Biochemistry with Research Placement BSc(Hons)

The module considers genetic analyses in a number of systems. Mendelian genetics is considered together with linkage and pedigree analysis and their uses in identifying genes. The genetic systems of microbes are introduced with examples of the strategies employed to make use of these systems. Allele inheritance is considered at the population level, along with the concept of evolution. The Tree of Life is also discussed. Finally, the module contains an introduction to basic cytology, the cellular basis of life is considered and a comparison between prokaryotic and eukaryotic cells performed. The concept of 'compartmentalisation' is dealt with, where organelles are dealt with individually. Cell culture techniques are introduced and the problems associated with packaging DNA in a eukaryotic chromosome discussed.

This module aims to introduce students from diverse backgrounds to the range of skills required in modern analytical science and illustrate how analytical methodology underpins scientific investigation across the conventional discipline boundaries. The module will build on and develop your prior knowledge of analysis whilst not assuming any particular area of expertise and will also endeavour to improve your numerical, IT and communication skills by illustrating analytical methodology in the context of these key skill areas. This module also aims to develop your ability to obtain and interpret a wide range of spectroscopic data in a systematic and logical fashion. In this way you'll be taught to apply your knowledge to a wide range of new problems and in so doing develop your general problem solving skills. The module will be taught primarily by lectures and tutorials with illustrative practical work to highlight salient points from the lecture material.

This module teaches you to recognise a range of functional groups and to name systematically compounds that contain them. Structure and bonding in organic compounds are discussed, as are the concepts of the octet rule, orbital hybridisation, formal charge, bond polarisation and resonance. The importance of molecular geometry is introduced and the basic principles of molecular conformation and of stereochemistry are covered. In preparation for the chemistry to follow, an integrated treatment of the 'language of chemical change' is presented. The ideas of mechanism and reaction intermediates are met, together with the curly arrow symbolism which chemists use to represent the electron movement inherent in chemical reactions. In the second half of the module, the chemistry of the principal functional groups is considered, using the ideas developed earlier. The lecture programme is reinforced by regular tutorials in which problems are worked. Running parallel to the lecture programme is a continuously assessed practical course that introduces you to the basic techniques of preparative organic chemistry.

Research in science ranges from finding out what is already known to carrying out investigations to add to our store of knowledge. This module provides the requisite background skills for successful completion of an Honours Degree in Biology. Basic generic skills involving literacy, numeracy and use of IT are applied to summarising, understanding, interpreting and presenting data generated by laboratory investigations. Throughout the module the emphasis is on learning the skills that will be used in various parts of the degree course. Acquisition of learning skills takes precedence over memorising facts. Learning about current topics in science involves finding peer-reviewed scientific literature (using library facilities and database searches), and summarising it with source attribution as a report using correct scientific style. Basic statistics is taught using spreadsheet and statistics programs. You'll also have the opportunity to build up a portfolio of evidence relating to your skills for Personal Development Planning.

This module covers all the major organs of the body together with models of normal and abnormal bodily function. Emphasis will be directed to the concept of homeostasis and the integration of dynamic processes involved in the maintenance of health.

This module seeks to give you an understanding of the essential processes involved in information storage and use in living cells together with the modern methods of molecular biology used to analyse genes and their expression. The essential properties of DNA and RNA together with their replication, transcription and translation into protein are discussed in some depth for both eukaryotic and prokaryotic organisms. The large variety of recently developed methods, which allow the identification, isolation and the characterisation of genes from potentially any living organism is introduced. The major enzymes used for DNA manipulation are discussed together with strategies for cloning the genes in different hosts. Analytical techniques such as DNA sequencing and polymerase chain reaction (PCR) are dealt with in some depth. In addition, the utilisation of the isolated genes both in genetically modifying organisms and in analytical techniques are introduced. Here particular emphasis will be given to what has been learned about the way in which the expression of genes is controlled. Lectures each week are supplemented with tutorials to help build up your confidence with the material. Sessions include restriction mapping, model building in gene expression strategies and the experimental methodologies from the lectures. There is a major practical element involving the isolation of DNA from bacteria, analysis by gel electrophoresis and bacterial transformation etc.

This module considers protein structure in relation to function, in particular enzyme action and membrane mediated metabolic processes. The various types of post-translational modifications of proteins are discussed in detail, followed by an account of protein folding. Protein mis-folding, aggregation and intrinsic disorder are also discussed using prion proteins, amyloid and FnBPA as examples. Various globular and fibrous proteins illustrate regulatory strategies. Channels, pumps and cytoskeletal components illustrate higher levels of organisation of proteins. The techniques of X-ray crystallography and Cryo-EM for protein structure determination are introduced. Advantages and limitations are discussed. Lectures will discuss various techniques for analysing protein structure, folding and protein-protein interactions (isothermal titration calorimetry, near and far UV circular dichroism). The structure and function of mitochondria and chloroplasts is also covered including respiration and photosynthesis pathways, focusing on electron transport chains. Mechanisms of enzyme catalysis are discussed with numerous examples (acid-base, covalent, nucleophilic, metal ion etc). In lectures, practicals and problem based tutorials you'll have the opportunity to develop the skills required for determining kinetic and inhibition constants (kcat, catalytic efficiency, Ki). Practicals will also allow you to isolate a pure protein from egg white, assess product quality and consider the commercial value of this purified material.

In this module you'll have the opportunity to consolidate the interpretative skills learnt in the module Analytical Science 1 and extend these to the analysis of spectra from more complex organic molecules. The majority of samples encountered in analytical science are mixtures, you'll be introduced to the basics of the most widely used forms of chromatography and a number of application areas of each will be described including the application of combined separation and spectroscopic techniques. Additionally you'll be introduced to a selection of instrumental analyses including atomic spectroscopy, thermal methods and electrochemical techniques, and statistical methodology which provide solutions to many of the analytical problems which are encountered in modern society. This module aims to develop your abilities in these directions to enable you to design an analytical process whilst further developing your IT, communication and numerical skills.

The module builds on the basic physiology that was studied in the first year. The organisation and regulatory roles of the nervous system are considered and their interaction investigated. The central nervous system (CNS) will be investigated and the functions associated with its anatomical regions. Interactions such as sensory and motor integration, sleep-wake cycles and higher mental functions (consciousness and memory) will also be introduced. Endocrine physiology and hormonal control will also be considered with integration of activities of the nervous and endocrine systems.

This module introduces you to the underpinning biophysical pharmaceutics for the formulation and compounding of medicines valuable for understanding of extemporaneous preparation, but also for the rational design of existing drug formulations. The theory outlining the formulation of drugs for improved absorption, metabolism and biological targeting provides the opportunity to gain a practical understanding of efficient pharmaceutical design.

The aims of this module are to introduce you to a range of pathogens responsible for major and emerging infectious diseases globally. To outline how pathogen biology not only influences pathology and transmission of disease, but is also the target for therapeutic intervention. We'll provide you with an overview of the drug discovery pipeline and other factors involved in the control of infectious diseases. This module also covers the mechanisms of action of existing and potential new therapies and discusses the significance of infectious diseases in the context of 21st century life. It also introduces the emerging importance of the commensal microflora and the concept of dysbiosis in the aetiology of a range of pathologies. The bases of pathogenicity and virulence for a range of bacterial, eukaryotic and viral pathogens will be addressed alongside discussion of current and prospective treatments for the diseases caused by these micro-organisms. The emerging importance of commensal microflora and the concept of dysbiosis in the aetiology of a range of human pathologies and antibiotic/drug-resistance are also important themes in this medical microbiology-themed module. Infectious diseases significant in a UK context and more widely in a global context will both be addressed. Lectures and assessment will cover bacterial, viral, and eukaryotic pathogens, which are the aetiological agents of human disease in tropical and temperate countries. Lecture content will include discussion of leading causes of mortality globally: e.g. cholera, malaria, tuberculosis, and HIV-AIDS. Threats posed by antibiotic resistance, challenges and opportunities associated with new medicine development, and the significance of emerging diseases against a backdrop of climate change will all be addressed.

This module introduces and explores contemporary methods used in molecular life sciences. It explores technical aspects underpinning genome engineering and large-scale “omics” projects undertaken by the research community and presents applications and challenges of “omics” research using examples from a variety of model systems and approaches. Finally, it considers the personal, societal and ethical impacts of these developments and their effects on our understanding of genomes and evolutionary processes. The computer practical parts of the module engage you with manipulation of protein structure, phylogenetic techniques and analysis of high–throughput data using publicly available datasets and resources.

This module provides a comprehensive overview of adaptive and innate immunity. Detailed discussion is also provided for a broad range of parasites, bacterial pathogens and viruses and the dynamic interaction occurring after infection of a susceptible host: the host’s immune response; the evasion, inactivation, and/or manipulation strategies deployed by the microbial invader. Key experimental techniques commonly used in immunology research and in the diagnosis/monitoring of disease are also discussed.

This module provides the opportunity for you to learn about a range of different chronic diseases that can affect human health and quality of life. The underlying biology associated with some of these chronic diseases will be studied, the mechanism(s) by which they arise or develop and current treatments. There will be a particular focus on cancer as an example of a complex chronic disease. Other chronic diseases to be studied will be chosen to reflect recent advances in knowledge or treatment of a disease.

Cellular pathology is the microscopic examination of normal and abnormal cells (cytopathology), and tissues (histopathology) for indicators of disease. You'll have the opportunity to prepare and analyse specimens with disease-relevant markers and familiarise themselves with the use of light microscopy and interpretation of generated data. Immunohistochemistry slides will be prepared, processed and stained with antibodies and staining patterns will be compared between normal and diseased tissues. Lectures will be sectioned into an introduction to anatomy followed by an introduction to tissue architecture and organ function with particular reference to pathological diseases including cancer. The theory and concepts of clinically relevant techniques such as histochemistry and immunohistochemistry utilising chromogenic or fluorescent detection will be discussed with special reference to standardised clinical pathology services. Clinical biochemistry is the investigation of the function and dysfunction of systems, organs and tissues by the measurement of biochemical markers. Lectures will expose you to the broad range of function tests (e.g. liver, cardiac, kidney, pancreatic, thyroid function tests). The different biochemicals used as tumor markers will be described with an overview of the methodology used in laboratory tests. Methods for detection of triglycerides and LDL cholesterol will be discussed alongside the factors which may affect the accuracy of the test. Therapeutic drug monitoring will be discussed with reference to optimizing individual dosage regimens appropriate for the clinical condition. Quality Control in a clinical laboratory will be discussed with tutorials on the use of Levey-Jennings Charts and Westgard rules.