Epigenetics, Gene Regulation and Disease
This module will provide an understanding of epigenetic mechanism and their involvement in gene regulation. Alongside DNA structure/function and key regulatory factors involved in gene expression, concepts centred on DNA packaging, chromatin architecture and transient modifications that determine genome plasticity in development and disease, will be explored. The module will provide an appreciation of nucleosome construction and organisation, chromatin structure at active and inactive gene loci, posttranslational modifications and epigenetic mechanisms. The latter part of the module will provide an overview of how these mechanisms contribute to human development and disease, providing a basis for their utilisation for novel diagnostics and therapeutics. This module will provide the basis for understanding the manipulation of gene expression patterns in disease processes and how these regulatory patterns have become targets for drug development. Students will gain practical experience of DNA/protein complexes and their isolation using immunoprecipitation to understand single loci gene architecture and its effect on gene expression patterns in human cells.
Clinical Biochemistry & Physiology
The module begins with a discussion of selected metabolic disorders of carbohydrate metabolism and their pathological consequences with particular emphasis on diabetes mellitus. The molecular mechanisms underlying polycystic ovarian syndrome are then considered. The role of glycosyltransferases in the synthesis of oligo- and polysaccharides, including glycoprotein assembly, is also explained Finally the module reviews mechanisms of protein transport and their relevance to storage diseases.
Advances in Toxicology: Pick Your Poison
We are surrounded by substances that may do our bodies harm i.e. poisons. The harm these poisons causes depends on our exposure - the dose. The science of toxicology, a discipline that crosscuts biology, chemistry, pharmacology, and medicine, is based on the principle that the dose makes the poison.
This module is compulsory for BSc Medical Pharmacology students and acts as a follow on from PM-147 Introduction to Toxicology: The Dose Makes the Poison.
This module will provide students with the opportunity to expand their toxicology knowledge and apply it to three distinct fields within toxicology; analytical toxicology, forensic toxicology and clinical toxicology.
Students will learn about the experimental procedures and techniques we employ for the isolation and detection of compounds as well as their effects on biological systems. Students will then learn about the role of employing these methods in the field of forensic toxicology and the role of toxicology within the legal system.
Within the module, students will also learn about the role of clinical toxicology and patient presentation following poisoning events and the techniques we have for detection and treatment of toxicology within the clinical setting.
The course is designed to provide an advanced study of the identification of human genes and the determination of the influence of human genes upon disease and health status. Gene identification provides targets for the development of new pharmaceuticals and the range of variation present in the population.
Biomedical Laboratory Techniques
The module will provide practical and in depth theory of applications and equipment available to MSci students in the biomedical research laboratories based at the Medical School. The module will provide guidelines and rationale for experimental design, and data and statistical analysis.
Technegau Labordy Biofeddygol
Bydd y modiwl yn darparu damcaniaeth ymarferol a manwl o¿r cymwysiadau ac offer sydd ar gael i fyfyrwyr MSci yn y labordai ymchwil biofeddygol sydd wedi'u lleoli yn yr Ysgol Feddygaeth. Bydd y modiwl yn darparu canllawiau a rhesymeg ar gyfer cynlluniau arbrofol, a dadansoddiad data ac ystadegau.
Tissue Engineering and Regenerative Medicine
This module will provide students with a firm understanding of the principles of Regenerative Medicine that extend from cellular to tissue and organ repair and regeneration.
This module will focus on the practical aspects of revolutionary technologies, generated through research, that have the potential to significantly improve how we treat injury, illness and disease.
Analytical Techniques for Medicinal Chemistry and Nanomedicine
This module will enable students to understand the basic and advanced concepts of separation science, how it is integrated with several forms of compound detection, gain `hands on¿ problem solving experience and strategic method development for complete bioanalysis according to compound chemical characteristics and method application.
Nanomedicines, pharmaceuticals and advanced therapeutics
This module will explore the history and development of molecular medicines and pharmaceuticals, providing the basis for an advanced understanding of next generation therapeutic approaches. Using landmark technology and chemical development phases informed by separation science and mass spectrometry, the module uses an application driven approach to provide the student with an extensive knowledgebase of drug development, the pharmaceutical industry and nanotherapeutics.
Students will be able to characterize and map the path of a drug from administration, to metabolism and elimination, and critically evaluate drug design and delivery approaches. Traditional small chemical entities used in molecular medicine will be outlined, using drugs such as taxols and tamoxifen as exemplars. Common target oncology and non-oncology disorders will provide the context; with students encouraged to explore targeted nanoparticle fabrication, drug encapsulation and release profiling, from early first generation drugs such as Abraxane to second generation biologically targeted SMART delivery systems. Future molecular medicines such as antibody drug conjugates and kinase inhibitors will be taught by guest lectures from industry and clinicians, covering the spectrum of drug development to delivery and clinical considerations.
Postgraduate Taught Masters Dissertation
In this module the student will be able to gain extensive specialist expertise in a chosen topic which could be targeted to their future career in the field of nanomedicine.
Students will be supervised by University academics and/or members of their research and innovation teams. A variety of project types are available that include:
1. Laboratory based experimental research and data analysis (dependant on laboratory access and capacity).
2. Analysis of experimental data originating from the project supervisor¿s laboratory*
3. Meta-analysis of publicly available experimental data*
4. Systematic analysis of publicly available reported data*
*potentially linking with Swansea¿s data health science or clinical trials unit.
Working with a dedicated academic supervisor students will develop a clear research question, experimental plan and derive, analyse and present research data.
The research topic choice will be made in conjunction with the supervisor, based upon novelty, feasibility and practical considerations on a 'first come first served' basis. The final approval of the topic rests with the project supervisor.
The module lead and academic tutor will provide additional support available throughout the module period.
A series of information sessions and engagement events such as the 3 Minute Thesis and employability for an innovative and integral part of this module.
A small number of placement opportunities may arise with external academic and industry partners. These opportunities will be highlighted early in the first semester, with placements, in the event of high demand, based on student academic performance.
Nanomedicines and Therapeutics
The module will explore the history and development of molecular medicines. Using landmark technology and chemical development phases, the traditional small chemical entities using in molecular medicine will be outlined, using drugs such as taxols and tamoxifen as exemplars. The common target oncology and non oncology disorders will outlined and their respective targets for such medicines detailed alongside drug modes of action and delivery (IV and oral). Further exploration of targeted nanoparticle delivery, from early first generation drugs such as Abraxane to second generation biologically targeted SMART delivery systems, will expand the knowledge to future molecular medicines such as antibody drug conjugates and kinase inhibitors. Excitingly the module will include guest lectures from industry and clinicians, covering the spectrum of drug development to delivery and clinical considerations.