Biomedical Science BSc Honours

Students of Life Sciences need to be comfortable with the chemistry and biochemistry of the molecules of life and the processes in which these molecules are vital components. This module will enable you to explore the diversity and function of a broad range of biological molecules, combining a range of learning and teaching methods (lectures, practicals and tutorials) to support you through this challenging subject. You will be given the opportunity to develop laboratory skills, and a number of formative practical exercises will be undertaken, in line with the theoretical content of the module. You'll be assessed both formatively and summatively, giving you the opportunity to improve your skills and to prepare for higher levels of study. Areas covered are: properties and reactions of biological molecules; biomolecular processes; energy for life’s processes and laboratory techniques for biochemistry and molecular biology.

This module aims to provide an introduction to the biology of the cell and the fundamental processes and interactions that take place during the life of a cell. The biodiversity of cells within the Tree of Life will be considered, with particular focus on the domains Prokarya and Eukarya. Cell division, specialisation, ageing and death will be examined at the individual and population level, alongside gene inheritance, transmission and expression, and the role of genetic variance and natural selection on cell populations. Cell behaviour and the ability of cells to communicate and interact with one another as well as impact on the environment will be covered. Practical work will ensure you receive a foundation in experimental techniques of cell biology.

The emphasis for this module is to develop an understanding of how the structural organisation of different cell types within a tissue/organ enable and support the tissue/organ’s normal function. For every tissue/organ studied, the functional role of that tissue/organ in the whole body, as covered in Human Physiology, will be studied. A significant component of the module will be evaluating the impact of pathological processes on whole body physiology and integrity.

This module will provide an introduction to the organisation, communication, and support systems of the human body. Major physiological systems will be covered with emphasis placed on the maintenance of homeostasis via feedback mechanisms.

The module will introduce the concepts of employability and professionalism in the workplace with specific reference to the Bioscience/Life Science industry. Emphasis will be placed on learning to conduct one’s self as a credible scientist with ethical professional and honest manner with consideration for scientific advances and technological innovation. You'll be taught about scientific communities, learn to appreciate diversity and constructive discussions on scientific topics; evaluate scientific literature, importantly critically examining the credibility of sources of scientific claims. You will document through a variety of assessments transferrable skills linked to a career development pathway in a professional development portfolio. Emphasis will be put on the continuity of the portfolio throughout your time at Westminster and into the world of work.

Through a blended learning approach and introduction to the Westminster Award, the central ethos portrayed will be to develop a professional employability portfolio throughout the journey through higher education. Extracurricular activities will be encouraged, and you'll learn of opportunities for non-mandatory, short term internship opportunities and short term placements through Engage and Talent Bank.

This module offers a study of how molecular bioscience can help solve biological problems encountered by human beings. The module will start with a consideration of how sequencing the human genome and bioinformatic analysis has led to the incarnation of personal medicine. It will consider how human diseases and conditions are being treated in the 21st century: the development of new antibiotics, the use of stem cell biology and the science of tissue regeneration. Specific studies will be made of cancer and neuro-degeneration to show how modern molecular biochemical and biophysical techniques are being used by bioscientists to study these diseases. In addition the wider applications of molecular science in agriculture forensic science and biotechnology will be explored.

The module will provide an understanding of chemical structure stereochemistry and organic functional groups of importance in biochemistry as well as facilitating an understanding of enzyme mechanisms crucial in biochemistry through an introduction to selected organic reaction mechanisms. The module will also introduce the importance and use of thermodynamics and redox chemistry in biochemistry. In summary the module will help you understand biochemical reactions via a sound foundation in biologically relevant chemistry.

The module explores the scope of pharmacology and introduces the concept of drugs as biologically active, selective molecules. In addition, drug interactions with cellular targets will be studied in order to provide examples of their clinical usage and consideration of potential adverse effects. Selected experimental techniques used in pharmacology will be reviewed. The significance of absorption, distribution, metabolism and excretion in determining systemic drug action will also be studied.

An understanding of the science underpinning sound nutrition is essential for the evaluation of the role of nutrition in health and physical well-being. This module will explore fundamental concepts in cellular biochemistry and physiology which relate to human nutrition and provide students with an introduction to vocational professional practices. The module content will be delivered via a combination of lectures, interactive tutorials and practical sessions in our human performance laboratories.

The module will introduce you to the history and philosophy of science and to its practice in the modern world. You'll be taught about scientific communities and how scientists communicate with one another and how to read and evaluate scientific papers. You will explore the principles of scientific research, including interpreting data and critically examining scientific claims.

The module aims to build on knowledge of human physiology, biochemistry and anatomy acquired at Level 4 and to provide a biological insight into understanding disease processes.

At the end of this module the student will be able to explain the patho-physiological alterations occurring in a number of disorders and be able to elucidate shared mechanisms within or between disease states.

This module also aims to introduce the principle laboratory tests carried out by the specialist Biomedical Science disciplines as well as their integrated role of in disease investigation.

An overview of pathogenic microorganisms, the factors which contribute to their virulence and pathogenicity, and the diseases they cause will be combined with an overview of the human immune system, its evolutionary development and its interactions with those microorganisms.

The different components of the immune system will be covered in depth and consideration given to the roles of different leucocytes and effector molecules in the immune response including the key features and effectors of inflammation. Alongside consideration of the roles of the immune system in the elimination of microorganisms and mechanisms used by pathogens to avoid the immune system mechanisms.

Also covered are a range of laboratory techniques in use in the microbiology and immunology fields, the appropriate application of those techniques, analysis of the results and the merits/limitations of laboratory techniques.

You'll build on your knowledge of classical genetics, molecular biology and biochemistry. Teaching of molecular genetics, epigenetics and genomics will be underpinned by vital elements of biochemistry needed to fully appreciate these complex and exciting fields. You'll be introduced to medical and population genetics through the study of common and rare human genetic disorders and genetic studies on experimental organisms. The importance of genetics and genomics to humanity will be explored through the study of diagnostic genetics and an introduction to genetic counselling. Throughout the module consideration will be given to recent developments, current practices and ethical considerations in genetic research and practice.

This module provides a comprehensive overview of modern biochemistry. Topics include major pathways for the degradation and/or biosynthesis of carbohydrates, fatty acids and amino acids, respiration and oxidative phosphorylation, the role of enzymes in metabolic processes, all underpinned with a stress on underlying thermodynamic principles.

The module will also provide a thorough overview of various strategies (enzyme regulation, cell signaling, etc.) employed by organisms to regulate their metabolism and maintain homeostasis.

Finally, the module will also examine a number of important metabolic disorders and diseases in order to allow you to integrate and apply what you've learnt throughout the module.

The module covers essential elements of research methods, data analysis (as relevant to the Biosciences) and provides you with key laboratory techniques. On completion of the module successfully, you'll have developed the expertise to extract and interpret scientific information from peer-reviewed original sources, have used this information to produce a literature review of a specific area in the biosciences, prepared a design for your final year research project as well undertaken a skill-based evaluation of your competencies (PPP 5.3).

The module will build on the cell biology, biochemistry, information technology and critical thinking skills acquired at level 4. This module will allow you to develop skills in the area of bioinformatics including the computational analysis of DNA and protein sequences using alignment and evolutionary models. You'll use a variety of computational methods to assign gene and protein function including data from gene expression analysis and proteomics.

This module examines food and nutrition in both dietary and physiological contexts, assessing their contributions to health and disease states, as well as their impact on human performance. Additionally, the module examines the challenges in defining health and disease, as well as determining the most suitable treatment modalities for a particular individual. Key aspects of diet/disease relationships are also examined in relation to nutritional intake and status. Transferable skills, including group work, communication, and presentation, are practised.

You'll build on their integrated knowledge of classical and molecular geneticsacquired from L4 and L5 core modules. You'll develop an in depth understandingofthe growing relevance of genetics and genomics in medicine by being introduced to current practices in clinical genetics with special focus on the application ofmodern genomic technologies fordisease diagnosis, prognosis and treatment. The crucial role of genetics and genomics in precisionmedicine will be highlighted through the detailed study of common and rare human genetic disorders. Special consideration will be given to conceptual advances and practical developments ensuedfrom recent translational research initiatives, with special consideration of newly emerging ethical challenges and emphasis on related social perspectives on a global level.

This module covers the pathogenesis of human parasitic diseases; case histories will be used to demonstrate the principles and practice of parasitology. Life cycles and control of insect, worm and protozoan parasites, including malaria, schistosomiasis, trypanosome, and nematode infections, are covered. The failures and successes of control courses will be reviewed. Other topics covered will be the impact of HIV/AIDS, the effect of parasitic infections on nutrition and the importance of insects as vectors of parasitic diseases.

Using student-centred enquiry based learning, which will allow you to become a co-creator of your own knowledge in a small group format, you'll be required to integrate and synthesise material covered in this module with learning from both Physiological Biochemistry and Physiological Networks in order to further their understanding of how the different body systems are regulated and how one system influences another. Clinical disorders will be used to demonstrate the consequence(s) of disruption to normal function in one system on another system/other systems.

This module comprises lectures and tutorials designed to give you an understanding of molecular and cellular therapeutic strategies available for the treatment of inherited and acquired diseases. As the field is progressing rapidly the contents are upgraded annually to introduce cutting edge current concepts and opinions. Modern molecular and gene therapies, immunotherapy,  bacteriophage-based therapies, clinical trials and associated ethical issues are discussed.

The module commences with an overview of principles in neuroscience, beginning with an introduction to cellular systems and cell communication involved in fundamental neurophysiological processes. An overview of neuroendocrine physiology such as hormonal release via the hypothalamic-pituitary axis, and introductory neuroanatomy (including a mammalian dissection laboratory session) will also be explored. The module will also focus on the development of the nervous system and the mechanisms involved in specific brain functions as well as key neuropathological and neurocognitive disorders.

In this module, you'll explore the cellular and molecular basis of disease at an advanced level, building the knowledge needed to critically evaluate both routine laboratory practice and emerging molecular diagnostic techniques. To reflect the demands of modern laboratory work, the module focuses on cancer, including both solid and blood tumours.

You'll use integrated case studies to examine the diagnostic process in detail, explore methods for assessing prognosis, and consider the role of predictive testing in guiding personalised medical treatment.

In this module, you'll explore immune responses to pathogens, tumour cells, and the prevention of infectious diseases. You'll examine immunodeficiency, hypersensitivity, and autoimmunity, including their investigation, diagnosis, pathology, and treatment.

You'll also study the manipulation of immune responses, including the use of vaccines and immunotherapy, as well as the principles of transplantation, rejection, and immunosuppression. The module will cover the scientific basis, clinical applications, and practical aspects of blood transfusion, giving you a comprehensive understanding of the immune system in both health and disease.

In this module, you'll explore the clinical and technical theory and practice that underpins modern biochemistry and haematology laboratory investigations of selected disorders. You'll learn how to evaluate laboratory methods and incorporate quality assurance systems to support accurate and reliable decision-making.

Students in this module are supervised and guided to design and carry out an independent research project, analyse and interpret the results and report their findings in scientific style. The module covers safe laboratory practices, ethical considerations, study designs, selecting and applying appropriate statistical tools and other aspects of scientific professionalism. Students are also encouraged to think about preparation for entry into the job market or into postgraduate education.

In this module, you'll learn to detect, identify, and characterise pathogenic microorganisms. You'll explore the pathogenesis, transmission, and epidemiology of infectious diseases, with a focus on treatment and prevention. Emphasis will be placed on diseases of current and global importance, including emerging pathogens.

You'll also cover laboratory automation, antibiotic resistance, microbial genomics, and bioinformatics, as well as the public health measures used to control the spread of disease.