BSc (Hons) or MSci (Hons) — 2026 entry Biochemistry
Biochemistry is at the heart of life and the explanation of all life processes. On our accredited BSc/MSci Biochemistry, you’ll gain an understanding of complex biochemical processes, such as health, disease and ageing, and learn in a research-active environment.
Learn how technology and genetic principles can be used to tackle global challenges like world hunger, insulin shortages and vaccine production.
Immerse yourself in some of the ground-breaking research being done at Surrey on sleep, ageing, immunology, pharmacology, virology and more.
Choose our integrated masters pathway and complete an extended laboratory-based dissertation, preparing you for a technical research career in industry or academia.
During the first two years of our Biochemistry course, you’ll develop a broad understanding of biochemistry, its methodology and some of its most intriguing applications. You’ll get to choose optional modules in bacteriology, biodiversity, neuroscience and virology.
In your third year, you’ll select five optional modules, exploring topics such as genetics, immunology, pharmacology, systems biology and toxicology. You’ll also complete a research project, bringing together all the practical, analytical and presentation skills you’ve developed. Previous students have had their work published in top-tier journals, including the European Journal of Neuroscience and the Journal of Virology and Sleep.
If you choose to complete an integrated masters you will have an additional research-focused year of study. You’ll cover advanced techniques in biochemistry and you’ll enhance your scientific communication skills. During the year, you’ll be presented with several therapy areas and drug targets that you’ll develop a portfolio review for. You’ll then present your work to industry experts in a bid for funding. You'll also be given a research problem that you’ll propose a critical experimental plan for, incorporating a range of appropriate biochemical techniques. You’ll complete a laboratory-based dissertation investigating topics like antibody class switching in B cells and neurodegenerative diseases.
Professional recognition
BSc (Hons) - Royal Society of Biology Accredited by the Royal Society of Biology for the purpose of meeting, in part, the academic and experience requirement of membership and Chartered Biologist (CBiol).
Foundation year
If you don’t meet our entry requirements, you might still be able to apply for this degree with a Biosciences Foundation Year. This is an extra year of study to develop your skills and make it easier for you to get started at university. On successful completion of your foundation year, you’ll be ready to progress to the first year of your degree.
To see what modules you’ll be studying, refer to the foundation tab in the 'Course structure' section.
The academic year is divided into two semesters of 15 weeks each. Each semester consists of a period of teaching, revision/directed learning and assessment.
The structure of our programmes follow clear educational aims that are tailored to each programme. These are all outlined in the programme specifications which include further details such as the learning outcomes.
Please note: Thefull module listing for the optional Professional Training placement part of your course is available in the relevant programme specification.
Modules
Modules listed are indicative, reflecting the information available at the time of publication. Modules are subject to teaching availability, student demand and/or class size caps.
The University operates a credit framework for all taught programmes based on a 15-credit tariff.
This module introduces students to the structures within a cell and their functions, including an understanding of the processes by which cells divide and die. The module then considers how cell structure and function can be adapted to specialise cells for particular purposes, and begins to consider how different types of cell are able to interact with one another and their environment in order to form higher order structures such as tissues and organs. Overarching these themes are four practical classes which illustrate the way in which cells and tissues can be studied.
The purpose of this module is to introduce students to microorganisms, to the main cellular processes they perform and to how their activities affect humans and the environment. The students learn about microorganisms that cause disease as well as those who have properties we exploit for the benefit of society. Finally through laboratory practical exercises, the students learn and practice a range of basic microbiological techniques, which are essential for the cultivation and study of microorganisms. This module provides students with key skills and a basic broad knowledge of microbiology; a fundamental discipline required for future endeavors in the fields of infectious disease, biotechnology, biomedical science, biological science and other medically-related fields.
This module aims to begin the students on a journey to facilitate the communication and passion for their subject, enabling them to develop and refine communication skills for further study. The students are guided through the development of key employability skills such as literature querying, critical reading and referencing, towards the discovery of a range of highly of high profile topic for their own research. Working in groups, students choose a topic which constitute the focus of their assessment, and learn to leverage on team work and personal resilience. Through the production of a group presentation and an individual summary, students develop important competences in the science communication field which strengthen their employability and academic proficiency.
This module aims to introduce students from all backgrounds to the principles of regulation of homeostasis. It provides a foundational knowledge to which principles can be applied in the control of several model systems to maintain homeostasis. The content builds upon content from Cell Biology and Biochemistry in semester 1 of level 4 and this essential knowledge is utilised in multiple modules at levels 5 and 6. Students will develop their practical skills in a number of scenarios, including exercise physiology, use of digital technologies to determine and monitor physiological outputs relating to model systems covered in the content. Laboratory skills are further developed from semester 1, data analysis and use of graphing software is cemented using lab derived data.
The purpose of this module is to give a broad introduction to the essential concepts of molecular biology and genetics that are critical to any undergraduate programme in biosciences. We will cover the central dogma of biology: how information is passed from DNA to RNA to protein, and how it is inherited throughout generations. We will examine how genomes are organized and the structure of a gene, initially focusing on prokaryotes. We will discuss the details of DNA replication, transcription and translation and examine some of the key concepts in gene regulation. Students will also be introduced to laboratory and bioinformatic techniques essential for the study of molecular biology. They will also hone their skills in scientific writing through the production of a laboratory report and short essay.
This is a practical module, the aim of which, is to equip students with the critical technical skills used in bacteriology and to familiarize them with key diagnostic tests that are relevant to students on BSc programmes in Biomedical Sciences, Microbiology and Biochemistry. This module builds upon critical concepts and practical techniques covered in BMS1026, and introduces students to a range of medically and environmentally globally important bacteria, and is a key module for the microbiology programme.
Understanding the principles of evolution is essential for the study of biosciences. This module will embed an appreciation of why organisms look, behave and interact with others in the way they do. Students will study the central principles that have led to the diversity of life on Earth today. We will explore the process of natural selection including how the theory was developed and the evidence that supports it, as well as other forces responsible for evolutionary processes. We will study a range of examples including how genomes evolve, how bacteria become resistant to antibiotics, coevolution and how humans evolved to be as we are today. Students will use analytical tools in evolutionary biology research to complete a hands-on laboratory practical. This module lays the foundations for building knowledge about the general principles of evolution and the evolutionary mechanisms of adaptation, which you will apply in the second year to study animal anatomy and physiology (BMS2062), their role in ecosystems (BMS2070), and the development of microbial communities and antibiotic resistance (BMS2044). Additionally, in the final year, you will apply these principles to animal diversity (BMS3095) and animal behavior (BMS3096).
This module aims to introduce you as a biochemistry student to key principles of chemistry and how these can be applied to biological molecules that are essential to life. It provides a foundational knowledge of their structures and functions alongside when, where and how they are generated and broken down. The content builds up alongside content from Cell Biology and Physiology modules at this level to help you understand how these can be utilised at a cellular and organismal level and the conditions under which they are regulated. This provides an essential base upon which knowledge is utilised in multiple modules at levels 5 and 6. You will develop your awareness of the need for safety procedures, equipment and organisation in the laboratory, alongside the equipment that is needed to determine how processes in the module content occur and what conditions will affect these. You will learn how to calculate a yield of your product and identification of chemical compounds to confirm the identify of your products. You will learn to analyse data using appropriate software including a basic level of computer coding. Laboratory skills are build up throughout the module across both semesters, supporting you to become more independent, plan your experiments and be critical of your work and results, reflecting on how the results may change with refinements to the competency and type of experimental methods.
This module will cover three broad topics, namely Metabolism in Health & Disease (Dr Alfred Thumser & Dr Sarah Bailey), Cell Signalling (Dr Sarah Bailey) and Diabetes mellitus (Dr Matin Whyte & Dr Ben Field)
This Molecular biology/genetics module builds up on its first-year sister module BMS1047. The key difference from BMS1047 is that it focusses on eukaryotic molecular biology and techniques to evaluate various molecular biology processes, including more genome-wide aspects, and the significance of molecular biology mechanisms in the real world, for e.g., in cancer. Another key difference is that this module covers molecular biology in greater depth, in particular the regulatory aspects of molecular biology. Overall, you will develop oral and written communication skills in molecular biology and genetics and will be able to appreciate the differences between the eukaryotic and prokaryotic molecular systems. Lectures are covered in a block of the following six themes. Advanced human genetics/genomics à The lectures will cover the human genome, natural genetics variations, sequencing genes and genomes, the genotype-phenotype map to include Mendelian genetics/genetic diseases, the transmission of information, and the concept of recombination. Eukaryotic DNA replication à Packaging of DNA, its organization on chromosomes and alignment with the cell cycle (telomeres, crossing over/recombinant). Enzymes needed for DNA replication with a reflection of BMS1047, key differences between Pro- and Eukaryotes, and techniques to study replication. Eukaryotic DNA transcription à Eukaryotic Cis and trans elements in transcription, post-transcription modifications of transcripts and molecular biology methods to study/quantify transcripts, key differences between Pro- and Eukaryotes, enhancer/mediator complex, cDNA synthesis. control of transcription. Post-transcriptional regulation à Molecular mechanisms of splicing, polyadenylation (mechanisms); Cytoplasmic events: RNA export, localization, regulation by lnc/miRNAs, RNA decay. Eukaryotic mRNA translation à Eukaryotic regulation, global and specific regulation of transcription. Techniques to study Eukaryotic translation. regulation of translation by the proteasome. Application of human genetic inheritance and gene expression in cancer, errors in DNA replication & their correction. Practical componentà RNA extraction & quantification, reverse transcription and RT-PCR followed by electrophoresis.
This module aims to build upon the principles of feedback and basic systems covered at level 4. In this module we go into greater depth about the homeostatic control through the use of nervous, endocrine and other control mechanisms. Students will build upon biochemical principles of receptors and second messengers as key components of feedback mechanisms, applying this to whole-body regulation. Investigation and integration of multiple systems and their response to the same mediator is an essential part of this module. Students will develop their oral and written communication skills within a scientific discipline, enabling them to explain & extrapolate both theoretical knowledge & perform data analysis.
This module is designed to introduce the structure and function of the nervous system in animals and humans.Students will develop an advanced understanding of selected aspects of the nervous system and brain function.The module focuses on providing information across different levels of explanation, including single molecules, cellular, neuronal networks and complex behaviours. Students will develop their skills in understanding and synthesising scientific knowledge by presenting published neuroscientific results in video, poster, or essay format.
This module is designed to develop an understanding of concepts of bacteriology, protozoology mycology, and virology, with a particular emphasis on pathogenic microbes. Each lecture or group of lectures studies a particular group of microbes. These pathogens are chosen as representative on the basis of their biological characteristics, and also from a global perspective. The module also includes tutorial discussions and laboratory practical classes to further develop deeper understanding and broader application of the topics included in this module. Laboratory sessions will aid your understanding of the theory and enable development of practical and employability skills.
The Module will cover a range of topics that will address analytical techniques in research and clinical laboratories, as well as addressing data analysis and statistics.
The purpose of this module is to provide a conceptual understanding of the key principles of human immunology, including the immune response to infection and foreign antigens. Such an understanding is crucial in many other parts of the programme, including the pathogenicity of infectious disease, oncology and pharmacology. It is a prerequisite for modules at FHEQ level 6 including BMS3054 (Clinical Immunology and Immunohaematology), BMS3102 (Advanced Topics in Cellular and Molecular Immunology) and BMS3104 (Applied Immunology).
This module addresses the essential need for students to understand the concepts of the pathogenesis of major human diseases and provides students with important background knowledge to understand clinical (or analytical) medicine. The contents of this module bridge basic science with the pathology of human disease and medical science including the understanding of the principles of major organ diseases in the human body.
The purpose of the module is to introduce the subject of Pharmacology. They will apply their knowledge of Biochemistry and Physiology to understand the mechanism of action of key current drugs. With a particular focus on the following systems: cardiovascular, neurological, anti-inflammatory, -infectives and -cancer. Students will also consider how the body deals with drugs, namely absorption, distribution, metabolism and excretion (ADME).
The purpose of this module is for students to propose potential pharmacotherapeutic targets for conditions of their choice. Here the academic staff introduce a signaling pathway, group of receptors, channels, enzymes, they also provide some case studies of areas of targeting. Students then take this knowledge and build on it and through their own research propose a target.
This module builds on your knowledge gained in year 2 of the immune system (BMS2045) to explore a series of interlinked themes in molecular and cellular immunology providing in-depth knowledge of fundamental immune processes and covering the most current topics and state-of-the-art technology. The themes will be lead and delivered by experts in each area and therefore will provide a sense of the frontier of immunology research. Tutorials and course work will aid your understanding of the theory, and enable development of employability skills including communication, critical appraisal and analytic skills.
Systems Biology is widely accepted as a major future direction of biological research. The ethos of Systems Biology is to generate, analyse, and integrate multiple data sets for understanding and modelling a biological system. We want to know the components (molecules) of the system, how they work/interact together, and, ideally, have some quantitation: the abundance of a particular component and/or the rates of action/interaction. Due to technological advances within molecular biology, we are now able to obtain quantitative information about molecules within a biological system on both small and large scales. The purpose of this module is to introduce students to the basic concepts of Systems Biology for health and disease. The module includes subjects relevant to prokaryotic and eukaryotic systems and is thus suitable for all bioscience students. Learning methods include: lectures, seminars, computer practical sessions, article discussion, workshops, and research and problem solving during both lectures and computer-based investigations.
The purpose of this module is to give students a clear view of how and where genetics is used in the ‘real world’. This module will build on the basics of molecular biology and genetics taught in Levels 4 and 5, and will expect students to utilise this prior knowledge and content given in lectures and in the problem-based learning assessments. This module requires application of understanding and problem solving skills.
Gives the student a broad understanding of cancer as an umbrella term for a complex set of different diseases unified by common cellular mechanisms. Students will examine the biological processes underlying cancer and have an appreciation of a range of clinically relevant diagnostic and therapeutic approaches. The emphasis is on human studies and clinical data, with animal studies and cancer-relevant pre-clinical models also presented. This module fits well within a biomedical sciences program.
The Neuroscience module is following the Neuroscience FHEQ Level 5 which provided the bases in Neuroscience. This second module will run over one semester and will provide students with a comprehensive research-led overview of several current hot topics in Neuroscience built around 4 intricate topics: neuroendocrinology, sleep, neuroplasticity and brain disorders. Emphasis will be placed on integration of knowledge from the different areas presented in the lectures. In addition, evaluation of skills for understanding, synthesis/analysis and interpretation of scientific data will be addressed throughout all research-led lectures and assessments.
The Biological Rhythms module is designed to provide students with a comprehensive, research-led overview of current topics in Biological Rhythms, with an emphasis on mammalian Chronobiology. The module builds on critical evaluation skills developed in previous modules, including appraisal and interpretation of scientific literature and evaluating current gaps in our knowledge. The module is delivered as a mix of lectures, online content, and several tutorials in which knowledge is integrated and evaluated. The summative assessment of this module consists of two pieces of course work, in which students apply skills in digital literature searches, resourcefulness in evaluating literature and interpreting current knowledge to develop forward-looking views that apply and validate research insights in real world conditions.
Pharmacokinetics and Toxicology is the science of safety: It is the study of how exogenous chemicals enter and are disposed of by the body, and the effects that they can have on the organ systems of the body. Toxicology is designed to minimise the risk of harm to humans from exposure to any of the thousands of chemicals that we use every day. In this module, we will look at the basic mechanisms of how chemicals may cause harm to living organisms. We will look at a number of examples of target organ toxicity with reference to how drugs/xenobiotics are processed by the body. We will examine the mathematical patterns of drug administration and excretion and learn to explain these and determine their meaning, these concepts will be brought together through a series of case study workshops where mathematical data will be handled and examined.
The final year research project develops practical, analytical, literature sourcing and presentation skills that have been acquired during the typical undergraduate degree programme. The projects provided as part of this module reflect topics and modes of research that are undertaken in the School of Biosciences based of the expertise of our academic staff and hence cover a wide variety of the United Nation’s Sustainability Development Goals around health, the environment and hunger. Modes of research include laboratory-based; in silico; computational; fieldwork, data-analysis, and grant proposals. Research project allocations are usually made based on students’ indication of their preferred projects from a catalogue provided at the start of the academic year. Students should liaise regularly with their supervisor(s) throughout the academic year as they progress with the research, building their independence as a researcher by searching for information, planning experiments/analysis approaches or formulating grant proposals, analysing data, drawing up conclusions and developing oral and written communication skills: all of which will help them develop employability competencies and skills. Students are expected undertake a critical review of the literature of their topic through literature searches and the use of bibliographic databases, which will help them to develop resourcefulness. Students will build up resilience by directly investigating a scientific question/hypothesis that may include designing their own approach or experimental plan (with support from the supervisor(s)) to investigate the question/hypothesis. The use of statistical software and other digital platforms/specialist analytical software for literature searching/meta-analysis etc will help students increase their digital capability. During any practical or skills development sessions, students will learn how to work in a laboratory, the value of resources, how to work in a laboratory environment and best practice to be sustainable, all of which will help them develop responsibility and global and cultural capabilities The final sign-off for passing the Practical Skills Record is also incorporated into this module.
This module introduces students to the structures within a cell and their functions, including an understanding of the processes by which cells divide and die. The module then considers how cell structure and function can be adapted to specialise cells for particular purposes, and begins to consider how different types of cell are able to interact with one another and their environment in order to form higher order structures such as tissues and organs. Overarching these themes are four practical classes which illustrate the way in which cells and tissues can be studied.
The purpose of this module is to introduce students to microorganisms, to the main cellular processes they perform and to how their activities affect humans and the environment. The students learn about microorganisms that cause disease as well as those who have properties we exploit for the benefit of society. Finally through laboratory practical exercises, the students learn and practice a range of basic microbiological techniques, which are essential for the cultivation and study of microorganisms. This module provides students with key skills and a basic broad knowledge of microbiology; a fundamental discipline required for future endeavors in the fields of infectious disease, biotechnology, biomedical science, biological science and other medically-related fields.
This module aims to begin the students on a journey to facilitate the communication and passion for their subject, enabling them to develop and refine communication skills for further study. The students are guided through the development of key employability skills such as literature querying, critical reading and referencing, towards the discovery of a range of highly of high profile topic for their own research. Working in groups, students choose a topic which constitute the focus of their assessment, and learn to leverage on team work and personal resilience. Through the production of a group presentation and an individual summary, students develop important competences in the science communication field which strengthen their employability and academic proficiency.
This module aims to introduce students from all backgrounds to the principles of regulation of homeostasis. It provides a foundational knowledge to which principles can be applied in the control of several model systems to maintain homeostasis. The content builds upon content from Cell Biology and Biochemistry in semester 1 of level 4 and this essential knowledge is utilised in multiple modules at levels 5 and 6. Students will develop their practical skills in a number of scenarios, including exercise physiology, use of digital technologies to determine and monitor physiological outputs relating to model systems covered in the content. Laboratory skills are further developed from semester 1, data analysis and use of graphing software is cemented using lab derived data.
The purpose of this module is to give a broad introduction to the essential concepts of molecular biology and genetics that are critical to any undergraduate programme in biosciences. We will cover the central dogma of biology: how information is passed from DNA to RNA to protein, and how it is inherited throughout generations. We will examine how genomes are organized and the structure of a gene, initially focusing on prokaryotes. We will discuss the details of DNA replication, transcription and translation and examine some of the key concepts in gene regulation. Students will also be introduced to laboratory and bioinformatic techniques essential for the study of molecular biology. They will also hone their skills in scientific writing through the production of a laboratory report and short essay.
This is a practical module, the aim of which, is to equip students with the critical technical skills used in bacteriology and to familiarize them with key diagnostic tests that are relevant to students on BSc programmes in Biomedical Sciences, Microbiology and Biochemistry. This module builds upon critical concepts and practical techniques covered in BMS1026, and introduces students to a range of medically and environmentally globally important bacteria, and is a key module for the microbiology programme.
Understanding the principles of evolution is essential for the study of biosciences. This module will embed an appreciation of why organisms look, behave and interact with others in the way they do. Students will study the central principles that have led to the diversity of life on Earth today. We will explore the process of natural selection including how the theory was developed and the evidence that supports it, as well as other forces responsible for evolutionary processes. We will study a range of examples including how genomes evolve, how bacteria become resistant to antibiotics, coevolution and how humans evolved to be as we are today. Students will use analytical tools in evolutionary biology research to complete a hands-on laboratory practical. This module lays the foundations for building knowledge about the general principles of evolution and the evolutionary mechanisms of adaptation, which you will apply in the second year to study animal anatomy and physiology (BMS2062), their role in ecosystems (BMS2070), and the development of microbial communities and antibiotic resistance (BMS2044). Additionally, in the final year, you will apply these principles to animal diversity (BMS3095) and animal behavior (BMS3096).
This module aims to introduce you as a biochemistry student to key principles of chemistry and how these can be applied to biological molecules that are essential to life. It provides a foundational knowledge of their structures and functions alongside when, where and how they are generated and broken down. The content builds up alongside content from Cell Biology and Physiology modules at this level to help you understand how these can be utilised at a cellular and organismal level and the conditions under which they are regulated. This provides an essential base upon which knowledge is utilised in multiple modules at levels 5 and 6. You will develop your awareness of the need for safety procedures, equipment and organisation in the laboratory, alongside the equipment that is needed to determine how processes in the module content occur and what conditions will affect these. You will learn how to calculate a yield of your product and identification of chemical compounds to confirm the identify of your products. You will learn to analyse data using appropriate software including a basic level of computer coding. Laboratory skills are build up throughout the module across both semesters, supporting you to become more independent, plan your experiments and be critical of your work and results, reflecting on how the results may change with refinements to the competency and type of experimental methods.
Optional modules for Year 1 (with PTY) - FHEQ Level 4
1 from 2 listed optional modules
Year 2 - BSc (Hons) with placement
Semester 1
Compulsory
This module will cover three broad topics, namely Metabolism in Health & Disease (Dr Alfred Thumser & Dr Sarah Bailey), Cell Signalling (Dr Sarah Bailey) and Diabetes mellitus (Dr Matin Whyte & Dr Ben Field)
This Molecular biology/genetics module builds up on its first-year sister module BMS1047. The key difference from BMS1047 is that it focusses on eukaryotic molecular biology and techniques to evaluate various molecular biology processes, including more genome-wide aspects, and the significance of molecular biology mechanisms in the real world, for e.g., in cancer. Another key difference is that this module covers molecular biology in greater depth, in particular the regulatory aspects of molecular biology. Overall, you will develop oral and written communication skills in molecular biology and genetics and will be able to appreciate the differences between the eukaryotic and prokaryotic molecular systems. Lectures are covered in a block of the following six themes. Advanced human genetics/genomics à The lectures will cover the human genome, natural genetics variations, sequencing genes and genomes, the genotype-phenotype map to include Mendelian genetics/genetic diseases, the transmission of information, and the concept of recombination. Eukaryotic DNA replication à Packaging of DNA, its organization on chromosomes and alignment with the cell cycle (telomeres, crossing over/recombinant). Enzymes needed for DNA replication with a reflection of BMS1047, key differences between Pro- and Eukaryotes, and techniques to study replication. Eukaryotic DNA transcription à Eukaryotic Cis and trans elements in transcription, post-transcription modifications of transcripts and molecular biology methods to study/quantify transcripts, key differences between Pro- and Eukaryotes, enhancer/mediator complex, cDNA synthesis. control of transcription. Post-transcriptional regulation à Molecular mechanisms of splicing, polyadenylation (mechanisms); Cytoplasmic events: RNA export, localization, regulation by lnc/miRNAs, RNA decay. Eukaryotic mRNA translation à Eukaryotic regulation, global and specific regulation of transcription. Techniques to study Eukaryotic translation. regulation of translation by the proteasome. Application of human genetic inheritance and gene expression in cancer, errors in DNA replication & their correction. Practical componentà RNA extraction & quantification, reverse transcription and RT-PCR followed by electrophoresis.
This module aims to build upon the principles of feedback and basic systems covered at level 4. In this module we go into greater depth about the homeostatic control through the use of nervous, endocrine and other control mechanisms. Students will build upon biochemical principles of receptors and second messengers as key components of feedback mechanisms, applying this to whole-body regulation. Investigation and integration of multiple systems and their response to the same mediator is an essential part of this module. Students will develop their oral and written communication skills within a scientific discipline, enabling them to explain & extrapolate both theoretical knowledge & perform data analysis.
This module is designed to introduce the structure and function of the nervous system in animals and humans.Students will develop an advanced understanding of selected aspects of the nervous system and brain function.The module focuses on providing information across different levels of explanation, including single molecules, cellular, neuronal networks and complex behaviours. Students will develop their skills in understanding and synthesising scientific knowledge by presenting published neuroscientific results in video, poster, or essay format.
This module is designed to develop an understanding of concepts of bacteriology, protozoology mycology, and virology, with a particular emphasis on pathogenic microbes. Each lecture or group of lectures studies a particular group of microbes. These pathogens are chosen as representative on the basis of their biological characteristics, and also from a global perspective. The module also includes tutorial discussions and laboratory practical classes to further develop deeper understanding and broader application of the topics included in this module. Laboratory sessions will aid your understanding of the theory and enable development of practical and employability skills.
The Module will cover a range of topics that will address analytical techniques in research and clinical laboratories, as well as addressing data analysis and statistics.
The purpose of this module is to provide a conceptual understanding of the key principles of human immunology, including the immune response to infection and foreign antigens. Such an understanding is crucial in many other parts of the programme, including the pathogenicity of infectious disease, oncology and pharmacology. It is a prerequisite for modules at FHEQ level 6 including BMS3054 (Clinical Immunology and Immunohaematology), BMS3102 (Advanced Topics in Cellular and Molecular Immunology) and BMS3104 (Applied Immunology).
This module addresses the essential need for students to understand the concepts of the pathogenesis of major human diseases and provides students with important background knowledge to understand clinical (or analytical) medicine. The contents of this module bridge basic science with the pathology of human disease and medical science including the understanding of the principles of major organ diseases in the human body.
The purpose of the module is to introduce the subject of Pharmacology. They will apply their knowledge of Biochemistry and Physiology to understand the mechanism of action of key current drugs. With a particular focus on the following systems: cardiovascular, neurological, anti-inflammatory, -infectives and -cancer. Students will also consider how the body deals with drugs, namely absorption, distribution, metabolism and excretion (ADME).
The purpose of this module is for students to propose potential pharmacotherapeutic targets for conditions of their choice. Here the academic staff introduce a signaling pathway, group of receptors, channels, enzymes, they also provide some case studies of areas of targeting. Students then take this knowledge and build on it and through their own research propose a target.
This module builds on your knowledge gained in year 2 of the immune system (BMS2045) to explore a series of interlinked themes in molecular and cellular immunology providing in-depth knowledge of fundamental immune processes and covering the most current topics and state-of-the-art technology. The themes will be lead and delivered by experts in each area and therefore will provide a sense of the frontier of immunology research. Tutorials and course work will aid your understanding of the theory, and enable development of employability skills including communication, critical appraisal and analytic skills.
Systems Biology is widely accepted as a major future direction of biological research. The ethos of Systems Biology is to generate, analyse, and integrate multiple data sets for understanding and modelling a biological system. We want to know the components (molecules) of the system, how they work/interact together, and, ideally, have some quantitation: the abundance of a particular component and/or the rates of action/interaction. Due to technological advances within molecular biology, we are now able to obtain quantitative information about molecules within a biological system on both small and large scales. The purpose of this module is to introduce students to the basic concepts of Systems Biology for health and disease. The module includes subjects relevant to prokaryotic and eukaryotic systems and is thus suitable for all bioscience students. Learning methods include: lectures, seminars, computer practical sessions, article discussion, workshops, and research and problem solving during both lectures and computer-based investigations.
The purpose of this module is to give students a clear view of how and where genetics is used in the ‘real world’. This module will build on the basics of molecular biology and genetics taught in Levels 4 and 5, and will expect students to utilise this prior knowledge and content given in lectures and in the problem-based learning assessments. This module requires application of understanding and problem solving skills.
Gives the student a broad understanding of cancer as an umbrella term for a complex set of different diseases unified by common cellular mechanisms. Students will examine the biological processes underlying cancer and have an appreciation of a range of clinically relevant diagnostic and therapeutic approaches. The emphasis is on human studies and clinical data, with animal studies and cancer-relevant pre-clinical models also presented. This module fits well within a biomedical sciences program.
The Neuroscience module is following the Neuroscience FHEQ Level 5 which provided the bases in Neuroscience. This second module will run over one semester and will provide students with a comprehensive research-led overview of several current hot topics in Neuroscience built around 4 intricate topics: neuroendocrinology, sleep, neuroplasticity and brain disorders. Emphasis will be placed on integration of knowledge from the different areas presented in the lectures. In addition, evaluation of skills for understanding, synthesis/analysis and interpretation of scientific data will be addressed throughout all research-led lectures and assessments.
The Biological Rhythms module is designed to provide students with a comprehensive, research-led overview of current topics in Biological Rhythms, with an emphasis on mammalian Chronobiology. The module builds on critical evaluation skills developed in previous modules, including appraisal and interpretation of scientific literature and evaluating current gaps in our knowledge. The module is delivered as a mix of lectures, online content, and several tutorials in which knowledge is integrated and evaluated. The summative assessment of this module consists of two pieces of course work, in which students apply skills in digital literature searches, resourcefulness in evaluating literature and interpreting current knowledge to develop forward-looking views that apply and validate research insights in real world conditions.
Pharmacokinetics and Toxicology is the science of safety: It is the study of how exogenous chemicals enter and are disposed of by the body, and the effects that they can have on the organ systems of the body. Toxicology is designed to minimise the risk of harm to humans from exposure to any of the thousands of chemicals that we use every day. In this module, we will look at the basic mechanisms of how chemicals may cause harm to living organisms. We will look at a number of examples of target organ toxicity with reference to how drugs/xenobiotics are processed by the body. We will examine the mathematical patterns of drug administration and excretion and learn to explain these and determine their meaning, these concepts will be brought together through a series of case study workshops where mathematical data will be handled and examined.
The final year research project develops practical, analytical, literature sourcing and presentation skills that have been acquired during the typical undergraduate degree programme. The projects provided as part of this module reflect topics and modes of research that are undertaken in the School of Biosciences based of the expertise of our academic staff and hence cover a wide variety of the United Nation’s Sustainability Development Goals around health, the environment and hunger. Modes of research include laboratory-based; in silico; computational; fieldwork, data-analysis, and grant proposals. Research project allocations are usually made based on students’ indication of their preferred projects from a catalogue provided at the start of the academic year. Students should liaise regularly with their supervisor(s) throughout the academic year as they progress with the research, building their independence as a researcher by searching for information, planning experiments/analysis approaches or formulating grant proposals, analysing data, drawing up conclusions and developing oral and written communication skills: all of which will help them develop employability competencies and skills. Students are expected undertake a critical review of the literature of their topic through literature searches and the use of bibliographic databases, which will help them to develop resourcefulness. Students will build up resilience by directly investigating a scientific question/hypothesis that may include designing their own approach or experimental plan (with support from the supervisor(s)) to investigate the question/hypothesis. The use of statistical software and other digital platforms/specialist analytical software for literature searching/meta-analysis etc will help students increase their digital capability. During any practical or skills development sessions, students will learn how to work in a laboratory, the value of resources, how to work in a laboratory environment and best practice to be sustainable, all of which will help them develop responsibility and global and cultural capabilities The final sign-off for passing the Practical Skills Record is also incorporated into this module.
Optional modules for Year 3 (with PTY) - FHEQ Level 6
4 from the 7 listed optional modules.
Professional Training Year (PTY)
Semester 1 & 2
Core
This module supports students’ development of personal and professional attitudes and abilities appropriate to a Professional Training placement. It supports and facilitates self-reflection and transfer of learning from their Professional Training placement experiences to their final year of study and their future employment. The PTY module is concerned with Personal and Professional Development towards holistic academic and non-academic learning, and is a process that involves self-reflection, documented via the creation of a personal record, planning and monitoring progress towards the achievement of personal objectives. Development and learning may occur before and during the placement, and this is reflected in the assessment model as a progressive process. However, the graded assessment takes place primarily towards the end of the placement. Additionally, the module aims to enable students to evidence and evaluate their placement experiences and transfer that learning to other situations through written and presentation skills.
This year-long module is designed to develop the knowledge, skills, and capabilities that students will require to succeed during undergraduate study in the Biosciences. During the foundation year, students will explore fascinating processes of life, from evolutionary genetics and cells to organ systems, through to human impact on ecosystems. Students will also study topics in chemistry and mathematics, the principles that underpin biological sciences. Students will have many opportunities to put theory into practice through laboratory sessions and fieldwork. Academic skills development is embedded throughout the strands and encourages students to take responsibility for their own learning. In addition to lectures and tutorials, learning takes place in the format of debates, lab and field work, problem-based scenarios and skills-based workshops. Subject-specific content is designed to integrate, for example students apply chemistry skills in biological contexts. Employability skills are coordinated through portfolio activities and reflective tasks, students will interrogate their future discipline and explore academic literature in their field of interest. The module aims to broaden students’ perceived scope of the biosciences, with investigations of themes associated with sustainability. Resilience is built into this module through the strong formative challenges that are present for all coursework. Challenges are set that allow students to make mistakes and learn from them. This feeds into reflective activities that invite students to develop their academic processes, so they are best able to cope with the challenges ahead. Finally, the module takes a strong approach to team-working; learners regularly work with the same small group of peers and this work is directly assessed. Learning about their various peers and how to adapt to working effectively develops students’ cultural awareness and is a key employability skill.
For further information relating to FHEQ levels 4, 5 and 6, including learning outcomes, aims and module information please view the BSc (Hons) Biochemistry.
BSc (Hons) with foundation year and placement
Semester 1 & 2
Compulsory
This year-long module is designed to develop the knowledge, skills, and capabilities that students will require to succeed during undergraduate study in the Biosciences. During the foundation year, students will explore fascinating processes of life, from evolutionary genetics and cells to organ systems, through to human impact on ecosystems. Students will also study topics in chemistry and mathematics, the principles that underpin biological sciences. Students will have many opportunities to put theory into practice through laboratory sessions and fieldwork. Academic skills development is embedded throughout the strands and encourages students to take responsibility for their own learning. In addition to lectures and tutorials, learning takes place in the format of debates, lab and field work, problem-based scenarios and skills-based workshops. Subject-specific content is designed to integrate, for example students apply chemistry skills in biological contexts. Employability skills are coordinated through portfolio activities and reflective tasks, students will interrogate their future discipline and explore academic literature in their field of interest. The module aims to broaden students’ perceived scope of the biosciences, with investigations of themes associated with sustainability. Resilience is built into this module through the strong formative challenges that are present for all coursework. Challenges are set that allow students to make mistakes and learn from them. This feeds into reflective activities that invite students to develop their academic processes, so they are best able to cope with the challenges ahead. Finally, the module takes a strong approach to team-working; learners regularly work with the same small group of peers and this work is directly assessed. Learning about their various peers and how to adapt to working effectively develops students’ cultural awareness and is a key employability skill.
Optional modules for Foundation (with PTY) - FHEQ Level 3
For further information relating to FHEQ levels 4, 5 and 6 and the professional training year, including learning outcomes, aims and module information please view the BSc (Hons) Biochemistry.
Year 1 - MSci (Hons)
Semester 1
Compulsory
This module introduces students to the structures within a cell and their functions, including an understanding of the processes by which cells divide and die. The module then considers how cell structure and function can be adapted to specialise cells for particular purposes, and begins to consider how different types of cell are able to interact with one another and their environment in order to form higher order structures such as tissues and organs. Overarching these themes are four practical classes which illustrate the way in which cells and tissues can be studied.
The purpose of this module is to introduce students to microorganisms, to the main cellular processes they perform and to how their activities affect humans and the environment. The students learn about microorganisms that cause disease as well as those who have properties we exploit for the benefit of society. Finally through laboratory practical exercises, the students learn and practice a range of basic microbiological techniques, which are essential for the cultivation and study of microorganisms. This module provides students with key skills and a basic broad knowledge of microbiology; a fundamental discipline required for future endeavors in the fields of infectious disease, biotechnology, biomedical science, biological science and other medically-related fields.
This module aims to begin the students on a journey to facilitate the communication and passion for their subject, enabling them to develop and refine communication skills for further study. The students are guided through the development of key employability skills such as literature querying, critical reading and referencing, towards the discovery of a range of highly of high profile topic for their own research. Working in groups, students choose a topic which constitute the focus of their assessment, and learn to leverage on team work and personal resilience. Through the production of a group presentation and an individual summary, students develop important competences in the science communication field which strengthen their employability and academic proficiency.
This module aims to introduce students from all backgrounds to the principles of regulation of homeostasis. It provides a foundational knowledge to which principles can be applied in the control of several model systems to maintain homeostasis. The content builds upon content from Cell Biology and Biochemistry in semester 1 of level 4 and this essential knowledge is utilised in multiple modules at levels 5 and 6. Students will develop their practical skills in a number of scenarios, including exercise physiology, use of digital technologies to determine and monitor physiological outputs relating to model systems covered in the content. Laboratory skills are further developed from semester 1, data analysis and use of graphing software is cemented using lab derived data.
The purpose of this module is to give a broad introduction to the essential concepts of molecular biology and genetics that are critical to any undergraduate programme in biosciences. We will cover the central dogma of biology: how information is passed from DNA to RNA to protein, and how it is inherited throughout generations. We will examine how genomes are organized and the structure of a gene, initially focusing on prokaryotes. We will discuss the details of DNA replication, transcription and translation and examine some of the key concepts in gene regulation. Students will also be introduced to laboratory and bioinformatic techniques essential for the study of molecular biology. They will also hone their skills in scientific writing through the production of a laboratory report and short essay.
This is a practical module, the aim of which, is to equip students with the critical technical skills used in bacteriology and to familiarize them with key diagnostic tests that are relevant to students on BSc programmes in Biomedical Sciences, Microbiology and Biochemistry. This module builds upon critical concepts and practical techniques covered in BMS1026, and introduces students to a range of medically and environmentally globally important bacteria, and is a key module for the microbiology programme.
Understanding the principles of evolution is essential for the study of biosciences. This module will embed an appreciation of why organisms look, behave and interact with others in the way they do. Students will study the central principles that have led to the diversity of life on Earth today. We will explore the process of natural selection including how the theory was developed and the evidence that supports it, as well as other forces responsible for evolutionary processes. We will study a range of examples including how genomes evolve, how bacteria become resistant to antibiotics, coevolution and how humans evolved to be as we are today. Students will use analytical tools in evolutionary biology research to complete a hands-on laboratory practical. This module lays the foundations for building knowledge about the general principles of evolution and the evolutionary mechanisms of adaptation, which you will apply in the second year to study animal anatomy and physiology (BMS2062), their role in ecosystems (BMS2070), and the development of microbial communities and antibiotic resistance (BMS2044). Additionally, in the final year, you will apply these principles to animal diversity (BMS3095) and animal behavior (BMS3096).
This module aims to introduce you as a biochemistry student to key principles of chemistry and how these can be applied to biological molecules that are essential to life. It provides a foundational knowledge of their structures and functions alongside when, where and how they are generated and broken down. The content builds up alongside content from Cell Biology and Physiology modules at this level to help you understand how these can be utilised at a cellular and organismal level and the conditions under which they are regulated. This provides an essential base upon which knowledge is utilised in multiple modules at levels 5 and 6. You will develop your awareness of the need for safety procedures, equipment and organisation in the laboratory, alongside the equipment that is needed to determine how processes in the module content occur and what conditions will affect these. You will learn how to calculate a yield of your product and identification of chemical compounds to confirm the identify of your products. You will learn to analyse data using appropriate software including a basic level of computer coding. Laboratory skills are build up throughout the module across both semesters, supporting you to become more independent, plan your experiments and be critical of your work and results, reflecting on how the results may change with refinements to the competency and type of experimental methods.
This module will cover three broad topics, namely Metabolism in Health & Disease (Dr Alfred Thumser & Dr Sarah Bailey), Cell Signalling (Dr Sarah Bailey) and Diabetes mellitus (Dr Matin Whyte & Dr Ben Field)
This Molecular biology/genetics module builds up on its first-year sister module BMS1047. The key difference from BMS1047 is that it focusses on eukaryotic molecular biology and techniques to evaluate various molecular biology processes, including more genome-wide aspects, and the significance of molecular biology mechanisms in the real world, for e.g., in cancer. Another key difference is that this module covers molecular biology in greater depth, in particular the regulatory aspects of molecular biology. Overall, you will develop oral and written communication skills in molecular biology and genetics and will be able to appreciate the differences between the eukaryotic and prokaryotic molecular systems. Lectures are covered in a block of the following six themes. Advanced human genetics/genomics à The lectures will cover the human genome, natural genetics variations, sequencing genes and genomes, the genotype-phenotype map to include Mendelian genetics/genetic diseases, the transmission of information, and the concept of recombination. Eukaryotic DNA replication à Packaging of DNA, its organization on chromosomes and alignment with the cell cycle (telomeres, crossing over/recombinant). Enzymes needed for DNA replication with a reflection of BMS1047, key differences between Pro- and Eukaryotes, and techniques to study replication. Eukaryotic DNA transcription à Eukaryotic Cis and trans elements in transcription, post-transcription modifications of transcripts and molecular biology methods to study/quantify transcripts, key differences between Pro- and Eukaryotes, enhancer/mediator complex, cDNA synthesis. control of transcription. Post-transcriptional regulation à Molecular mechanisms of splicing, polyadenylation (mechanisms); Cytoplasmic events: RNA export, localization, regulation by lnc/miRNAs, RNA decay. Eukaryotic mRNA translation à Eukaryotic regulation, global and specific regulation of transcription. Techniques to study Eukaryotic translation. regulation of translation by the proteasome. Application of human genetic inheritance and gene expression in cancer, errors in DNA replication & their correction. Practical componentà RNA extraction & quantification, reverse transcription and RT-PCR followed by electrophoresis.
This module aims to build upon the principles of feedback and basic systems covered at level 4. In this module we go into greater depth about the homeostatic control through the use of nervous, endocrine and other control mechanisms. Students will build upon biochemical principles of receptors and second messengers as key components of feedback mechanisms, applying this to whole-body regulation. Investigation and integration of multiple systems and their response to the same mediator is an essential part of this module. Students will develop their oral and written communication skills within a scientific discipline, enabling them to explain & extrapolate both theoretical knowledge & perform data analysis.
This module is designed to introduce the structure and function of the nervous system in animals and humans.Students will develop an advanced understanding of selected aspects of the nervous system and brain function.The module focuses on providing information across different levels of explanation, including single molecules, cellular, neuronal networks and complex behaviours. Students will develop their skills in understanding and synthesising scientific knowledge by presenting published neuroscientific results in video, poster, or essay format.
This module is designed to develop an understanding of concepts of bacteriology, protozoology mycology, and virology, with a particular emphasis on pathogenic microbes. Each lecture or group of lectures studies a particular group of microbes. These pathogens are chosen as representative on the basis of their biological characteristics, and also from a global perspective. The module also includes tutorial discussions and laboratory practical classes to further develop deeper understanding and broader application of the topics included in this module. Laboratory sessions will aid your understanding of the theory and enable development of practical and employability skills.
The Module will cover a range of topics that will address analytical techniques in research and clinical laboratories, as well as addressing data analysis and statistics.
The purpose of this module is to provide a conceptual understanding of the key principles of human immunology, including the immune response to infection and foreign antigens. Such an understanding is crucial in many other parts of the programme, including the pathogenicity of infectious disease, oncology and pharmacology. It is a prerequisite for modules at FHEQ level 6 including BMS3054 (Clinical Immunology and Immunohaematology), BMS3102 (Advanced Topics in Cellular and Molecular Immunology) and BMS3104 (Applied Immunology).
This module addresses the essential need for students to understand the concepts of the pathogenesis of major human diseases and provides students with important background knowledge to understand clinical (or analytical) medicine. The contents of this module bridge basic science with the pathology of human disease and medical science including the understanding of the principles of major organ diseases in the human body.
The purpose of the module is to introduce the subject of Pharmacology. They will apply their knowledge of Biochemistry and Physiology to understand the mechanism of action of key current drugs. With a particular focus on the following systems: cardiovascular, neurological, anti-inflammatory, -infectives and -cancer. Students will also consider how the body deals with drugs, namely absorption, distribution, metabolism and excretion (ADME).
The purpose of this module is for students to propose potential pharmacotherapeutic targets for conditions of their choice. Here the academic staff introduce a signaling pathway, group of receptors, channels, enzymes, they also provide some case studies of areas of targeting. Students then take this knowledge and build on it and through their own research propose a target.
This module builds on your knowledge gained in year 2 of the immune system (BMS2045) to explore a series of interlinked themes in molecular and cellular immunology providing in-depth knowledge of fundamental immune processes and covering the most current topics and state-of-the-art technology. The themes will be lead and delivered by experts in each area and therefore will provide a sense of the frontier of immunology research. Tutorials and course work will aid your understanding of the theory, and enable development of employability skills including communication, critical appraisal and analytic skills.
Systems Biology is widely accepted as a major future direction of biological research. The ethos of Systems Biology is to generate, analyse, and integrate multiple data sets for understanding and modelling a biological system. We want to know the components (molecules) of the system, how they work/interact together, and, ideally, have some quantitation: the abundance of a particular component and/or the rates of action/interaction. Due to technological advances within molecular biology, we are now able to obtain quantitative information about molecules within a biological system on both small and large scales. The purpose of this module is to introduce students to the basic concepts of Systems Biology for health and disease. The module includes subjects relevant to prokaryotic and eukaryotic systems and is thus suitable for all bioscience students. Learning methods include: lectures, seminars, computer practical sessions, article discussion, workshops, and research and problem solving during both lectures and computer-based investigations.
The purpose of this module is to give students a clear view of how and where genetics is used in the ‘real world’. This module will build on the basics of molecular biology and genetics taught in Levels 4 and 5, and will expect students to utilise this prior knowledge and content given in lectures and in the problem-based learning assessments. This module requires application of understanding and problem solving skills.
Gives the student a broad understanding of cancer as an umbrella term for a complex set of different diseases unified by common cellular mechanisms. Students will examine the biological processes underlying cancer and have an appreciation of a range of clinically relevant diagnostic and therapeutic approaches. The emphasis is on human studies and clinical data, with animal studies and cancer-relevant pre-clinical models also presented. This module fits well within a biomedical sciences program.
The Neuroscience module is following the Neuroscience FHEQ Level 5 which provided the bases in Neuroscience. This second module will run over one semester and will provide students with a comprehensive research-led overview of several current hot topics in Neuroscience built around 4 intricate topics: neuroendocrinology, sleep, neuroplasticity and brain disorders. Emphasis will be placed on integration of knowledge from the different areas presented in the lectures. In addition, evaluation of skills for understanding, synthesis/analysis and interpretation of scientific data will be addressed throughout all research-led lectures and assessments.
The Biological Rhythms module is designed to provide students with a comprehensive, research-led overview of current topics in Biological Rhythms, with an emphasis on mammalian Chronobiology. The module builds on critical evaluation skills developed in previous modules, including appraisal and interpretation of scientific literature and evaluating current gaps in our knowledge. The module is delivered as a mix of lectures, online content, and several tutorials in which knowledge is integrated and evaluated. The summative assessment of this module consists of two pieces of course work, in which students apply skills in digital literature searches, resourcefulness in evaluating literature and interpreting current knowledge to develop forward-looking views that apply and validate research insights in real world conditions.
Pharmacokinetics and Toxicology is the science of safety: It is the study of how exogenous chemicals enter and are disposed of by the body, and the effects that they can have on the organ systems of the body. Toxicology is designed to minimise the risk of harm to humans from exposure to any of the thousands of chemicals that we use every day. In this module, we will look at the basic mechanisms of how chemicals may cause harm to living organisms. We will look at a number of examples of target organ toxicity with reference to how drugs/xenobiotics are processed by the body. We will examine the mathematical patterns of drug administration and excretion and learn to explain these and determine their meaning, these concepts will be brought together through a series of case study workshops where mathematical data will be handled and examined.
The final year research project develops practical, analytical, literature sourcing and presentation skills that have been acquired during the typical undergraduate degree programme. The projects provided as part of this module reflect topics and modes of research that are undertaken in the School of Biosciences based of the expertise of our academic staff and hence cover a wide variety of the United Nation’s Sustainability Development Goals around health, the environment and hunger. Modes of research include laboratory-based; in silico; computational; fieldwork, data-analysis, and grant proposals. Research project allocations are usually made based on students’ indication of their preferred projects from a catalogue provided at the start of the academic year. Students should liaise regularly with their supervisor(s) throughout the academic year as they progress with the research, building their independence as a researcher by searching for information, planning experiments/analysis approaches or formulating grant proposals, analysing data, drawing up conclusions and developing oral and written communication skills: all of which will help them develop employability competencies and skills. Students are expected undertake a critical review of the literature of their topic through literature searches and the use of bibliographic databases, which will help them to develop resourcefulness. Students will build up resilience by directly investigating a scientific question/hypothesis that may include designing their own approach or experimental plan (with support from the supervisor(s)) to investigate the question/hypothesis. The use of statistical software and other digital platforms/specialist analytical software for literature searching/meta-analysis etc will help students increase their digital capability. During any practical or skills development sessions, students will learn how to work in a laboratory, the value of resources, how to work in a laboratory environment and best practice to be sustainable, all of which will help them develop responsibility and global and cultural capabilities The final sign-off for passing the Practical Skills Record is also incorporated into this module.
In this module, students will work in teams and individually to evaluate and propose approaches to authentic, real-world, scenarios in biomedical research. The students will work with the academic facilitator to understand the basis of the research problem. The students will propose a critical experimental plan, incorporating a range of appropriate biochemical techniques. It is expected that the work will include details of cell lines or experimental models used, how experiments will be controlled, replicated, and evaluated, and which statistical models would be appropriate for the methods under discussion. We will keep a critical and evaluative research record of both team and individual efforts and students will have consolidation weeks to reflect on their experimental proposals and critically improve their work with our feedback. This module will require integration of knowledge you developed in the first 3 years of your program. In general, the module will help build valuable skills towards the Research Dissertation or Advanced Research Project Modules in this final year, as well as help you navigate challenges and scientific problems in your future workplace.
In this module students will be presented with a number of industrially relevant therapy areas and drug targets and will work to develop a target product profile, which they will then present back to industrial experts in a bid for funding for the project. Students will be expected to investigate and discuss: The expression and tissue distribution of the target.Molecular mechanisms and signaling pathways relevant to the therapy area and molecular target.Structure and function of target, and likely therapeutic solutions ranging from small molecule to antibody therapy. Suitable experimental models for evaluation of efficacy.Suitable experimental models for evaluation of safety.Preclinical development plans.Clinical development through to possible market approval.Appreciation of time scales and costings for the whole Drug Discovery and development process.
The ability to appraise scientific literature and to communicate ideas is an academic and professional skill required across many areas of the biosciences. Journal clubs are convened in research and clinical environments and are used by professionals to continue to update knowledge of their disciplines and to maintain competencies as scientists; educators, and clinicians. The ability to distil and critique literature into a short review is also an important skill for the ongoing development of professionals in this area. By Level 7, students will already have a sound understanding of the importance of valid scientific information, and the role of the peer-review process in assuring rigour and integrity. This module develops skills in critical appraisal of scientific literature through a journal club whereby recent publications across a representative range of biomedical science disciplines are discussed in regular sessions facilitated by research students; post-doctoral, and academic staff. A literature review of an appropriate biomedical topic will further develop approaches to using online databases and selecting appropriate publications, together with writing skills. The progress of this piece of work is supported by one-to-one tutorials.
This is an introductory course on bioinformatics and data science aimed at medical and life sciences undergraduate and postgraduade students that did not have previous exposure to quantitative methodologies. There are no pre-requisites in terms of advanced algebra, calculus, probability theory, statistics or computer programming. Computer programming (coding) and data science are salient skills needed for securing academic and industry jobs. Worldwide, the bioinformatics job market has experienced robust growth over the last decade. In the UK, there is chronic deficit of bioinformaticians as documented by the government's "Full review of the Shortage Occupation List" Bioinformatics and Data Science underlies many academic disciplines and score highly among the most useful skills you will learn in your degree. In the Life and Health Sciences, Bioinformatics and Data Science is essential for epidemiologists, geneticists, biologists, and biomedical scientists to convert research questions into testable statistical models, and to produce interpretable, reproducible, and valid results. This module introduces both facets of study design and data analysis with the aim of enabling graduate students to independently make scientific investigations in a coherent and reproducible way, and to apply notions of causality, statistical inference, and artificial intelligence. It also provides practical hands-on experience conducting computational genomics and gene expression analyses, two bioinformatics skills in high demand worldwide
This module provides in-depth training in laboratory investigation and the associated skills that are at the heart of Level 7 studies: the aim of the program is to allow students to “develop critical and analytical skills such that they can identify problems, formulate hypotheses, design experiments, acquire and interpret data and draw conclusions.” These are implicit in the successful completion of a research project. Students are involved in the projects from their inception and may also continue with their Level 6 dissertation project provided that there is scope to create new hypotheses and avoid overlap with previous work – work to be assessed in this module must be completely distinct from any work assessed as part of Level 6 modules. During the extended research project students perform much of the work independently (although under academic supervision for guidance and support). The project will normally be laboratory based – alternatives include data analysis projects; bioinformatics, and in silico projects. They must contain a substantial proportion of original work and generate original data sets. Surveys, repetition of other work, or evaluation of test kits or other established procedures are not, in themselves, sufficient, although they may form the starting point for an acceptable project. The Advanced Research Project is designed to build upon undergraduate experience and to further develop research skills that enhance student employability within the Biomedical Sciences. Students will develop independent experimental design and critical data analysis skills and learn to present their results in both written and verbal formats. Students will acquire data analysis skills that will enhance their digital capabilities. They will gain experience of modern statistical analysis software and up-to-date digital bioinformatics tools. Projects could also include the development and application of coding such as R and Python for data analysis. Projects provided by academic research-active staff will reflect current state-of-the-art research being performed within the School, which is aligned with current global and cultural challenges in providing sustained lifelong health. Overall, the module is designed to provide our Biomedical Science MSci graduates with the scientific and research resourcefulness and resilience that will equip them with the necessary skills and experience for successful careers in Biomedical Science.
This module introduces students to the structures within a cell and their functions, including an understanding of the processes by which cells divide and die. The module then considers how cell structure and function can be adapted to specialise cells for particular purposes, and begins to consider how different types of cell are able to interact with one another and their environment in order to form higher order structures such as tissues and organs. Overarching these themes are four practical classes which illustrate the way in which cells and tissues can be studied.
The purpose of this module is to introduce students to microorganisms, to the main cellular processes they perform and to how their activities affect humans and the environment. The students learn about microorganisms that cause disease as well as those who have properties we exploit for the benefit of society. Finally through laboratory practical exercises, the students learn and practice a range of basic microbiological techniques, which are essential for the cultivation and study of microorganisms. This module provides students with key skills and a basic broad knowledge of microbiology; a fundamental discipline required for future endeavors in the fields of infectious disease, biotechnology, biomedical science, biological science and other medically-related fields.
This module aims to begin the students on a journey to facilitate the communication and passion for their subject, enabling them to develop and refine communication skills for further study. The students are guided through the development of key employability skills such as literature querying, critical reading and referencing, towards the discovery of a range of highly of high profile topic for their own research. Working in groups, students choose a topic which constitute the focus of their assessment, and learn to leverage on team work and personal resilience. Through the production of a group presentation and an individual summary, students develop important competences in the science communication field which strengthen their employability and academic proficiency.
This module aims to introduce students from all backgrounds to the principles of regulation of homeostasis. It provides a foundational knowledge to which principles can be applied in the control of several model systems to maintain homeostasis. The content builds upon content from Cell Biology and Biochemistry in semester 1 of level 4 and this essential knowledge is utilised in multiple modules at levels 5 and 6. Students will develop their practical skills in a number of scenarios, including exercise physiology, use of digital technologies to determine and monitor physiological outputs relating to model systems covered in the content. Laboratory skills are further developed from semester 1, data analysis and use of graphing software is cemented using lab derived data.
The purpose of this module is to give a broad introduction to the essential concepts of molecular biology and genetics that are critical to any undergraduate programme in biosciences. We will cover the central dogma of biology: how information is passed from DNA to RNA to protein, and how it is inherited throughout generations. We will examine how genomes are organized and the structure of a gene, initially focusing on prokaryotes. We will discuss the details of DNA replication, transcription and translation and examine some of the key concepts in gene regulation. Students will also be introduced to laboratory and bioinformatic techniques essential for the study of molecular biology. They will also hone their skills in scientific writing through the production of a laboratory report and short essay.
This is a practical module, the aim of which, is to equip students with the critical technical skills used in bacteriology and to familiarize them with key diagnostic tests that are relevant to students on BSc programmes in Biomedical Sciences, Microbiology and Biochemistry. This module builds upon critical concepts and practical techniques covered in BMS1026, and introduces students to a range of medically and environmentally globally important bacteria, and is a key module for the microbiology programme.
Understanding the principles of evolution is essential for the study of biosciences. This module will embed an appreciation of why organisms look, behave and interact with others in the way they do. Students will study the central principles that have led to the diversity of life on Earth today. We will explore the process of natural selection including how the theory was developed and the evidence that supports it, as well as other forces responsible for evolutionary processes. We will study a range of examples including how genomes evolve, how bacteria become resistant to antibiotics, coevolution and how humans evolved to be as we are today. Students will use analytical tools in evolutionary biology research to complete a hands-on laboratory practical. This module lays the foundations for building knowledge about the general principles of evolution and the evolutionary mechanisms of adaptation, which you will apply in the second year to study animal anatomy and physiology (BMS2062), their role in ecosystems (BMS2070), and the development of microbial communities and antibiotic resistance (BMS2044). Additionally, in the final year, you will apply these principles to animal diversity (BMS3095) and animal behavior (BMS3096).
This module aims to introduce you as a biochemistry student to key principles of chemistry and how these can be applied to biological molecules that are essential to life. It provides a foundational knowledge of their structures and functions alongside when, where and how they are generated and broken down. The content builds up alongside content from Cell Biology and Physiology modules at this level to help you understand how these can be utilised at a cellular and organismal level and the conditions under which they are regulated. This provides an essential base upon which knowledge is utilised in multiple modules at levels 5 and 6. You will develop your awareness of the need for safety procedures, equipment and organisation in the laboratory, alongside the equipment that is needed to determine how processes in the module content occur and what conditions will affect these. You will learn how to calculate a yield of your product and identification of chemical compounds to confirm the identify of your products. You will learn to analyse data using appropriate software including a basic level of computer coding. Laboratory skills are build up throughout the module across both semesters, supporting you to become more independent, plan your experiments and be critical of your work and results, reflecting on how the results may change with refinements to the competency and type of experimental methods.
Optional modules for Year 1 (with PTY) - FHEQ Level 4
1 from 2 listed optional modules
Year 2 - MSci (Hons) with placement
Semester 1
Compulsory
This module will cover three broad topics, namely Metabolism in Health & Disease (Dr Alfred Thumser & Dr Sarah Bailey), Cell Signalling (Dr Sarah Bailey) and Diabetes mellitus (Dr Matin Whyte & Dr Ben Field)
This Molecular biology/genetics module builds up on its first-year sister module BMS1047. The key difference from BMS1047 is that it focusses on eukaryotic molecular biology and techniques to evaluate various molecular biology processes, including more genome-wide aspects, and the significance of molecular biology mechanisms in the real world, for e.g., in cancer. Another key difference is that this module covers molecular biology in greater depth, in particular the regulatory aspects of molecular biology. Overall, you will develop oral and written communication skills in molecular biology and genetics and will be able to appreciate the differences between the eukaryotic and prokaryotic molecular systems. Lectures are covered in a block of the following six themes. Advanced human genetics/genomics à The lectures will cover the human genome, natural genetics variations, sequencing genes and genomes, the genotype-phenotype map to include Mendelian genetics/genetic diseases, the transmission of information, and the concept of recombination. Eukaryotic DNA replication à Packaging of DNA, its organization on chromosomes and alignment with the cell cycle (telomeres, crossing over/recombinant). Enzymes needed for DNA replication with a reflection of BMS1047, key differences between Pro- and Eukaryotes, and techniques to study replication. Eukaryotic DNA transcription à Eukaryotic Cis and trans elements in transcription, post-transcription modifications of transcripts and molecular biology methods to study/quantify transcripts, key differences between Pro- and Eukaryotes, enhancer/mediator complex, cDNA synthesis. control of transcription. Post-transcriptional regulation à Molecular mechanisms of splicing, polyadenylation (mechanisms); Cytoplasmic events: RNA export, localization, regulation by lnc/miRNAs, RNA decay. Eukaryotic mRNA translation à Eukaryotic regulation, global and specific regulation of transcription. Techniques to study Eukaryotic translation. regulation of translation by the proteasome. Application of human genetic inheritance and gene expression in cancer, errors in DNA replication & their correction. Practical componentà RNA extraction & quantification, reverse transcription and RT-PCR followed by electrophoresis.
This module aims to build upon the principles of feedback and basic systems covered at level 4. In this module we go into greater depth about the homeostatic control through the use of nervous, endocrine and other control mechanisms. Students will build upon biochemical principles of receptors and second messengers as key components of feedback mechanisms, applying this to whole-body regulation. Investigation and integration of multiple systems and their response to the same mediator is an essential part of this module. Students will develop their oral and written communication skills within a scientific discipline, enabling them to explain & extrapolate both theoretical knowledge & perform data analysis.
This module is designed to introduce the structure and function of the nervous system in animals and humans.Students will develop an advanced understanding of selected aspects of the nervous system and brain function.The module focuses on providing information across different levels of explanation, including single molecules, cellular, neuronal networks and complex behaviours. Students will develop their skills in understanding and synthesising scientific knowledge by presenting published neuroscientific results in video, poster, or essay format.
This module is designed to develop an understanding of concepts of bacteriology, protozoology mycology, and virology, with a particular emphasis on pathogenic microbes. Each lecture or group of lectures studies a particular group of microbes. These pathogens are chosen as representative on the basis of their biological characteristics, and also from a global perspective. The module also includes tutorial discussions and laboratory practical classes to further develop deeper understanding and broader application of the topics included in this module. Laboratory sessions will aid your understanding of the theory and enable development of practical and employability skills.
The Module will cover a range of topics that will address analytical techniques in research and clinical laboratories, as well as addressing data analysis and statistics.
The purpose of this module is to provide a conceptual understanding of the key principles of human immunology, including the immune response to infection and foreign antigens. Such an understanding is crucial in many other parts of the programme, including the pathogenicity of infectious disease, oncology and pharmacology. It is a prerequisite for modules at FHEQ level 6 including BMS3054 (Clinical Immunology and Immunohaematology), BMS3102 (Advanced Topics in Cellular and Molecular Immunology) and BMS3104 (Applied Immunology).
This module addresses the essential need for students to understand the concepts of the pathogenesis of major human diseases and provides students with important background knowledge to understand clinical (or analytical) medicine. The contents of this module bridge basic science with the pathology of human disease and medical science including the understanding of the principles of major organ diseases in the human body.
The purpose of the module is to introduce the subject of Pharmacology. They will apply their knowledge of Biochemistry and Physiology to understand the mechanism of action of key current drugs. With a particular focus on the following systems: cardiovascular, neurological, anti-inflammatory, -infectives and -cancer. Students will also consider how the body deals with drugs, namely absorption, distribution, metabolism and excretion (ADME).
The purpose of this module is for students to propose potential pharmacotherapeutic targets for conditions of their choice. Here the academic staff introduce a signaling pathway, group of receptors, channels, enzymes, they also provide some case studies of areas of targeting. Students then take this knowledge and build on it and through their own research propose a target.
This module builds on your knowledge gained in year 2 of the immune system (BMS2045) to explore a series of interlinked themes in molecular and cellular immunology providing in-depth knowledge of fundamental immune processes and covering the most current topics and state-of-the-art technology. The themes will be lead and delivered by experts in each area and therefore will provide a sense of the frontier of immunology research. Tutorials and course work will aid your understanding of the theory, and enable development of employability skills including communication, critical appraisal and analytic skills.
Systems Biology is widely accepted as a major future direction of biological research. The ethos of Systems Biology is to generate, analyse, and integrate multiple data sets for understanding and modelling a biological system. We want to know the components (molecules) of the system, how they work/interact together, and, ideally, have some quantitation: the abundance of a particular component and/or the rates of action/interaction. Due to technological advances within molecular biology, we are now able to obtain quantitative information about molecules within a biological system on both small and large scales. The purpose of this module is to introduce students to the basic concepts of Systems Biology for health and disease. The module includes subjects relevant to prokaryotic and eukaryotic systems and is thus suitable for all bioscience students. Learning methods include: lectures, seminars, computer practical sessions, article discussion, workshops, and research and problem solving during both lectures and computer-based investigations.
The purpose of this module is to give students a clear view of how and where genetics is used in the ‘real world’. This module will build on the basics of molecular biology and genetics taught in Levels 4 and 5, and will expect students to utilise this prior knowledge and content given in lectures and in the problem-based learning assessments. This module requires application of understanding and problem solving skills.
Gives the student a broad understanding of cancer as an umbrella term for a complex set of different diseases unified by common cellular mechanisms. Students will examine the biological processes underlying cancer and have an appreciation of a range of clinically relevant diagnostic and therapeutic approaches. The emphasis is on human studies and clinical data, with animal studies and cancer-relevant pre-clinical models also presented. This module fits well within a biomedical sciences program.
The Neuroscience module is following the Neuroscience FHEQ Level 5 which provided the bases in Neuroscience. This second module will run over one semester and will provide students with a comprehensive research-led overview of several current hot topics in Neuroscience built around 4 intricate topics: neuroendocrinology, sleep, neuroplasticity and brain disorders. Emphasis will be placed on integration of knowledge from the different areas presented in the lectures. In addition, evaluation of skills for understanding, synthesis/analysis and interpretation of scientific data will be addressed throughout all research-led lectures and assessments.
The Biological Rhythms module is designed to provide students with a comprehensive, research-led overview of current topics in Biological Rhythms, with an emphasis on mammalian Chronobiology. The module builds on critical evaluation skills developed in previous modules, including appraisal and interpretation of scientific literature and evaluating current gaps in our knowledge. The module is delivered as a mix of lectures, online content, and several tutorials in which knowledge is integrated and evaluated. The summative assessment of this module consists of two pieces of course work, in which students apply skills in digital literature searches, resourcefulness in evaluating literature and interpreting current knowledge to develop forward-looking views that apply and validate research insights in real world conditions.
Pharmacokinetics and Toxicology is the science of safety: It is the study of how exogenous chemicals enter and are disposed of by the body, and the effects that they can have on the organ systems of the body. Toxicology is designed to minimise the risk of harm to humans from exposure to any of the thousands of chemicals that we use every day. In this module, we will look at the basic mechanisms of how chemicals may cause harm to living organisms. We will look at a number of examples of target organ toxicity with reference to how drugs/xenobiotics are processed by the body. We will examine the mathematical patterns of drug administration and excretion and learn to explain these and determine their meaning, these concepts will be brought together through a series of case study workshops where mathematical data will be handled and examined.
The final year research project develops practical, analytical, literature sourcing and presentation skills that have been acquired during the typical undergraduate degree programme. The projects provided as part of this module reflect topics and modes of research that are undertaken in the School of Biosciences based of the expertise of our academic staff and hence cover a wide variety of the United Nation’s Sustainability Development Goals around health, the environment and hunger. Modes of research include laboratory-based; in silico; computational; fieldwork, data-analysis, and grant proposals. Research project allocations are usually made based on students’ indication of their preferred projects from a catalogue provided at the start of the academic year. Students should liaise regularly with their supervisor(s) throughout the academic year as they progress with the research, building their independence as a researcher by searching for information, planning experiments/analysis approaches or formulating grant proposals, analysing data, drawing up conclusions and developing oral and written communication skills: all of which will help them develop employability competencies and skills. Students are expected undertake a critical review of the literature of their topic through literature searches and the use of bibliographic databases, which will help them to develop resourcefulness. Students will build up resilience by directly investigating a scientific question/hypothesis that may include designing their own approach or experimental plan (with support from the supervisor(s)) to investigate the question/hypothesis. The use of statistical software and other digital platforms/specialist analytical software for literature searching/meta-analysis etc will help students increase their digital capability. During any practical or skills development sessions, students will learn how to work in a laboratory, the value of resources, how to work in a laboratory environment and best practice to be sustainable, all of which will help them develop responsibility and global and cultural capabilities The final sign-off for passing the Practical Skills Record is also incorporated into this module.
Optional modules for Year 3 (with PTY) - FHEQ Level 6
4 from the 7 listed optional modules.
Professional Training Year (PTY)
Semester 1 & 2
Core
This module supports students’ development of personal and professional attitudes and abilities appropriate to a Professional Training placement. It supports and facilitates self-reflection and transfer of learning from their Professional Training placement experiences to their final year of study and their future employment. The PTY module is concerned with Personal and Professional Development towards holistic academic and non-academic learning, and is a process that involves self-reflection, documented via the creation of a personal record, planning and monitoring progress towards the achievement of personal objectives. Development and learning may occur before and during the placement, and this is reflected in the assessment model as a progressive process. However, the graded assessment takes place primarily towards the end of the placement. Additionally, the module aims to enable students to evidence and evaluate their placement experiences and transfer that learning to other situations through written and presentation skills.
In this module, students will work in teams and individually to evaluate and propose approaches to authentic, real-world, scenarios in biomedical research. The students will work with the academic facilitator to understand the basis of the research problem. The students will propose a critical experimental plan, incorporating a range of appropriate biochemical techniques. It is expected that the work will include details of cell lines or experimental models used, how experiments will be controlled, replicated, and evaluated, and which statistical models would be appropriate for the methods under discussion. We will keep a critical and evaluative research record of both team and individual efforts and students will have consolidation weeks to reflect on their experimental proposals and critically improve their work with our feedback. This module will require integration of knowledge you developed in the first 3 years of your program. In general, the module will help build valuable skills towards the Research Dissertation or Advanced Research Project Modules in this final year, as well as help you navigate challenges and scientific problems in your future workplace.
In this module students will be presented with a number of industrially relevant therapy areas and drug targets and will work to develop a target product profile, which they will then present back to industrial experts in a bid for funding for the project. Students will be expected to investigate and discuss: The expression and tissue distribution of the target.Molecular mechanisms and signaling pathways relevant to the therapy area and molecular target.Structure and function of target, and likely therapeutic solutions ranging from small molecule to antibody therapy. Suitable experimental models for evaluation of efficacy.Suitable experimental models for evaluation of safety.Preclinical development plans.Clinical development through to possible market approval.Appreciation of time scales and costings for the whole Drug Discovery and development process.
The ability to appraise scientific literature and to communicate ideas is an academic and professional skill required across many areas of the biosciences. Journal clubs are convened in research and clinical environments and are used by professionals to continue to update knowledge of their disciplines and to maintain competencies as scientists; educators, and clinicians. The ability to distil and critique literature into a short review is also an important skill for the ongoing development of professionals in this area. By Level 7, students will already have a sound understanding of the importance of valid scientific information, and the role of the peer-review process in assuring rigour and integrity. This module develops skills in critical appraisal of scientific literature through a journal club whereby recent publications across a representative range of biomedical science disciplines are discussed in regular sessions facilitated by research students; post-doctoral, and academic staff. A literature review of an appropriate biomedical topic will further develop approaches to using online databases and selecting appropriate publications, together with writing skills. The progress of this piece of work is supported by one-to-one tutorials.
This is an introductory course on bioinformatics and data science aimed at medical and life sciences undergraduate and postgraduade students that did not have previous exposure to quantitative methodologies. There are no pre-requisites in terms of advanced algebra, calculus, probability theory, statistics or computer programming. Computer programming (coding) and data science are salient skills needed for securing academic and industry jobs. Worldwide, the bioinformatics job market has experienced robust growth over the last decade. In the UK, there is chronic deficit of bioinformaticians as documented by the government's "Full review of the Shortage Occupation List" Bioinformatics and Data Science underlies many academic disciplines and score highly among the most useful skills you will learn in your degree. In the Life and Health Sciences, Bioinformatics and Data Science is essential for epidemiologists, geneticists, biologists, and biomedical scientists to convert research questions into testable statistical models, and to produce interpretable, reproducible, and valid results. This module introduces both facets of study design and data analysis with the aim of enabling graduate students to independently make scientific investigations in a coherent and reproducible way, and to apply notions of causality, statistical inference, and artificial intelligence. It also provides practical hands-on experience conducting computational genomics and gene expression analyses, two bioinformatics skills in high demand worldwide
This module provides in-depth training in laboratory investigation and the associated skills that are at the heart of Level 7 studies: the aim of the program is to allow students to “develop critical and analytical skills such that they can identify problems, formulate hypotheses, design experiments, acquire and interpret data and draw conclusions.” These are implicit in the successful completion of a research project. Students are involved in the projects from their inception and may also continue with their Level 6 dissertation project provided that there is scope to create new hypotheses and avoid overlap with previous work – work to be assessed in this module must be completely distinct from any work assessed as part of Level 6 modules. During the extended research project students perform much of the work independently (although under academic supervision for guidance and support). The project will normally be laboratory based – alternatives include data analysis projects; bioinformatics, and in silico projects. They must contain a substantial proportion of original work and generate original data sets. Surveys, repetition of other work, or evaluation of test kits or other established procedures are not, in themselves, sufficient, although they may form the starting point for an acceptable project. The Advanced Research Project is designed to build upon undergraduate experience and to further develop research skills that enhance student employability within the Biomedical Sciences. Students will develop independent experimental design and critical data analysis skills and learn to present their results in both written and verbal formats. Students will acquire data analysis skills that will enhance their digital capabilities. They will gain experience of modern statistical analysis software and up-to-date digital bioinformatics tools. Projects could also include the development and application of coding such as R and Python for data analysis. Projects provided by academic research-active staff will reflect current state-of-the-art research being performed within the School, which is aligned with current global and cultural challenges in providing sustained lifelong health. Overall, the module is designed to provide our Biomedical Science MSci graduates with the scientific and research resourcefulness and resilience that will equip them with the necessary skills and experience for successful careers in Biomedical Science.
We use a variety of methods to assess you, including:
Coursework
Essays (essay questions and multiple choice)
Examinations
Practical write-ups
Presentations.
General course information
Contact hours
BSc (Hons)
In your first year, you’ll have approximately 20-25 contact hours each week. You’ll spend a significant part of your first-year teaching in laboratory-based practicals.
In your second year, you’ll have approximately 15-20 contact hours each week.
In your final year, you’ll have approximately 15 contact hours each week. In addition, you’ll be expected to spend a minimum of one full day each week working on your research project.
MSci (Hons)
You’ll have the same contact hours as the bachelors course (above), in addition to:
36 contact hours each week in Semester 1.
Completing your research project in Semester 2.
Contact hours can vary across our modules. Full details of the contact hours for each module are available from the University of Surrey's module catalogue. See the modules section for more information.
Timetable
New students will receive their personalised timetable in Welcome Week. In later semesters, two weeks before the start of semester.
Scheduled teaching can take place on any day of the week (Monday – Friday), with part-time classes normally scheduled on one or two days. Wednesday afternoons tend to be for sports and cultural activities.
This course is based at Stag Hill campus. Stag Hill is the University's main campus and where the majority of our courses are taught.
We offer careers information, advice and guidance to all students whilst studying with us, which is extended to our alumni for three years after leaving the University.
93% of our biosciences graduates are in employment or further study (Graduate Outcomes 2024, HESA). With a Biochemistry degree you could take a role such as:
Clinical data manager
Clinical research associate
Clinical trial associate
Customer service analyst
Pharmacy assistant
Quality engineer
Research laboratory assistant.
Our alumni can be found in academic and industrial research laboratories around the world, with recent graduates working for:
inVentiv Health
Novartis
Sanofi
The Institute of Cancer Research.
Many of our graduates also go on to PhD study or apply for graduate dentistry and medicine courses.
You’ll benefit from hands-on learning in ourInnovation for Health Learning Laboratory, where you'll learn how to conduct experiments and follow scientific protocols.
Depending on the optional modules you choose, you’ll get to carry out some of the following experiments:
Buccal smear staining and analysis, using light microscopy
GCSE or equivalent: English Language (1/2) 6 or English Language 3 (7) and Mathematics 6.
BSc (Hons):
QAA-recognised Access to Higher Education Diploma with 45 Level 3 credits overall including 30 at Distinction and 15 at Merit - 27 at Distinction and 18 at Merit.
Required subjects: 15 credits in Biology or Chemistry and 15 credits in another science subject.
MSci (Hons):
QAA-recognised Access to Higher Education Diploma with 45 Level 3 credits overall including 39 at Distinction and 6 at Merit.
Required subjects: 15 credits in Biology or Chemistry and 15 credits in another science subject.
BSc (Hons) with foundation year:
QAA-recognised Access to Higher Education Diploma with 45 Level 3 credits overall including 21 at Distinction, 3 at Merit and 21 at Pass.
Required subjects: modules must be in relevant subjects.
GCSE or equivalent: English Language and Mathematics at grade 4 (C).
BSc (Hons):
AABBB-ABBBB
Required subjects: Biology or Chemistry and another science or mathematics subject.
MSci (Hons):
AAABB
Required subjects: Biology or Chemistry and another science or mathematics subject.
BSc (Hons) with foundation year:
BBBCC
Required subjects: a science subject.
GCSE or equivalent: English Language and Mathematics at grade C (Scottish National 5).
BSc (Hons):
ABB-BBB from a combination of the Advanced Skills Baccalaureate Wales and two A-levels.
Required subjects: A-level Biology and an A-level in another science or mathematics subject.
MSci (Hons):
AAB from a combination of the Advanced Skills Baccalaureate Wales and two A-levels.
Required subjects: A-level Biology and an A-level in another science or mathematics subject.
BSc (Hons) with foundation year:
CCC from a combination of the Advanced Skills Baccalaureate Wales and two A-levels.
Required subjects: an A-level in a science subject.
A-level General Studies and A-level Critical Thinking are not accepted. Applicants taking the Science Practical Endorsement are expected to pass.
GCSE or equivalent: English Language and Mathematics at grade 4 (C).
BSc (Hons):
Distinction overall, with minimum C in the Core Component.
Required subjects: Science.
MSci (Hons):
N/A
BSc (Hons) with foundation year:
Pass overall, with minimum D in the Core Component.
Required subjects: Science.
GCSE or equivalent: English Language and Mathematics at grade 4 (C).
Applicants taking the Extended Project Qualification (EPQ) will receive our standard A-level offer for this programme, plus an alternate offer of one A-level grade lower, subject to achieving an A grade in the EPQ. The one grade reduction will not apply to any required subjects.
Applicants can only receive one grade reduction from the published grades, an EPQ grade reduction can’t be applied in addition to other grade reductions made through other schemes such as Contextual Admissions or In2Surrey.
If you do not currently meet the level required for your programme, we offer intensive pre-sessional English language courses, designed to take you to the level of English ability and skill required for your studies here.
International Foundation Year
If you are an international student and you don’t meet the entry requirements for this degree, we offer the International Foundation Year at the Surrey International Study Centre. Upon successful completion, you can progress to this degree course.
If you are a suitable candidate you may be invited to an offer holder event. During your visit to the University you can find out more about the course and meet staff and students.
Recognition of prior learning
We recognise that many students enter their higher education course with valuable knowledge and skills developed through a range of professional, vocational and community contexts.
If this applies to you, the recognition of prior learning (RPL) process may allow you to join a course without the formal entry requirements or enter your course at a point appropriate to your previous learning and experience.
Explore UKCISA’s website for more information if you are unsure whether you are a UK or overseas student. View the list of fees for all undergraduate courses.
The annual tuition fees for courses starting in September 2026
* Professional training placement year fees are approximately 20% of the full-time UK fees of the academic year in which you undertake your placement.
Students with Tuition Fee Loan: the Student Loans Company pay fees in line with their schedule.
Students without a Tuition Fee Loan: pay their fees either in full at the beginning of the programme or in two instalments as follows:
50% payable 10 days after the invoice date (expected to be early October of each academic year)
50% in January of the same academic year.
The exact date(s) will be on invoices. Students on part-time programmes where fees are paid on a modular basis, cannot pay fees by instalment.
Sponsored students: must provide us with valid sponsorship information that covers the period of study.
Professional training placement fees
Professional Training placement year fees are approximately 20% of the full-time fee for the academic year in which you undertake your placement.
Additional costs
Safety equipment and/or uniform: £24 – equipment pack (includes laboratory coat, laboratory glasses, laboratory books, pen and bag). You are responsible for the costs associated with maintaining/washing/replacing any equipment.
These additional costs are accurate as of September 2024 and apply to the 2025 year of entry. Costs for 2026 entry will be published in September 2025.
Scholarships and bursaries
Discover what scholarships and bursaries are available to support your studies.
We have thousands of placement providers to choose from, most of which offer pay. So, become one of our many students who have had their lives and career choices transformed.
Statistics
Placement Statistics
95%
of students who did a placement entered into graduate level employment*
80%
of placements are paid, with 57% paying between £18,000 - £30,000
48%
of our students have been offered a graduate role from their placement provider**
*HESA 2024
**Professional Training Year Returners Survey 2023
Biochemistry placements
You can choose to work for a range of employers, including:
Biotechnology companies
Food suppliers
Hospitals
Pharmaceutical organisations.
We also have an extensive number of partner institutions that offer placements exclusively to Surrey students, giving you access to research laboratories across the world. Explore your options via our search tool and find out more about our current partner universities and organisations.
You can also develop your transferrable skills by working in other fields, such as scientific communications, marketing, and data analysis.
Applying for placements
Students are generally not placed by the University. But we offer support and guidance throughout the process, with access to a vacancy site of placement opportunities.
"My placement completely set me up for my early career. I began working in a laboratory with skills beyond the level I was being trained at in my new job, and it gave me a head-start to carry out my own research to a high standard."
Studying at Surrey opens a world of opportunity. Take advantage of our study and work abroad partnerships, explore the world, and expand your skills for the graduate job market.
The opportunities abroad vary depending on the course, but options include study exchanges, work/research placements, summer programmes, and recent graduate internships. Financial support is available through various grants and bursaries, as well as Student Finance.
Perhaps you would like to volunteer in India or learn about Brazilian business and culture in São Paulo during your summer holidays? With 140+ opportunities in 36+ different countries worldwide, there is something for everyone. Explore your options via our search tool and find out more about our current partner universities and organisations.
Apply for your chosen course online through UCAS, with the following course and institution codes.
We provide these terms and conditions at offer stage and are shown again at registration. You will be asked to accept these terms and conditions when you accept the offer made to you.
This online prospectus has been published in advance of the academic year to which it applies.
Whilst we have done everything possible to ensure this information is accurate, some changes may happen between publishing and the start of the course.
It is important to check this website for any updates before you apply for a course with us. Read our full disclaimer.
