on application).
- BTEC Diploma in Applied Science D*D with relevant chemistry modules alongside other level 3 study.
- Merit overall including a grade B from the Core,- T level Science: Laboratory Technician Pathway ONLY
- A combination of qualifications including relevant subject(s), which may include AS levels or EPQ.
GCSE
- English Language or Literature at grade C or 4 or equivalents*.
- Maths at grade C or 4 or equivalents*.
You can find information on making sense of UCAS tariff points here and use the UCAS tariff calculator to work out your points.
• Access - an Access to HE Diploma from a relevant QAA-recognised Access to HE course which has mainly biology and chemistry related modules, or an equivalent Access to HE certificate. Normally we require 15 credits at level 2 and 45 at level 3 of which at least 15 level 3 credits should be graded at distinction level.
* GCSE English and mathematics equivalent.
• Equivalency test from www.equivalencytesting.co.uk.
If English is not your first language, you will need an IELTS score of 6.0 with a minimum of 5.5 in all skills, or equivalent. If your English language skill is currently below IELTS 6.0 we recommend you consider a Sheffield Hallam University Pre-sessional English course which will enable you to achieve an equivalent English score.
We strongly recommend that you tell us about any long term health conditions or disabilities you may have. This is so we can assess whether we can deliver the course in such a way that you can meet the course requirements and take part without disadvantage. You can contact our University student support staff and explore any issues you may have.
Additional information for EU/International students
If you are an International or non-UK European student, you can find out more about the country specific qualifications we accept on our international qualifications page.
For details of English language entry requirements (IELTS), please see the information for 'All students'.
Modules
Important notice: The structure of this course is periodically reviewed and enhanced to provide the best possible learning experience for our students and ensure ongoing compliance with any professional, statutory and regulatory body standards. Module structure, content, delivery and assessment may change, but we expect the focus of the course and the learning outcomes to remain as described above. Following any changes, updated module information will be published on this page.
You will be able to complete a placement year as part of this course. See the modules table below for further information.
Year 1
Compulsory modules
This module uses physiological examples to explain biochemical and genetic concepts. You’ll focus on the genetic, cellular and molecular regulation of the human body – and their impact on physiological function.
You’ll study topics such as:
-
Intracellular communication and biochemical and physiological changes
-
Investigating the structure and function of the genome of an organism
-
Using in vitro and in silico tools
-
How genomic changes can affect physiology function
-
The consequence of genetic mutations
-
Development, physiological functions, health and disease
This module develops the fundamental professional and practical skills you’ll need as a scientist. You’ll learn through seminars, workshops, tutorials and practical classes.
You’ll study topics such as:
-
Identifying and using appropriate information sources and technologies
-
The application of mathematics to scientific data
-
Effective communication
-
Consideration of ethical issues around the mini project
-
Awareness and development of employability
-
Fundamental practical training
-
Creativity and problem solving
This module develops your knowledge and understanding of the core bioscience concepts and fundamental processes of biochemistry, cellular and molecular biology, microbiology, anatomy, physiology and genetics. You’ll also explore the underpinning knowledge of basic organic and physical of chemistry, learning from seminars and tutors.
You’ll study topics such as:
-
Structure, chemical and biological functions
-
Carbohydrates, lipids, amino acids, proteins, enzymes, DNA and RNA
-
Structure and function of virus, prokaryotic and eukaryotic cells
-
Genetic regulation and control of prokaryotic and eukaryotic cells
-
Tissue and organ structures, human anatomy and physiology
-
The underpinning chemistry for bioscientists
-
Biological and environmental chemistry and pathophysiology
This module introduces the fundamental professional and practical skills you’ll need as a scientist, within a programme of seminars, workshops, tutorials and practical classes.
You’ll study topics such as:
-
Appropriate information sources and technologies
-
The application of mathematics to scientific data
-
Introduction to professional ethics
-
Introduction to global science issues
-
Introduction to sustainability and the UN Sustainability Goals
-
Effective communication
-
Awareness and development of employability
-
Fundamental practical training
This module develops your knowledge and understanding of the fundamental principles of analytical science. You’ll learn through lectures and problem-solving tutorials, further developing these topics throughout your course.
You’ll study topics such as:
-
The analytical approach including problem definition and strategy planning
-
Sample preparation, experiment calibration and quantification
-
Common separation (HPLC, GLC) and spectroscopic/spectrometric techniques
-
Data handling, back-calculations from laboratory data and spectral analysis
-
Analysis in industry
Year 2
Compulsory modules
This module explores the principles and practice of commonly used analytical techniques and methods, within the context of measurements in biochemistry, forensic science, chemical-related industries and toxicology.
You’ll study topics such as:
-
Method optimisation in chromatography
-
Derivatisation and chiral chromatography
-
Further sample prep: SPME, digestion
-
Mass spec MALDI, ESI
-
Proteomics
-
NMR assignment, elucidation, 2D
-
Further spectroscopy: Advances in UV/Vis, IR + Raman
-
Further ICP OES/MS/LA
-
Inorganic MS
-
XRD
This module enables you to apply your lab, practical and professional skills – demonstrating strong scientific practice and the employability qualities you’ll need as a scientific graduate. Through
course-focused lab-based projects, you’ll incorporate work-integrated learning using real problems and scenarios seen within the scientific industry.
You’ll apply learning and skills to:
-
Technical activities, experimental design and project management
-
Sustainability and sustainable lab practice within practical design
-
The use of appropriate information sources and technologies
-
Effective communication, presenting and written communications
-
Processes in accountability, time management and decision making
-
Applications of mathematical and statistical techniques
-
Usage of information technology for the range of scientific activities
-
Data handling and manipulation of large and complex data sets
-
Data application to bioinformatics
This module enables you to apply your practical and professional skills to demonstrate strong scientific practice and the employability qualities you’ll need as a scientific graduate. You’ll undertake
lab-based work-integrated underpinned by subject module theoretical knowledge.
You’ll apply skills and learning such as:
-
Ethical considerations and technical activities
-
Experimental design and project management
-
Use of appropriate information sources and technologies
-
Effective communication, presenting and written communications
-
Processes in accountability, time management and decision making
-
Sustainability and sustainable lab practice within practical design
-
Mathematical and statistical techniques
This module covers fundamental principles of biochemistry and cellular processes including the structure and function of biomolecules, energy production and gene expression. Through lectures, tutorials and practical sessions, you’ll learn about cell biology, cycle regulation and the relationship between cellular biochemistry and disease.
You’ll study topics such as:
-
Chemical structure and functional properties
-
Pathways involved in energy production and metabolism
-
Gene expression mechanisms
-
Cellular structure, organelles and function
-
Cellular signalling pathways
-
Biochemical processes
-
Ethical considerations in biochemistry research
-
Use of animal models
-
The potential implications of biotechnology advances
Elective modules
This module provides knowledge of the immune system, its components and functions, and broadens your knowledge of viral, prokaryotic and eukaryotic microorganisms. It also aims to provide an understanding of how microbes interact with humans and the environment.
You’ll study topics such as:
-
Innate and adaptive immunity
-
Lymphoid tissues and organs
-
Soluble factors: antibodies, cytokines
-
Antigen recognition, lymphocyte and complement activation
-
Antibody-mediated and cell-mediated effector mechanisms
-
Vaccination, immunotherapy and pathogenic mechanisms
-
Virulence, treatment, pathogenicity and epidemiology
-
Hospital-acquired infections, control and drug-resistance
-
Bacterial genetics, food, water and environmental health
-
Sexually transmitted diseases and antibiotic resistance
This module explores the important materials in the world – natural and synthetic organic compounds – and the continuing need for new materials, drugs, polymers and biomolecules. To have the ability to synthesise these, we must understand how organic compounds react and can be used to prepare important new compounds.
You’ll study topics such as:
-
Natural product chemistry
-
Chemistry of carbonyl compounds
-
Reactions of nucleophiles with aldehydes and ketones
-
Reactions of nucleophiles
-
Nucleophilic aromatic substitution reactions and their mechanisms
-
Biosynthesis of natural products
-
Synthesis and reactions of pyridine, quinoline and pyrrole
Year 3
Compulsory modules
Module aim:
The aim of this module is to enhance students’ professional development through the completion of and reflection on meaningful work placement(s).
A work placement will provide students with opportunities to experience the realities of professional employment and experience how their course can be applied within their chosen industry setting.
The placement will:
-
Allow student to apply the skills, theories and behaviours relevant and in addition to their course
-
Enable students to enhance their interpersonal skills in demand by graduate employers – communication, problem solving, creativity, resilience, team work etc
-
Grow their student network and relationship building skills
-
Provide student with insights into the industry and sector in which their placement occurs
-
Help student make informed graduate careers choices
Indicative Content:
In this module students undertake a sandwich placement (min 24 weeks / min 21 hours per week) which is integrated, assessed and aligned to their studies.
Their personal Placement Academic Supervisor (PAS) will be their key point of contact during their placement and will encourage and support students to reflect on their experience, learning and contribution to the organisation they work for.
To demonstrate gains in professional development, students will be required to share their progress, learning and achievements with their Placement Academic Supervisor and reflect on these for the summative piece of work.
Final year
Compulsory modules
This module provides theoretical principles of modern analytical science, bioinformatics and chemometrics tools. You’ll expand your critical thinking and informed decision-making processes in the selection of techniques and methods – critically applying your knowledge to solve problems of chemical, biochemical, biotechnological and forensic interest.
You’ll study topics such as:
-
Advanced mass spectrometry (MS)
-
Ionisation techniques
-
Advanced mass analysers
-
Peptide sequencing via MS/MS
-
Protein nuclear magnetic resonance
-
Chemometrics
Module Aim:
To support students to develop, evidence, reflect on and improve their employment skills within the context of their career aspirations, the work-place and their own scientific discipline.
Indicative content:
-
Employment and further study opportunities for Biosciences & Chemistry graduates both in scientific and non-scientific settings
-
Oral and written communication of employability skills
Delivered through a programme of workshops and tutorials covering employment opportunities and skills.
Development and articulation of employability is embedded within all courses through the Professional & Scientific Practice modules that run from level 4 to level 6.
This module provides a comprehensive understanding of the structure, function and regulation of biological molecules and pathways, with a focus on their practical applications in research, biotechnology and medicine. You’ll gain the skills to examine biomolecular structure and function, manipulate DNA for biotechnological purposes, and study how biomolecular interactions control events at molecular and cellular levels.
You’ll study topics such as:
-
New and developing biochemical techniques
-
Applications to health, sustainability and climate change
-
Synthesis of proteins and biomolecules
-
Genetic manipulation using biochemical techniques
-
Modification of organisms through cloned genes
-
Altering the biological properties of proteins
-
Investigating biomolecular and genomic function
-
Transcriptional and translational regulation
-
Signalling pathways in cell biology
-
Metabolic pathways leading to systems biology
-
High resolution cellular imaging
Module Aim:
The module aims to expand students’ ability to independently follow a research strategy, undertake critical assessment of data obtained and to extend and apply professional and personal skills required for the planning and implementation of a research activity. The student will develop their communication skills following scientific standards. Teaching is delivered through multiple activities, lab- and non-based, online, in person, both in groups and individually.
Indicative content:
Projects will be allocated a project from a pool of topics related to academic staff’s research and professional interests.
Topics will be course relevant and can span across chemistry, biochemistry, analytical science, pedagogy, biomedical sciences, biology and bioinformatics, with each grouping containing several sub-topics.
Elective modules
This module explores modern academic and industrial synthetic approaches to high-value fine chemicals, such as pharmaceuticals, metal complexes, agrochemicals, flavourings and fragrances. The module is heavily based on problem-solving – planning creative and viable synthetic routes to complex target molecules of industrial relevance.
You’ll study topics such as:
-
Synthetic routeplanning
-
Protecting group strategies
-
Asymmetric synthesis
-
Diastereoselective synthesis
-
Synthesis of transition metal complexes
-
Homogeneous catalysis
-
Transition metal catalysed cross-coupling
This module takes concepts learned at level 4 and level 5 and uses them to build higher-order, highly sought-after transferrable skills. These skills are invaluable for capstone research projects, which take place the following semester, as well as for graduate employers.
This module expands your knowledge of genetic concepts. Through seminars and remote learning, you’ll explore the latest advances in our understanding of genetics across the living world.
You’ll study topics such as:
-
Genes, chromosomes and heredity
-
DNA structure, replication and organisation
-
Gene expression and its regulation
-
Genetics of organisms and populations
This module develops your understanding of how novel biological therapies and cellular therapies are designed and used clinically, and how advanced DNA sequencing approaches support personalised medicine approaches. We’ll also explore wider implications of cost in the context of health inequality.
You’ll study topics such as:
-
The genetic basis of diseases, including cancer.
-
Next generation sequencing technologies
-
Targeted sequencing approaches.
-
Liquid biopsies and circulating tumour DNA (ctDNA)
-
Aassessing minimal residual disease and therapy responses
-
Cancer vaccines
-
Chimeric Antigen Receptor-T cell therapy (CAR-T)
-
Therapeutic outcomes of the 100K genomes study
-
Ex vivo gene therapy
-
Therapeutic antibodies and biologic therapies
This module introduces big data and how data sets can be exploited to extract meaningful insights, delivered through taught sessions (on campus and online) and practical workshops. You’ll explore the concepts and theories that underpin data science, gaining an understanding of how big data is generated, and hands-on experience with analysing and presenting data effectively using coding platforms.
You’ll study topics such as:
-
Application of coding to biosciences and chemistry
-
Bioinformatics tools
-
Analysis of data from systems biology
-
Statistical analysis of large data
This module develops your understanding of the development and discovery of drugs and the structure and role of the pharmaceutical industry. You’ll explore fundamental concepts of drug action and how manipulations of structure achieve optimum pharmacodynamic and pharmacokinetic profiles for drugs – while gaining an awareness of the impact of new technologies on the discovery and development of pharmacological agents.
You’ll study topics such as:
-
The structure of the pharmaceutical industry
-
Drug development, from discovery to market
-
Influence of physical properties on drug action
-
Pharmacokinetics and pharmacodynamics of drugs
-
Chemical structure and biological activity
-
Therapeutic uses of drugs
-
Drugs used to treat human diseases
This module provides in-depth understanding of neuroscience, neurophysiology and neurobiology, including an awareness of the impact of new technologies and concepts which can be translated to other body systems. Through lectures and seminars, you’ll apply the knowledge base developed to consider technical advances for treating specific neurological diseases and other systems diseases.
You’ll study topics such as:
-
Brain anatomy and physiology
-
Action potential, synapses and postsynaptic responses
-
Functional systems (e.g. limbic system)
-
Neurotransmitters and receptors
-
Neuroplasticity
-
Specific areas and pathways
-
Aging brain
-
Advances in diagnostic techniques
-
Therapies for neurological and other diseases
This module reviews the basic pharmacodynamic and pharmacokinetic concepts of drug action, creating an awareness of the impact of new technologies and concepts on the discovery and development of pharmacological agents. You’ll consider the pharmacological properties of drugs used to treat and prevent specific human diseases, as well as the impact of pharmacological agents on global health and wellbeing.
You’ll study topics such as:
-
How drugs act in general and at a molecular level
-
Drug specificity and selectivity
-
Drug receptors, enzymes, channels and transporters
-
Types of drugs
-
Quantitative analysis of drug actions
-
Drug administration and absorption
-
Drug distribution, metabolism and elimination
-
Therapeutic use of drugs
-
Personalised medicine and precision medical science
-
Development of drugs from discovery to market
Fees and funding
Home students
Our tuition fee for UK students on full-time undergraduate courses in 2025/26 is £9,535 per year (capped at a maximum of 20% of this during your placement year). These fees are regulated by the UK government and therefore subject to change in future years.
If you are studying an undergraduate course, postgraduate pre-registration course or postgraduate research course over more than one academic year then your tuition fees may increase in subsequent years in line with Government regulations or UK Research and Innovation (UKRI) published fees. More information can be found in our terms and conditions under student fees regulations.
International students
Our tuition fee for International/EU students starting full-time study in 2025/26 is £17,155 per year (capped at a maximum of 20% of this during your placement year)
![Students sat on a sofa](https://www.shu.ac.uk/-/media/home/olp/page-promo-cards/global/gi0016-pg-fee-promo-2.jpg?iar=0&sc_lang=en&hash=031C7118E263C75183FF59CBC20B310C)
Financial support for home/EU students
How tuition fees work, student loans and other financial support available.
Additional course costs
The links below allow you to view estimated general course additional costs, as well as costs associated with key activities on specific courses. These are estimates and are intended only as an indication of potential additional expenses. Actual costs can vary greatly depending on the choices you make during your course.
General course additional costs
Additional costs for Biosciences and Chemistry (PDF, 131.3KB)Legal information
Any offer of a place to study is subject to your acceptance of the University’s Terms and Conditions and Student Regulations.