Core Modules

Foundation Year

• Foundation Mathematics for Life Scientists

  This module aims to develop the mathematical skills of students on Life Sciences degrees with an Integrated Foundation Year, in order to prepare them for their undergraduate degrees. Students will learn to apply mathematical principles to a variety of applications within Life Sciences, including applications in healthcare, chemistry, microbiology and marine biology. Each week, students will cover a new mathematical concept and practice calculations in areas including (but not limited to): unit conversions, balancing equations, functions, logs, exponentials and trigonometry. With each mathematical concept, they will apply the skills they have learnt to real-world situations within the different Life Sciences disciplines.

• Global and Planetary Health

  Global and Planetary Health is built around global issues. Each topic will embody issues of global importance and be based on authentic and topical world events.

  The module is intended to deliver an interdisciplinary, academically authentic introduction to global issues, which satisfies a wide range of interests appealing to students wanting to progress onto a range of life science subjects. Therefore, readings and lectures will approach the topics from a life sciences perspective. Topics covered are likely to include Virtual reality, Health apps, Internet of medical things, Mental Health, Climate catastrophe, Global biodiversity crisis, Technology for monitoring the environment and The ‘One Health’ approach. The module also aims to help students develop their study skills to succeed on the Integrated Foundation Programme and as undergraduates. It introduces students to thinking and reading critically. It explains what it means to be 'critical'. The module also focuses on writing, teaching students about the writing process, how to find and review literature, how to build an argument in essays, how to use academic English, and how to cite and reference to avoid plagiarism. Finally, it offers practical advice on planning study work, becoming more organised, and finding further guidance if needed.

• Foundation Life Sciences and The Environment

  Students will learn key topics in pre-HE-level biological and earth sciences through an interdisciplinary, chronological curriculum. The module content is divided into three broad sections: origins, present and future. The history of the earth affords the opportunity to learn topics in biological chemistry, metabolism and physiology alongside planetary science and palaeontology. The second section of the module gives students the chance to learn about key challenges in communicable and non-communicable disease, climate change, biodiversity and the impact of environmental pollutants on human health. In the module’s final section the focus will shift to the future, and students will learn some of the opportunities presented in the management of ecosystem services, nucleic acid-based technologies and renewable energy sources.

• Foundation Practical Skills and Research (Biological Sciences)
• Foundation Statistics for Life Sciences

  This module aims to develop the statistics skills of students on Life Sciences degrees with an Integrated Foundation Year, in order to prepare them for their undergraduate degrees. Students will learn to apply statistical analysis to a variety of applications within Life Sciences, including applications in geology, ecology, biomedical sciences and health studies. Each week, students will cover a statistics concept or statistical test and practice calculations in areas including (but not limited to): interpreting p-values and errors, linear regression, Chi-squared tests, Wilcoxon test, and principal component analysis. With each concept, they will apply the skills they have learnt to real-world datasets within the different Life Sciences disciplines.

• Environmental Science for Foundation Life Sciences

  Students will learn about key topics in pre-HE level Environmental Science, through an interdisciplinary, chronological curriculum. The course will start with an overview of the origins of the planet, and then consider important concepts in Environmental Science such as nutrient cycling and succession. Finally, it will consider how the environment and the species within it are affected by human actions and how these effects might be mitigated.

• Life Sciences II: Organ Systems

  Students will learn about the key systems, e.g. circulatory, ventilatory and reproductive in a broad range of species including humans, plants and a wider range of vertebrate and invertebrate species. This approach will allow key chemical concepts to be explored at this level, as well as anatomical and physiological adaptations to life. They will also learn about the impact of disease on these systems. This module will be beneficial to the biological science, biomedical science and health studies students, for whom a detailed knowledge of the range of organ systems will enable them to not only extend their knowledge but, particularly for health studies students to put into context the anatomy and physiology that will form part of their practice in the workplace.

Year 1

• Becoming a Bioscientist

  In this module you will develop an understanding of key scientific concepts and effective science communication. You will learn how to process and critique different forms of information, and how to communicate science to both scientific and non-scientific audiences using diverse media, forms and methods. You will also examine ethical issues surrounding research and intervention.

• Cell Biology and the Origin of Life

  In this module you will develop an understanding of prokaryotic and eukaryotic cell biology and the key functions of these structures and organelles. You will look at the origin of life and the principles of natural selection and evolution. You will also learn the practical technique involved in microscopy, including fixation techniques for the analysis of cell ultrastructure and aseptic techniques for bacterial culture.

• Genetics

  In this module you will develop an understanding of genes and their behaviour in individual organisms, in populations, and at the molecular level within the cell. You will look cellular genetics with respect to mitosis, meiosis, inheritance and recombination, and consider the fundamentals of gene expression, its control, and DNA replication. You will examine genome organisation, transcription, and translation, and gain practical experience of using techniques in microscopy, including slide preparation for the observation of chromosomes.

• Chemistry of Life

  In this module you will develop an understanding of the fundamental chemistry of life processes and laboratory experiments. You will look at the basics of biological chemistry, including the chemical bonding and reactivity of important biomolecules, intermolecular forces, 3D structure and isomerism. You will analyse equilibria in acid/base biochemistry and solve related problems. You will also learn the basic biochemical lab techniques and carry out consequent data analysis.

• Fundamental Biochemistry

  In this module you will develop an understanding of the basics of biochemistry. You will look at some of the key techniques for biochemical analysis, including spectroscopy, and the fundamentals of protein structure. You will examine structure / function relationships in myoglobin, hemoglobin and the serine proteases, and learn to solve biochemical kinetic problems using the Michaelis-Menten equation. You will also consider how to solve thermodynamic problems, including equilibrium constants. 

• Protein Biochemistry and Enzymology

  In this module you will develop an understanding of the main concepts of classic protein biochemistry including protein purification, enzyme kinetics, and enzyme structure. You will look at the basic principles behind a number of protein purification techniques, and consider basic enzyme kinetics using the Michaelis-Menten equation and derived methods to analyse kinetic data. You will examine the underlying biochemistry of a variety of analytical methods and their applications in research and diagnostics, gaining practical experience in performing some of these methods in laboratory practicals. You will also analyse the concept of biochemical buffers and learn how to make these from stock solutions.

• Introductory Animal Physiology

  In this module you will develop an understanding of the fundamental physiological systems that are required to maintain complex multi-cellular animals, specifically those involved in communication, transport and homeostasis. You will look at how systems and specialised organs have evolved and interact to obtain oxygen from the environment whilst maintaining optimal internal conditions for cellular function. You will consider the mechanisms, organisation, functions and integration of the nervous and endocrine systems to show how neural (somatic and autonomic) and hormonal signalling enable an animal to sense and respond both consciously (e.g. movement) and unconsciously (e.g. internal homeostasis). You will also examine the evolution of the closed circulatory system, separated into pulmonary and systemic circuits and driven by a four-chambered heart, essential for the body-wide distribution of nutrients, oxygen and hormones, and for the removal of waste products.

• Introduction to Human Physiology

  This module will explain the function of some organ systems in humans and illustrates the consequence of disease on physiological function. The module will begin by explaining the structure, organisation and function of key brain structures, and how special sensory systems convert light, sound and position/movement into electrical signals that are transmitted to the brain: including how our ability to sense the environment can be disrupted by disease. This will be followed by an explanation of the function and regulation of the mammalian kidney and the lungs, and the roles of the adrenal gland. The module then covers aspects of basic haematology; the fluid and formed elements of blood and their role in inflammation and the control of bleeding following vessel damage. The module will end with an introduction to skeletal muscle function and its neural regulation, how movement is controlled and sensed by the somatic nervous system.

• Academic Integrity

  This module will describe the key principles of academic integrity, focusing on university assignments. Plagiarism, collusion and commissioning will be described as activities that undermine academic integrity, and the possible consequences of engaging in such activities will be described. Activities, with feedback, will provide you with opportunities to reflect and develop your understanding of academic integrity principles.

   

Year 2

• Bioenergetics and Metabolism

  In this module you will develop an understanding of the major pathways for electron transfer and energy conversion in living systems. You will look at how energy is utilised in biosynthesis, and the role of enzymes, coenzymes and metabolic intermediates. You will examine the principle of flux control and metabolic regulation and the mechanisms that balance the activity of key pathways to physiological demands. You will also consider the main features of human energy metabolism and their relationship to obesity and diabetes, and analyse the importance of protein glycosylation and how protein glycans are biosynthesised.

• Protein Structure and Function

  In this module you will develop an understanding of protein structure, protein folding in vivo, and the principles of protein engineering and protein-protein interaction. You will look at methods for the separation, purification, detection, and structural analysis of proteins, gaining practical experience in using techniques such as SDS-PAGE and Western blotting. You will also examine mechanisms of enzyme catalysis and regulation.

• Molecular Biology

  In this module you will develop an understanding of the chemical structure of DNA and RNA, and how genes are organised and expressed. You will look at gene characterisation using recombinant DNA technology, and will consider DNA as a template for RNA synthesis. You will also become familiar with molecular biology techniques that are widely used in the life sciences, including the preparation and handling of purified DNA, restriction enzyme digestions, and polymerase chain reaction.

• Immunology

  In this module you will develop an understanding of the mammalian immune systems at cellular and molecular levels, and how this is determined by antibody structure and function, the complement system, and the impact of immunoglobulin genetics. You will look at the role of T cells as effectors and regulators of immune responses, allergic reactions, transplant rejection, and the HIV virus and the pathogenesis of AIDS on the immune system. You will examine antibody antigen reaction techniques used in immunology, and consider the isolation and purification of lymphocytes, their morphology and abundance.

• Neuronal and Cellular Signalling

  In this module you will develop an understanding of the structure of the nervous system, including the main types of cells and the transmission of signals within neuronal networks. You will look at the process of synaptic transmission, including both electrical and chemical synapses. You will examine the different types of neurotransmitters and receptors and the mechanism of intracellular signaling, considering the role of second messenger signaling pathways. You will also enhance your practical skills, such as isolating and characterising synaptosomes and using these for the study of transmitter metabolism.

• Physical Biochemistry for Life Scientists

  In this module you will develop an understanding of the behaviour of macromolecules in solution, looking at the key analytical methods used for their study. You will become familiar with a range of spectroscopic techniques, including fluorescence, phosphorescence and circular dichroism. You will examine the phenomena of surface plasmon resonance measurements, interferometry, and biocalorimetry, and look at the principles of scanning force microscopy (SFM) and atomic force microscopy (AFM). You will also consider the importance of the emerging field of nanobiotechnology.

Year 3

• Individual Research Project

  You will carry out an individual laboratory or theoretical investigation, supervised by an appropriate member of staff, who will provide guidance throughout. You will apply the knowledge and skills learned throughout your studies, and learn to organise data in a logical, presentable and persuasive way. You will produce a report, around 8,000 words in length, and will deliver an oral presentation with a summary of your findings.

• Nutrition and Medical Biochemistry

  In this module you will develop an understanding of human metabolism, physiology and immunology. You will look at the main features of human energy metabolism, including nutrition, the importance of vitamins, and the biochemical basis of specific disorders, such as diabetes, hypercholesterolemia and obesity. You will consider the disorders associated with lipid dysfunction and examine other metabolic disorders such as hypercholesterolemia.

• Cell and Molecular Neuroscience

  In this module you will develop an understanding of the basic principles of brain development and the molecular mechanisms which regulate this, including the synthesis, storage and release of neurotransmitters. You will look at the molecular basis of learning and memory, considering brain disorders such as Alzheimer’s disease, epilepsy and bipolar disorder. You will assess the problem of brain damage in preterm babies and infants, and the methods available to help provide neuroprotection, with insights from a clinical practitioner.

• Clinical Diagnosis of Disease

  In this module you will develop an understanding of how physiology, biochemistry and biochemical methodologies can be applied to the investigation of disease and monitoring of treatment. You will look at the chemical pathology of a range of physiological systems, including kidney, liver, heart, thyroid and bone, and clinical biochemical aspects of cancer diagnosis, infertility and epilepsy. You will examine the rationale behind the analyses used in the biochemical investigation of disease, and consider the clinical aspects of disorders affecting the various organs and systems.

Optional Modules

Below is a taster of some of the exciting optional modules that students on the course could choose from during this academic year. Please be aware these do change over time, and optional modules may be withdrawn or new ones added.

Year 2

• Microbiology

  In this module you will develop an understanding of some of the key concepts in microbiology, including the study of bacteria, viruses, and eukaryotic microbes. You will look at how microbes are distinguished and classified, and discuss bacterial growth and differentiation. You will examine the importance of microorganisms in health and disease, including human welfare issues such as opportunistic infections and the role of microorganisms in cancer.

• Cell Dynamics: Division and Movement

  In this module you will develop an understanding of the key methologies used in cell biology, becoming familiar with modern microscopy techniques and live cell imaging studies. You will look at the basic mechanisms that regulate the cell cycle and the regulatory mechanisms for DNA synthesis and mitosis. You will examine mitochondria and chloroplast organelle functions, and the principles of polar bodies and asymmetric cell division. You will assess the basic mechanisms underlying cell shape and mobility, and consider the evolutionary constraints of cellular functions.

• Human Physiology in Health and Disease

  In this module you will develop an understanding of the function and integration of selected human physiological systems in normal physiology and disease. You will look at endocrine control in the human body, specifically the role of the hypothalamo-pituitary axis and the function and regulation of thyroid hormones. You will examine the organisation and integration of the nervous, cardiovascular, respiratory and systems and the principles of whole muscle physiology. You will also consider the composition and functions of blood and haemostasis, and the analysis and interpretation of physiological experiments.

• Developmental Biology

  In this module you will develop an understanding of the processes that lead from a fertilised egg into complex tissues and organisms with well-defined body plans. You will look at the basic cellular and genetic mechanisms that regulate development, and the evolutionary outcomes of developmental changes. You will examine model organisms in which both embryological and genetic approaches have been developed, and will explore axis establishment, segmentation, cellular differentiation, organ development, and the widely-shared signalling pathways that underpin them.

• Pharmacology and Toxicology

  In this module you will develop an understanding of drug-receptor interactions and the methods used to characterise drug action. You will look at the factors that influence drug action and drug toxicity within the body, examining the concepts of drug absorption, distribution, metabolism, and excretion. You will consider the pharmacology of a number of major drug classes, including antihypertensives, antidepressants, analgesics, general and local anaesthetics and drugs affecting the autonomic system.

• Natural Product Biochemistry and Sustainability

  In this module you will develop an understanding of the key energy-generating reaction of photosynthesis and how storage polysaccharides are produced by plants from carbon dioxide and water. You will look at the key biochemical aspects of the nitrogen biosphere cycle and how plants assimilate nitrogen and produce aromatic amino acids. You will examine molecular targets for herbicides in plants, approaches to weed control management, and sustainable nitrogen for agriculture. You will consider the major groups of secondary plant compounds and their roles in plant function and chemical ecology. You will also integrate knowledge of biochemistry, metabolic pathways, chemical ecology, modern agriculture and the use of plant-derived compounds in the pharmaceutical industry, and analyse their importance for strategies to address global challenges.

• Dissertation - Extended Essay

  You will carry out a literature research project on a biological or biochemical topic of your choice, producing a written report around 5000 words in length. You will critically evaluate recent scientific publications on your chosen topic, highlighting how data has been used to generate and test hypotheses.

Year 3

• Biology of Parasitic Diseases

  In this module you will develop an understanding of the principles of parasitism and the protective mechanisms used by immuno-competent hosts to limit the spread of infection. You will look at the biological strategies used by a range of unicellular and multicellular organisms to colonise host causing disease in human and non-human hosts. You will consider studies on the pathology and the cellular immunity elicited by various parasites, and the immune evasion strategies used by widely distributed human parasites to protect themselves from immune attack. You will also address the principles and prospects of anti-parasitic vaccination in the 21st Century.

• Evolutionary Medicine

  Why do we get sick? Why are pregnancies complicated? Why do we grow old? Why do infectious diseases have a disproportionate effect in men and women? These fascinating questions are the core of evolutionary medicine. Through case studies, we will explore contemporary issues in health and disease –ones that we confront on a regular basis– and ask how evolutionary concepts –e.g., life history theory, cooperation and conflict, constraints and trade-offs, coevolution– help us to understand, mitigate, or combat those issues. We will answer questions like: How does understanding human evolutionary history inform us of the causes of common diseases? What role does evolution play in reproductive health and chronic diseases? Why is cancer an evolutionary process that can avoid the action of chemotherapy? What are the consequences of pathogen evolution for disease outcomes, treatment, and control? What are some strategies for overcoming or circumventing pathogen evolution in response to medical intervention? Can we predict the next disease that will emerge in humans?

• Biotechnology in a Changing World

  The ability to manipulate genes provides one of the most important advances in modern research since the discovery of the structure and function of DNA. This process, called genetic engineering, is critical for biomedical research since it has enabled an improved understanding of the role of proteins at both a cellular and organismal level – through gene deletion or through the introduction or removal of disease-associated mutations. This module will provide an advanced-level course on Genetic Engineering. The module will focus on the use of Genetic Engineering in a range of systems including a simple non-animal model (Dictyostelium), and both in vitro and in vivo animal systems. The course will describe the use of these models for Genetic Engineering research, the underlying principles in the research, and the practical application of this research in areas of human health and disease, with a particular focus on current advances in these areas.

• Molecular and Medical Microbiology

  In this module you will develop an understanding of medical microbiology with particular reference to bacteria and pathogenic eukaryotes. You will look at pathogen mechanisms for infection, the host immune response to infection, vaccine development, gastrointestinal health and disease, resistance to antibiotics, anti-parasite chemotherapy and the genetic and biochemical validation of parasite drug targets in the kinetoplastidae. You will examine the role of probiotics in health and disease, and consider a range of microbiological and molecular diagnostics techniques.

• Applications of Genetic Engineering in Health and Disease

  The ability to manipulate genes provides one of the most important advances in modern research since the discovery of the structure and function of DNA. This process, called genetic engineering, is critical for biomedical research since it has enabled an improved understanding of the role of proteins at both a cellular and organismal level – through gene deletion or through the introduction or removal of disease-associated mutations. This module will provide an advanced-level course on Genetic Engineering. The module will focus on the use of Genetic Engineering in a range of systems including a simple non-animal model (Dictyostelium), and both in vitro and in vivo animal systems. The course will describe the use of these models for Genetic Engineering research, the underlying principles in the research, and the practical application of this research in areas of human health and disease, with a particular focus on current advances in these areas.

• Cell and Molecular Biology of Cancer

  In this module you will develop an understanding of advanced concepts and recent advances in fundamentally important areas of cell biology relevant to cancer, including developments in microscopy, imaging and molecular genetic techniques. You will look at current concepts in molecular cell biology, such as cell-cell adhesion and signaling, stem cells in development and in diseases, and cancer and the role of the cytoskeleton. You will examine topics in cancer biology including oncogenes, tumour suppressor genes and caretaker genes, and the signaling and regulatory pathways these are involved in. You will also examine the diagnosis and rationale of cancer therapies.

• Functional Genomics, Proteomics and Bioformatics

  In this module you will develop an understanding of the structure-function relationships in proteins, and how new technologies are being used to exploit protein sequence data. You will look at how genome-wide analyses can be used to examine regulation in biological systems, and consider modes of specific recognition in mediating protein interactions.

• Human Embryology

  In this module you will develop an understanding of human embryos and the development and function of particular endocrine systems. You will look at embryonic development, including gastrulation and specification of the axes, and the initial steps in the formation and patterning of the brain and spinal cord. You will examine craniofacial development, pharyngeal gland formation and sex determination, analysing the cellular and molecular processes involved in detail. You will also consider some of the birth defects that can arise, the genetic and environmental insults that cause them, and investigations which inform their prevention.

• Molecular Basis of Inherited Disease

  In this module you will develop an understanding of the theory, technology, and clinical practice of human molecular genetics. You will look at a range of genetic disorders and inborn errors of metabolism such as muscular dystrophies, cystic fibrosis, haemophilia, lysosomal storage disorders, haemoglobinopathies, mitochondrial respiratory chain disorders, neurotransmitter synthesis disorders, lipoprotein diseases and primary immunodeficiencies. You will examine the concepts and significance of human inherited disease gene mapping and consider the importance of the human genome project.