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Masters Degrees (Clinical Bioinformatics)

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This intense course focuses on the molecular and genetic factors of human diseases. Understanding those factors is crucial to the development of therapies. Read more
This intense course focuses on the molecular and genetic factors of human diseases. Understanding those factors is crucial to the development of therapies.

After you've completed the non-clinical elements of the MSc in Molecular Medicine, you’ll spend 20 weeks with a clinical team, working on a particular health or disease area.

You could work primarily with either a clinical research team or a clinical practice team – depending on your preferred choice and the availability of attachments.

The course will give you a critical understanding of how molecular medicine is being applied to real problems in a particular clinical area. It is assessed mainly through written coursework and dissertations.

Core modules

From Genome to Gene Function
Human Gene Bioinformatics
Human Disease Genetics
Modulating Immunity
Literature Review
Laboratory Techniques
Clinical Attachment Presentation Module

Examples of optional modules

A wide choice of pathways (related to the field of your clinical attachment) which includes:

Virulence Mechanisms of Viruses and Fungi (Microbes and Infection)
Molecular and Cellular Basis of Diseases (Experimental Medicine)
Vascular Cell Biology (Cardiovasular)
The Molecular Basis of Tumorigenesis and Metastasis (Cancer)
Modelling Protein Interactions (Genetic Mechanisms)

Special options for the clinical attachment are:

Clinical Attachment
Clinical Research Project

Teaching

Lectures
Tutorials
Seminars
Clinical Attachment

Assessment

Essays
Portfolio work
One Statistic Exam
Dissertation

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Stratified Medicine holds huge potential in the timely development of new treatments for human disease. It is among the most important concepts to emerge in 21st century clinical science and will be a crucial component of the global drive to increase the efficacy, safety and cost effectiveness of new treatments. Read more
Stratified Medicine holds huge potential in the timely development of new treatments for human disease. It is among the most important concepts to emerge in 21st century clinical science and will be a crucial component of the global drive to increase the efficacy, safety and cost effectiveness of new treatments. This new taught postgraduate Masters programme draws on the current and future needs of the Life Sciences sector, to create a highly skilled workforce. It harnesses Scotland’s strengths in Stratified Medicine, Clinical Trials, Bioinformatics and Pharmacogenomics to provide focused training which integrates basic and clinical sciences, and equips students with grounding in the essential skills required to design, execute and evaluate modern clinical interventions.

Why this programme

◾The programme will cover the principles which underpin the emerging science at the interface between genetics and pharmacology and the clinical evaluation of the resultant new medicines, taught by internationally recognised experts
◾The aim of this programme is to train researchers who can break down the barriers that currently prevent discoveries at the bench from being translated into treatments at the bedside
◾University of Glasgow is rated in the top 1% of universities worldwide, and has a global reputation in the field of clinical trials and stratified medicine. You will be taught by a multidisciplinary team of world leading scientists and clinicians within the College of Medical, Veterinary and Life Sciences
◾Students will gain an understanding of statistical methods used to evaluate the efficacy and cost-effectiveness of new treatments
◾Students on the programme will undergo theoretical and practical training in state-of-the-art research processes available to researchers in Glasgow, enabling an appreciation of how to apply novel stratified approaches, together with clinical pharmacological, regulatory and ethical principles to the optimisation of future clinical research and therapeutic practice.
◾We have excellent opportunities to engage with industrial and clinical scientists, with guest lecturers from the pharmaceutical industry, medical diagnostic laboratories and bioscience business which will help you understand the science, methodology and terminology used by scientists and clinicians from different disciplines. You will learn to communicate effectively in a multidisciplinary environment, critically evaluate a wide range of scientific data and research strategies and learn how to make a significant contribution to research and treatment in the 21st century
◾You will be taught by a multidisciplinary team of world leading scienctists and clinicians within the College of Medical, Veterinary and Life Sciences
◾Students will learn how all of the above techniques are applied by academic and industrial researchers in the development of new medicines
◾Scholarships available

Programme structure

Students will undertake core courses which will account for 90 credits and a further 30 credits from options which will enable students to personalise their degree to better align it with their future career aspirations. Students will also be offered a choice of project.

Core Courses

◾Topics in Therapeutics - general topics and cardiovascular disease
◾Pharmacogenomics and Molecular Medicine - fundamentals of molecular medicine
◾Medical Statistics 1
◾Evidence based research in medicine
◾Drug disposition
◾Clinical trials: principles and methods.

Optional Courses

◾Pharmacogenomics & molecular medicine - applied pharmacogenomics and molecular medicine
◾Topics in therapeutics - commonly used drugs
◾Pharmaceutical medicine
◾Medical statistics 2
◾Established and novel techniques in cardiovascular & medical sciences research.

Project and Assessment

The project will account for the remaining 60 credits. The programme will include an opportunity for all students to present the outcomes of their projects to an audience of other students and academics. Assessment will consist of submission of a Dissertation and a viva examination.

Career prospects

Graduates of this programme will be competitive applicants for the positions in the commercial life sciences sector, or for PhD study in an academic or combined commercial / academic environment.

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The Pre-Masters in Biomedical Science (Graduate Diploma in Biomedical Science) provides a discipline-specific pathway (a pre-masters year) into the taught Biomedical Blood Science masters level programme. Read more

Overview

The Pre-Masters in Biomedical Science (Graduate Diploma in Biomedical Science) provides a discipline-specific pathway (a pre-masters year) into the taught Biomedical Blood Science masters level programme. It is a one-year full-time programme designed for both home and international students, with a background in life sciences, who wish to study at postgraduate level for the MSc in Biomedical Blood Science. The programme is open to science graduates who do not meet the academic criteria for a direct entry into the MSc. The MSc in Biomedical Blood Science is accredited by the Institute of Biomedical Science (IBMS). The IBMS is the professional body of Biomedical Scientists within the United Kingdom. The IBMS aims to promote and develop the role of Biomedical Science within healthcare to deliver the best possible service for patient care and safety.

See the website https://www.keele.ac.uk/pgtcourses/biomedicalsciencegraduatediploma/

Course Aims

The overall aim is to provide the students with the academic background necessary for the masters programme and to enable them to develop and practise the subject specific academic skills required for the intensive pace of study at masters level. The course also aims to allow international students to benefit from English language support that will help them to develop their academic English language skills.

Intended learning outcomes of the programme reflect what successful students should know, understand or to be able to do by the end of the programme. Programme specific learning outcomes are provided in the Programme Specification available by request; but, to summarise, the overarching course aims are as follows:

- To provide students with core knowledge, understanding and skills relevant to Biomedical Science

- To produce skilled and motivated graduates who are suitably prepared for the MSc in Biomedical Science and for further study.

- To cultivate interest in the biosciences, particularly at the cellular and molecular level, within a caring and intellectually stimulating environment.

- To get an accurate insight into the role of Biomedical Scientists in the diagnosis, treatment and monitoring of disease.

- To develop an understanding of the analytical, clinical and diagnostic aspects of Cellular Pathology, Clinical Biochemistry, Medical Microbiology, Blood Transfusion, Clinical Immunology and Haematology pathology laboratories.

- To promote the development of a range of key skills, for use in all areas where numeracy and an objective, scientific approach to problem-solving are valued.

- To provide students with a wide range of learning activities and a diverse assessment strategy in order to fully develop their employability and academic skills, ensuring both professional and academic attainment.

- To promote the development of critical thinking, autonomous learning, independent research and communication skills to help prepare the students for the MSc in Biomedical Blood Science and for a lifetime of continued professional development.

Course Content

All the modules in this one year programme are compulsory. The programme consists of a total of 90 credits made up of one 30 credit module and four 15 credit modules. An additional English module (English for Academic Purposes) will be offered for non-native English speakers if required. This module will not form part of the overall award, but successful completion is required for progression to the Masters programme.

Modules:
- Biomedical Science and Pathology (30 credits):
The module provides the student with the knowledge and understanding of the pathobiology of human disease associated with Cellular Pathology, Clinical Immunology, Haematology, Clinical Biochemistry, Medical Microbiology and Clinical Virology. It also examines the analytical and clinical functions of three more of the major departments of a modern hospital pathology laboratory, including Haematology, Clinical Pathology, Clinical Immunology, Blood Transfusion, Clinical Biochemistry and Medical Microbiology. In addition, the module will give an accurate insight into the role of Biomedical Scientists and how they assist clinicians in the diagnosis, treatment and monitoring of disease.

- Biochemistry Research Project (non-experimental) (15 credits):
This module aims to introduce students to some of the key non-experimental research skills that are routinely used by biochemists and biomedical scientists, such as in depth literature searching, analysis of experimental data and the use of a computer as tool for both research (bioinformatics) and dissemination of information (web page construction). The student will research the literature on a specific topic, using library and web based resources and will produce a written review. In addition, the student will either process and interpret some raw experimental data provided to them.

- Advances in Medicine (15 credits):
This module will describe and promote the understanding of advances in medicine that have impacted on diagnosis, treatment, prevention of a range of diseases. It will highlight fast emerging areas of research which are striving to improve diagnosis including nanotechnology and new biochemical tests in the fields of heart disease, cancer and fertility investigations which will potentially improve patient care.

- Clinical Pathology (15 credits):
The majority of staff that contribute to the module are employees of the University Hospital of North Staffordshire (UHNS). Students will benefit from lectures and expertise in Clinical Diagnostic Pathology, Pharmacology, Biochemistry, Genetics and Inflammatory Diseases. Students will gain an insight into how patients are managed, from their very first presentation at the UHNS, from the perspective of diagnosis and treatment. The course will cover both standardised testing options and the development of new diagnostic procedures with a particular emphasis on genetic and epigenetic aspects of disease. Students will also gain an appreciation of the cost benefit of particular routes for diagnosis and treatment and the importance of identifying false positive and false negative results. Finally, the students will have the opportunity to perform their own extensive literature review of a disease-related topic that is not covered by the lectures on the course.

- Case Studies in Biomedical Science (15 credits):
This module aims to give you an understanding of the UK health trends and the factors that affect these trends. Through clinical case studies and small group tutorials, you will explore why the UK has some of the highest incidences of certain diseases and conditions in Europe and consider what factors contribute to making them some of the most common and/or rising health problems faced by this country. This will include understanding the relevant socioeconomic factors as well as understanding the bioscience of the disease process and its diagnosis and management. You will also focus on what is being done by Government and the NHS to tackle these major health problems.

- English for Academic Purposes (EAP ):
For non-native English speakers if required

Teaching & Assessment

In addition to the lecture courses and tutorials, problem based learning (PBL) using clinical scenarios is used for at least one module. Students will also be given the opportunity to undertake an independent non-experimental research project, supervised and supported by a member of staff. Web-based learning using the University’s virtual learning environment (KLE) is also used to give students easy access to a wide range of resources and research tools, and as a platform for online discussions and quizzes. Students will be given many opportunities to become familiar with word processing, spreadsheets and graphics software as well as computer-based routes to access scientific literature.

All modules are assessed within the semester in which they are taught. Most contain elements of both ‘in-course’ assessment (in the form of laboratory reports, essays, posters) and formal examination, although some are examined by ‘in-course’ assessment alone.

Additional Costs

Apart from additional costs for text books, inter-library loans and potential overdue library fines we do not anticipate any additional costs for this post graduate programme.

Find information on Scholarships here - http://www.keele.ac.uk/studentfunding/bursariesscholarships/

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The overall aims of the programme are to. - provide professionally relevant teaching and learning informed by research in an integrated clinical and research environment;. Read more
The overall aims of the programme are to:

- provide professionally relevant teaching and learning informed by research in an integrated clinical and research environment;
- develop and create a cohort of doctors and other professionals allied to medicine able to pursue and develop their roles in a rapidly-changing and challenging environment of genomic medicine;
- prepare healthcare professionals for the adoption of genomic technologies and the increasing use of genomic information as part of the diagnostic and treatment pathway;
- develop a cohort of doctors and other professionals allied to medicine with the confidence to lead service improvement for safe and high quality patient care, and with the required knowledge, skills and capability to have a positive personal impact on the work of others;
- develop a cohort of doctors and other professionals allied to medicine with an understanding of research methodologies and clinical opportunities relevant to genomic medicine;
- encourage a commitment to intellectual challenge and evidence-based clinical practice informed by the latest conceptual and theoretical knowledge of genomic medicine;
- develop students' intellectual, practical and transferable skills related to genomic medicine;
encourage critical thinking related to genomic medicine;
- conduct systematic research relevant to their professional practice.

See the website http://www.graduate.study.cam.ac.uk/courses/directory/cvmgmpgnm

Learning Outcomes

The over-arching learning outcomes are:

- Knowledge and understanding -

- To enhance the students’ knowledge and critical understanding of recent developments in genomic medicine relevant to their present and future roles.
- To develop students’ knowledge and understanding of genomic medicine informed by research in a rapidly-changing integrated clinical and research environment.
- To enable deployment of new knowledge in their clinical practice, and to have a positive personal impact on the work of others in their clinical team and wider service.
- To develop an understanding of genomic technologies and to be able to use genomic information as part of the diagnostic and treatment pathway.
- To develop students’ knowledge so that they have the confidence to lead service improvement for safe and high quality patient care.
- To update and extend students’ understanding of research methodologies and clinical opportunities.
- To demonstrate knowledge, abilities and skills to engage in focused, professionally-relevant, independent learning, and through the production of a dissertation.

- Skills and other attributes -

- The skills necessary to locate, read, interpret and analyse primary and secondary sources of material enabling the development of a conceptual and theoretical understanding of recent developments in genomic medicine.
- Skills to evaluate current scholarship and research critically and to place this knowledge within the context of their own situation and practice as clinical leaders.
- The ability to formulate a research topic relevant to their clinical context, to collect and analyse primary and/or secondary sources of data, and to undertake professionally relevant research.
- The facility to communicate the results of their ideas, research and its conclusions in a written form acceptable as a work of scholarship potentially publishable in a professional or academic journal.

Format

The MPhil comprises either:

- eight modules, plus a research project and associated dissertation of 10-12,000 words, or
- ten modules, plus a literature-based research project and associated dissertation of 5-6,000 words.

Students must complete seven Core Modules and one/three further modules chosen from a range of Option Modules, with additional between-module reflection, study and assignment work.

The modules are structured as follows:

- Core Module 1: An introduction to human genetics and genomics
- Core Module 2: Omics techniques and the application to genomic medicine
- Core Module 3: Genomics of common and rare disease
- Core Module 4: Molecular pathology of cancer and application in cancer diagnosis, screening, and treatment
- Core Module 5: Application of genomics to infectious disease
- Core Module 6: Pharmacogenetics and stratified healthcare
- Core Module 7: Bioinformatics, interpretation, and data quality assurance in genome analysis

Option modules will be selected from the following list. Not all options may be offered every year.

- Option Module 1: Ethical, Legal and Social Implications in applied genomics (ELSI) **
- Option Module 2: Counselling skills for genomics
- Option Module 3: Professional and research skills
- Option Module 4: Advanced Bioinformatics – from genomes to systems
- Option Module 5: Epigenetics and epigenomics
- Option Module 6: Expanding the content of the MPhil in genomic medicine with a workplace-based module

Each core module will involve around 30 hours of contact time, including lectures, group work and online teaching.

Placements

The research project element of the course may be undertaken in a number of scientific institutions, within and without the University. This may include the University's School of Clinical Medicine, the School of Biological Sciences, the European Bioinformatics Institute, Welcome Trust Sanger Institute and, subject to approval, other suitable research institutions.

Assessment

Students must submit a dissertation of 5-6,000 words or 10-12,000 words, depending on the options selected. This will be worth 1/6th or 1/3rd of the overall mark for the course, respectively.

For each of the taught modules, students must complete summative assignments of 2500-3500 words or equivalent (except where other methods of module assessment are indicated in individual module descriptions)

Each student is allocated a named supervisor, who will meet regularly with the student to discuss progress and provide feedback and support as required. Written supervision reports are accessed via the online supervision system. Students are given feedback on the assessments conducted at the end of each module.

All students will meet with the programme director on a termly basis to discuss progress and to provide their feedback on the course.

How to apply: http://www.graduate.study.cam.ac.uk/applying

Funding Opportunities

Funding is available from Health Education England to pay course fees for NHS employees wishing to apply for this course. Prospective students wishing to apply for HEE funding should refer to the application process published by HEE at http://www.genomicseducation.hee.nhs.uk/msc-funding-info/and ensure that access to this funding is approved before applying for the course.

General Funding Opportunities http://www.graduate.study.cam.ac.uk/finance/funding

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Programme description. This new three-year, part-time, online postgraduate programme leads to the degree of Masters of Science in Clinical Microbiology and Infectious Diseases (CMID). Read more

Programme description

This new three-year, part-time, online postgraduate programme leads to the degree of Masters of Science in Clinical Microbiology and Infectious Diseases (CMID).

Aimed at junior doctors currently undergoing, or about to undertake, specialty training in an infection discipline, this programme is open to trainees in the UK and worldwide.

This degree will also be attractive to those who have completed their training but wish to fulfill continuing medical education requirements or those who wish obtain a formal qualification in Clinical Microbiology and Infectious Diseases.

The programme is aligned with JRCPTB and RCPath training in infection disciplines: Combined Infection Training and Higher Specialty Training in Infectious Diseases, Medical Microbiology and Medical Virology.

This programme is designed to support trainees/specialists in preparation for FRCPath Part 1/Diploma in Infection, Infection Specialty end of training assessments and hospital-based practice.

Programme participants will have access to key texts and research bases and will have direct contact with leading clinicians and clinical scientists, providing a repository of information on infection disciplines that can be accessed at any time.

Online learning

Our online learning technology is fully interactive, award-winning and enables you to communicate with our highly qualified teaching staff from the comfort of your own home or workplace.

Our online students not only have access to the University of Edinburgh’s excellent resources, but also become part of a supportive online community, bringing together students and tutors from around the world.

Programme structure

This programme is taught entirely online. The structure of the degree is designed to meet the needs of trainees and specialist practitioners from all over the world.

Courses are offered as five week courses, each worth 10 credits. Courses in Year 1 are compulsory. Year 2 is a mix of compulsory and optional modules.

Year 1:

  • Introduction to Immunology
  • Science and biology of bacteria
  • Science and biology of viruses
  • Science and biology fungi, parasites and prions
  • Laboratory practise in microbiology, virology and serology
  • Anti-infective therapy and resistance

Year 2:

  • Immunopathology
  • Molecular diagnostics of infection
  • Community acquired infections and public health
  • Infection prevention & control
  • HIV infection and other immune-compromised patients
  • Clinical syndromes and infection
  • The returning traveller: Diagnosis, investigation and management of imported infection
  • Bioinformatics and study design in infectious diseases
  • Emerging Infectious Diseases

Year 3:

Postgraduate Professional Development (PPD)

Postgraduate Professional Development (PPD) is aimed at working professionals who want to advance their knowledge through a postgraduate-level course(s), without the time or financial commitment of a full Masters, Postgraduate Diploma or Postgraduate Certificate.

You may take a maximum of 50 credits worth of courses over two years through our PPD scheme. These lead to a University of Edinburgh postgraduate award of academic credit. Alternatively, after one year of taking courses you can choose to transfer your credits and continue on to studying towards a higher award on a Masters, Postgraduate Diploma or Postgraduate Certificate programme. Although PPD courses have various start dates throughout a year you may only start a Masters, Postgraduate Diploma or Postgraduate Certificate programme in the month of September. Any time spent studying PPD will be deducted from the amount of time you will have left to complete a Masters, Postgraduate Diploma or Postgraduate Certificate programme.

Please contact the programme team for more information about available courses and course start dates.

Flexible study

The programme also offers the opportunity to take a Postgraduate Certificate (60 credits), either part-time over 9 months or on an intermittent basis over 2 years; or a Postgraduate Diploma (120 credits), either part-time over 21 months or on an intermittent basis over 4 years.

Please contact us before submitting an application if you are interested in applying to the Certificate or Diploma programme.

Career opportunities

This unique programme will offer the student the knowledge and skills required to enhance their career progression in clinical or academic medicine. The programme will offer an alternative to traditional classroom based research training for those candidates who do not wish to take time away from their professional commitments.



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Stratified Medicine holds huge potential in the timely development of new treatments for human disease. It is among the most important concepts to emerge in 21st century clinical science and will be a crucial component of the global drive to increase the efficacy, safety and cost effectiveness of new treatments. Read more
Stratified Medicine holds huge potential in the timely development of new treatments for human disease. It is among the most important concepts to emerge in 21st century clinical science and will be a crucial component of the global drive to increase the efficacy, safety and cost effectiveness of new treatments. This new taught postgraduate Masters programme draws on the current and future needs of the Life Sciences sector, to create a highly skilled workforce and is being developed in conjunction with the industrial partners of the Stratified Medicine Scotland Innovation Centre (SMS-IC). It harnesses Scotland’s strengths in Stratified Medicine, Clinical Trials, Bioinformatics and Pharmacogenomics to provide focused training which integrates basic and clinical sciences, and equips students with grounding in the essential skills required to design, execute and evaluate modern clinical interventions.

Why this programme

◾Students will be given the unique opportunity to undertake an industry placement as their main project. This fantastic opportunity will be offered by partner commercial organisations/companies and universities.
◾The programme will cover aspects of commercial innovation and entrepreneurial skills, together with the principles which underpin the emerging science at the interface between genetics and pharmacology.
◾Students on the programme will undergo theoretical and practical training in state-of-the-art research processes, enabling an appreciation of how to applynovel stratified approaches, together with clinical pharmacological, regulatory and ethical principles to the optimisation of future clinical research and therapeutic practice.
◾Students will also gain an understanding of statistical methods used to evaluate the efficacy and cost-effectiveness of new treatments, and direct experience of how all of these techniques are applied by academic and industrial researchers in the development of new medicines.
◾Following successful completion of the programme a joint master’s degree will be awarded.
◾The five stakeholder universities, Glasgow, Aberdeen, Strathclyde, Dundee and Edinburgh are internationally recognised as leaders in biomedical research, hosting highly collaborative and productive groups with the requisite expertise in pharmacology, clinical trial methodology, pharmacogenomics, and life sciences. This vibrant environment, coupled with Scotland’s tradition of excellence in clinical research and significant recent investment in the new science of Stratified Medicine make it the ideal place to acquire the transferrable skills required for a successful and fulfilling career in 21st century biomedicine.

Programme structure

This MSc degree is awarded jointly by the Universities of Glasgow, Aberdeen and Strathclyde. Courses included in this programme are delivered by these three institutions as well as the Universities of Dundee and Edinburgh. Students will be offered a choice of base institution, either Glasgow or Aberdeen. Each base campus has its own programme structure; however students from both campuses will study courses covering three themes totalling 120 credits. Sample course are included below. For the most up to date information on the courses available at each campus please contact

Scientific basis of stratified medicine
◾Small molecule drug discovery
◾Biological drug discovery
◾Pharmacogenomics and molecular medicine.

Commercialisation of science
◾Introduction to bio-business
◾Advanced bio-business
◾New venture creation
◾Regulation and governance of new therapies

Application of research and evaluation of new technologies
◾Clinical trials: principles and methods
◾Applied statistics with routine health datasets
◾Spatial epidemiology
◾Applied health economics

Project and Assessment

The project will account for the remaining 60 credits. All projects will either have an industrial placement or a project which addresses an industrial need. The programme will include an opportunity for all students to present the outcomes of their projects to an audience of other students, academics and industry representatives. Assessment will consist of submission of a dissertation and presentation

Career prospects

Graduates will be able to pursue careers in a variety of academic and industrial areas including clinical research, preclinical lab-based research, business development with expert knowledge in life sciences and bioinformatics/biostatistics.

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With constant developments across all disciplines, biomedical science is a fast-paced, ever-evolving field. Read more
With constant developments across all disciplines, biomedical science is a fast-paced, ever-evolving field. Looking for a programme that will help you deepen your theoretical knowledge, hone your clinical skills and broaden your professional experience? We give you a suite of award pathways that allow you to explore different research areas, develop your specialisms and focus your study into a practical clinical research project.

Key features

-Tap into the expertise of academic lecturers and tutors actively researching and developing new techniques in modern biomedical science. Our programme has a strong international reputation in translational research, with significant financial investment in laboratory infrastructure.
-Hone your skills and critical thinking, and grow your clinical experience.
-Work with high specification, regularly updated facilities serving post-genomics and proteomics, cell biology and imaging.
-Enrich your learning with teaching, expertise and insight from our NHS partners, plus members of Plymouth University School of Biomedical and Healthcare Sciences.
-Deepen your understanding with modules that explore modern practice, emerging techniques and the impact of new technologies on research methods.
-Benefit from a programme that’s reinforced by the research, facilities and expertise of the Centre for Biomedical Research and the Systems Biology Centre. Attend research events and work with leading scientists in a wide range of fields, including immunology, haematology and genomics.
-Focus your specific interests under the guidance of your personal project advisor and develop an individual final project within the Centre for Biomedical Research and the Systems Biology Centre.
-Gain the skills needed to study at masters level with specialist modules on research techniques and project development.

Choose from our modules to follow a path of study resulting in one of following MSc awards:
-Biomedical Science (Cellular Pathology)
-Biomedical Science (Clinical Biochemistry)
-Biomedical Science (Haematology and Transfusion)
-Biomedical Science (Immunology)
-Biomedical Science (Medical Genetics)
-Biomedical Science (Medical Microbiology)
-Begin your career with the confidence that the MSc Biomedical Science suite of awards are accredited by the Institute of Biomedical Science.
-Take the course as a full-time intercalated degree programme for those wishing to interrupt their studies as a medical or dental student.

For more information about the part-time version of this course, view this web-page: https://www.plymouth.ac.uk/courses/postgraduate/msc-biomedical-science-2

Course details

You’ll take five modules: three core modules, one diagnostic research applications module, plus one discipline-specific module to determine your final award. You'll design and execute a research project, supported by your project advisor. Other core modules include molecular biology (genomics, transcriptomics and proteomics) and project design and development, where you’ll also critically review scientific literature. Options for the diagnostic research applications include bioinformatics, contemporary applications of cell biology, and contemporary science of infection and immunity. Focussing in on the discipline that interests you the most for your final award, you can choose from a range of modules including: clinical immunology, clinical microbiology, haematology and transfusion, medical genomics and personalised medicine, molecular and cellular pathology and clinical biochemistry.

Core modules
-BIOM5005 Project Design and Development
-BIOM5001 Molecular Biology: Genomics, Transcriptomics and Proteomics
-BIOM5006 Research Project

Optional modules
-BIOM5008 Clinical Microbiology
-BIOM5002 Contemporary Applications of Cell Biology
-BIOM5003 Contemporary Science of Infection and Immunity
-BIOM5014 Bioinformatics
-BIOM5007 Cellular Basis of Clinical Immunology
-BIOM5009 Haematology and Transfusion
-BIOM5010 Medical Genomics and Personalised Medicine
-BIOM5011 Molecular and Cellular Pathology
-BIOM5012 Clinical Biochemistry

Every postgraduate taught course has a detailed programme specification document describing the programme aims, the programme structure, the teaching and learning methods, the learning outcomes and the rules of assessment.

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The program integrates academic centres in computer science, statistics, molecular biology, and biotechnology, with translational research groups at hospitals and at the clinical interface. Read more

PROGRAM

The program integrates academic centres in computer science, statistics, molecular biology, and biotechnology, with translational research groups at hospitals and at the clinical interface. Members of the Centre for High Through-put Biology (CHiBi), the Genome Science & Technology Graduate program, the department of Statistics, the Bioinformatics, Empirical & Theoretical Algorithms Laboratory in Computer Science, the Genome Sciences Centre at the BC Cancer Agency, and the Michael Smith Laboratories have been instrumental in developing the current program. The program also integrates other departments at UBC in the faculties of Medicine, Science, Forestry, and Land and Food Systems that broadly support bioinformatics research in the life sciences.

Students can enter the program in one of two ways:
1. Applying to the program by filling out the application form, sending all documentation to the program coordinator and if they are selected by a supervisor, they will be notified by the program coordinator.
2. Applying through the conventional graduate student route by securing the commitment of a supervisor, who is a faculty member of the program.

Quick Facts

- Degree: Master of Science
- Specialization: Bioinformatics
- Subject: Health and Medicine
- Mode of delivery: On campus
- Program components: Coursework + Thesis required
- Faculty: Faculty of Science

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This course is ideal for graduates who love to work in a role that connects computing and biology, medicine, or healthcare, and have an analytical and inquisitive mind. Read more
This course is ideal for graduates who love to work in a role that connects computing and biology, medicine, or healthcare, and have an analytical and inquisitive mind.

Our school of School of Computing and Engineering has developed partnerships, such as Amazon allowing our students to gain vital industry skills in:
• integration with big data
• cloud computing
• cyber-security.

This course has been structured with the modern healthcare sector in mind, providing you with the opportunity to gain comprehensive ICT skills required by the sector.

Course detail

We aim to develop future leaders through increasing your knowledge and skills in:
• how to manage and analyse large scale, individual and personalised health data
• ethics and governance issues around health data
• big Data (statistical and machine-learning) methods
• the healthcare context, processes and environment
• clinical and biological problems
• healthcare system integration (HL7 messages)
• informatics project management/change management
• exposing you to a range of health information systems and technologies

Modules

Core:
• Research Methods
• Supervised Research Project
• Information Systems in Healthcare
• Knowledge Management
• Data Architecture

Optional:
• Leadership and Management Competence in Healthcare
• Programming
• Information System Project Management
• Public Health Perspectives
• Measuring Public Health and Wellbeing
• HCI for Information Systems.

Career and study progression

This course will thoroughly prepare you for a wide range of careers as a health informatics or Bioinformatics practitioner in the public and private sectors, including:
• clinical informatics
• personalised Medicine
• clinical bioinformatics
• education and training
• health records and patient administrators
• information and communication technology
• information management
• libraries and knowledge management
• project and programme management.

On successful completion of this course you can pursue further study at MPhil and PhD level.

How to apply

Click the following link for information on how to apply to this course: http://www.uwl.ac.uk/students/postgraduate/how-apply

Scholarships and bursaries

Information about scholarships and bursaries can be found here: http://www.uwl.ac.uk/students/postgraduate/scholarships-and-bursaries

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The Genomic Medicine courses are designed to fulfil the aspirations of the 100,000 genome project to create a world class NHS workforce that both understands and can contribute to the application of genomics for patient care. Read more
The Genomic Medicine courses are designed to fulfil the aspirations of the 100,000 genome project to create a world class NHS workforce that both understands and can contribute to the application of genomics for patient care.

The course is available as an MSc, PgDip, PgCert or CPD units and aims to help science graduates and NHS employees learn more about the field of human genomics.

The MSc consists of taught units and a literature review or a bioinformatics-based project. Students following the MRes pathway will complete four taught units before completing two projects; the first is a literature review and a project proposal, the second is a full-time 25 week lab-based project that will provide excellent practical training for a future research or lab-based career. You will be encouraged to use your intellectual curiosity, creativity and critical thinking in the practical application of genetics, genomics and bioinformatics.

NHS staff will develop a better appreciation of the ways in which genetics and genomics will make an impact on their area of clinical practice in an informed and responsible manner, benefiting their patients and their families. For science graduates the training you receive will help you gain employment in the healthcare sector (e.g. biomedical scientist, genomic counselling) and will be beneficial to those wishing to pursue a PhD in the field.

Our teaching approach will emphasise the practice of genetics, genomics and bioinformatics in the NHS and academia as a partnership between multiple stakeholders, including strong clinical and industrial involvement. The course includes face-to-face, blended and online distance learning modules. You will learn from clinical experts from the Manchester Centre for Genomic Medicine and the Greater Manchester Genomic Medicine Centre. AstraZeneca and Qiagen will also help deliver an industrial perspective on pharmacogenomics unit.

We see learning and teaching as collaborative knowledge construction that recognises the contribution of all stakeholders, including clinical and academic staff, service users, industry and students. Acquiring knowledge and skills that translate into competencies will promote the delivery of high-quality care aligned with the principles outlined in the NHS constitution.

Teaching and learning

Our approach to teaching and learning is student focused and patient centred.

We deliver the course content using a blended learning approach comprising face-to-face teaching (lectures, problem and evidence-based learning, workshops and collaborative learning) supported by interactive distance and e-learning.

The face-to-face elements are designed to help you build and develop the deeper contextualised specialist knowledge and critical evaluative skills necessary for a questioning and innovative approach to your learning and clinical practice.

You will learn from healthcare professionals and industry partners who are working at the forefront of practice and clinical research and can draw on their scholarship and expertise to help you build your knowledge.

If you choose to study the MRes qualification the 25 week lab-based research project will provide excellent practical training in a number of research methods and techniques.

Career opportunities

Our course is designed to support healthcare professionals working in the NHS in areas where genomic medicine is becoming part of clinical practice. You will also find the course beneficial if you work in similar roles outside of the NHS.

Accrediting organisations

This programme is accredited by Health Education England.

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Designed to prepare you to interact with the world’s most advanced biological and clinical datasets - this programme will prepare you for careers, or further graduate work, in the omics-enabled biosciences. Read more
Designed to prepare you to interact with the world’s most advanced biological and clinical datasets - this programme will prepare you for careers, or further graduate work, in the omics-enabled biosciences.

The future of biology is bioinformatics – computational analysis procedures that leverage state-of-the-art statistics and machine learning to gain insight into systems of exquisite complexity. We have entered an era of unprecedented expansion in the biological sciences, and our data now grows exponentially faster than Moore’s law.

The biological sciences have been transformed by the advent of omics. Enabled by revolutionary advances in molecular sequencing and mass spectrometry, it is now possible to sequence a genome in six hours, simultaneously assess the expression level of every gene in a genome, quantify the abundance of proteins and metabolites, and determine the epigenetic and regulatory landscape of individual cells. Hypotheses are generated through the integrative analysis of enormous datasets, and tested in high-throughput with third-generation genome-engineering technologies, including CRISPR.

Biology is now driven by data.

About the College of Medical and Dental Sciences

The College of Medical and Dental Sciences is a major international centre for research and education, make huge strides in finding solutions to major health problems including ageing, cancer, cardiovascular, dental, endocrine, inflammatory diseases, infection (including antibiotic resistance), rare diseases and trauma.
We tackle global healthcare problems through excellence in basic and clinical science, and improve human health by delivering tangible real-life benefits in the fight against acute and chronic disease.
Situated in the largest healthcare region in the country, with access to one of the largest and most diverse populations in Europe, we are positioned to address major global issues and diseases affecting today’s society through our eight specialist research institutes.
With over 1,000 academic staff and around £60 million of new research funding per year, the College of Medical and Dental Sciences is dedicated to performing world-leading research.
We care about our research and teaching and are committed to developing outstanding scientists and healthcare professionals of the future. We offer our postgraduate community a unique learning experience taught by academics who lead the way in research in their field.

Funding and Scholarships

There are many ways to finance your postgraduate study at the University of Birmingham. To see what funding and scholarships are available, please visit: http://www.birmingham.ac.uk/postgraduate/funding

Open Days

Explore postgraduate study at Birmingham at our on-campus open days.
Register to attend at: http://www.birmingham.ac.uk/postgraduate/visit

Virtual Open Days

If you can’t make it to one of our on-campus open days, our virtual open days run regularly throughout the year. For more information, please visit: http://www.pg.bham.ac.uk

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Lead academic. Dr Martin Nicklin. This flexible course focuses on the molecular and genetic factors of human diseases. Understanding those factors is crucial to the development of therapies. Read more

About the course

Lead academic: Dr Martin Nicklin

This flexible course focuses on the molecular and genetic factors of human diseases. Understanding those factors is crucial to the development of therapies. Core modules cover the fundamentals. You choose specialist modules from the pathway that interests you most. We also give you practical lab training to prepare you for your research project. The project is five months of invaluable laboratory experience: planning, carrying out, recording and reporting your own research.

Recent graduates work in academic research science, pharmaceuticals and the biotech industry.

Our study environment

You’ll be based in teaching hospitals that serve a population of over half a million people and refer a further two million. We also have close links with the University’s other health-related departments.

Our research funding comes from many sources including the NIHR, MRC, BBSRC, EPSRC, the Department of Health, EU, and prominent charities such as the Wellcome Trust, ARC, YCR, Cancer Research UK and BHF. Our partners and sponsors include Novartis, GlaxoSmithKline, Pfizer, Astra Zeneca and Eli Lilly.

You’ll also benefit from our collaboration with the Department of Biomedical Sciences.

How we teach

Classes are kept small (15–20 students) to make sure you get the best possible experience in laboratories and in clinical settings.

Our resources

We have a state-of-the-art biorepository and a £30m stem cell laboratory. The Sheffield Institute of Translational Neuroscience (SITraN) opened in November 2010. We also have microarray, genetics, histology, flow cytometry and high-throughput screening technology, and the latest equipment for bone and oncology research.

At our Clinical Research Facility, you’ll be able to conduct studies with adult patients and volunteers. The Sheffield Children’s Hospital houses a complementary facility for paediatric experimental medical research.

Hepatitis B policy

If your course involves a significant risk of exposure to human blood or other body fluids and tissue, you’ll need to complete a course of Hepatitis B immunisation before starting. We conform to national guidelines that are in place to protect patients, health care workers and students.

Core modules

From Genome to Gene Function; Human Gene Bioinformatics; Research Literature Review; Human Disease Genetics; Modulating Immunity; Laboratory Practice and Statistics.

You choose: six optional pathways

1. Genetic Mechanisms pathway:


Modelling Protein Interactions; Gene Networks: Models and Functions.

2. Microbes and Infection pathway:


Virulence Mechanisms of Viruses, Fungi and Protozoa; Mechanisms of Bacterial Pathogenicity; Characterisation of Bacterial Virulence Determinants.

3. Experimental Medicine pathway:


Molecular and Cellular Basis of Disease; Model Systems in Research; Novel Therapies.

4. Cancer pathway:

Molecular Basis of Tumourigenesis and Metastasis; Molecular Techniques in Cancer Research; Molecular Approaches to Cancer Diagnosis and Treatment.

5. Cardiovascular pathway:

Vascular Cell Biology; Experimental Models of Vascular Disease; Vascular Disease Therapy and Clinical Practice.

6. Clinical Applications pathway:

Apply directly to this pathway. Available only to medical graduates. Students are recruited to a specialist clinical team and pursue the taught programme (1-5) related to the attachment. They are then attached to a clinical team for 20 weeks, either for a clinical research project or for clinical observations. See website for more detail and current attachments.

Teaching and assessment

Lectures, seminars, tutorials, laboratory demonstrations, computer practicals and student presentations. Assessment is continuous. Most modules are assessed by written assignments and coursework, although there are some written exams. Two modules are assessed by verbal presentations.

Your research project is assessed by a thesis, possibly with a viva.

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Today's society faces the challenge of providing high-quality, patient-centred, sustainable and affordable healthcare, in an environment of increased demand and scarce resources. Read more
Today's society faces the challenge of providing high-quality, patient-centred, sustainable and affordable healthcare, in an environment of increased demand and scarce resources. The Health Informatics MSc at UCL aims to form future leaders who will address this challenge, transforming healthcare delivery through the use of information and communication technologies.

Degree information

Our graduates are professionals able to effectively engage with clinicians, managers, patients and policymakers, with the necessary skills and tools to harness healthcare information for improving clinical practice and service delivery. They possess the knowledge about healthcare problems, the concepts used to analyse them and the principles that govern the successful engineering, application and evaluation of solutions.

Students undertake modules to the value of 180 credits.

The programme consists of one core module (15 credits), seven optional modules (105 credits) and a research project (60 credits). A Postgraduate Diploma (120 credits, flexible study 2-5 years) is offered. A Postgraduate Certificate (60 credits, flexible study over a period of two years) is offered.

Core modules
-Principles of Health Informatics

Optional modules
-Research Methods in Healthcare
-Information Systems in Healthcare
-Shared Care and Electronic Health Records
-Patient Safety and Clinical Risk
-Clinical Knowledge and Decision Making
-eHealth: Patients and the Internet
-Information Law and Governance in Clinical Practice
-Healthcare Quality and Evidence Based Practice
-Using Information in Healthcare Management
-Principles of Health Data Science*
-Data Methods for Health Research*
-Machine Learning in Healthcare & Biomedicine*
-*Full-time MSc students have option to share Data Science for Research in Health & Biomedicine modules

Dissertation/report
All MSc students undertake an independent research project, normally based at their place of work, which culminates in a piece of work written in the style of a journal article.

Teaching and learning
The programme is taught by 'blended learning', and therefore includes interactive online teaching and face-to-face lectures, seminars and workshops including substantial use of examples of real clinical systems. Assessment is through examination, critical evaluations, technical tasks, coursework and project reports, compulsory programming and database assignments, and the dissertation.

Careers

Health Informatics is a subject of growing importance, with exciting career development prospects for clinicians, managers, administrators and technologists.

Destinations of recent graduates of the programme include:
-Cancer Partners UK, IT Director
-CM Chemicals, Product Specialist
-NHS, Data Manager

Top career destinations for this degree:
-Infomation Analyst, NHS Royal Marsden Hospital
-Senior Clinical Analyst, Harris Corporation
-Deputy Information Manager, South West London and St George's Mental Health NHS Trust
-Project Manager, Health & Social Care Information Centre (HSCIC)
-Implementation Consultant / Projec Manager, Stalis

Why study this degree at UCL?

The MSc in Health Informatics at UCL is taught by a team of specialists within the UCL Institute of Health Informatics, and understanding how information technologies can be harnessed for improving the delivery of care is central to their academic mission. UCL is at the centre of a vast network of clinical collaborators and houses probably the largest concentration of health informatics expertise in the UK.

The institute conducts world-leading research and our teaching, which is research based, focuses on areas such as electronic healthcare records, decision support systems, consumer health informatics, and clinical and applied bioinformatics.

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Life Sciences is one of the strategic research fields at the University of Helsinki. The multidisciplinary Master’s Programme in Life Science Informatics (LSI) integrates research excellence and research infrastructures in the Helsinki Institute of Life Sciences (HiLIFE). Read more
Life Sciences is one of the strategic research fields at the University of Helsinki. The multidisciplinary Master’s Programme in Life Science Informatics (LSI) integrates research excellence and research infrastructures in the Helsinki Institute of Life Sciences (HiLIFE). As a student, you will gain access to active research communities on three campuses: Kumpula, Viikki, and Meilahti. The unique combination of study opportunities tailored from the offering of the three campuses provides an attractive educational profile. The LSI programme is designed for students with a background in mathematics, computer science and statistics, as well as for students with these disciplines as a minor in their bachelor’s degree, with their major being, for example, ecology, evolutionary biology or genetics.

As a graduate of the LSI programme you will:
-Have first class knowledge and capabilities for a career in life science research and in expert duties in the public and private sectors.
-Competence to work as a member of a group of experts.
-Have understanding of the regulatory and ethical aspects of scientific research.
-Have excellent communication and interpersonal skills for employment in an international and interdisciplinary professional setting.
-Understand the general principles of mathematical modelling, computational, probabilistic and statistical analysis of biological data, and be an expert in one specific specialisation area of the LSI programme.
-Understand the logical reasoning behind experimental sciences and be able to critically assess research-based information.
-Have mastered scientific research, making systematic use of investigation or experimentation to discover new knowledge.
-Have the ability to report results in a clear and understandable manner for different target groups.
-Have good opportunities to continue your studies for a doctoral degree.

The University of Helsinki will introduce annual tuition fees to foreign-language Master’s programmes starting on August 1, 2017 or later. The fee ranges from 13 000-18 000 euros. Citizens of non-EU/EEA countries, who do not have a permanent residence status in the area, are liable to these fees. You can check this FAQ at the Studyinfo website whether or not you are required to pay tuition fees: https://studyinfo.fi/wp2/en/higher-education/higher-education-institutions-will-introduce-tuition-fees-in-autumn-2017/am-i-required-to-pay-tuition-fees/

Programme Contents

The Life Science Informatics Master’s Programme has six specialisation areas, each anchored in its own research group or groups.

Algorithmic Bioinformatics
Goes with the Genome-scale algorithmics, Combinatorial Pattern Matching, and Practical Algorithms and Data Structures on Strings research groups. This specialisation area educates you to be an algorithm expert who can turn biological questions into appropriate challenges for computational data analysis. In addition to the tailored algorithm studies for analysing molecular biology measurement data, the curriculum includes general algorithm and machine learning studies offered by the Master's Programmes in Computer Science and Data Science.

Applied Bioinformatics
Jointly with The Institute of Biotechnology and genetics. Bioinformatics has become an integral part of biological research, where innovative computational approaches are often required to achieve high-impact findings in an increasingly data-dense environment. Studies in applied bioinformatics prepare you for a post as a bioinformatics expert in a genomics research lab, working with processing, analysing and interpreting Next-Generation Sequencing (NGS) data, and working with integrated analysis of genomic and other biological data, and population genetics.

Biomathematics
With the Biomathematics research group, focusing on mathematical modelling and analysis of biological phenomena and processes. The research covers a wide spectrum of topics ranging from problems at the molecular level to the structure of populations. To tackle these problems, the research group uses a variety of modelling approaches, most importantly ordinary and partial differential equations, integral equations and stochastic processes. A successful analysis of the models requires the study of pure research in, for instance, the theory of infinite dimensional dynamical systems; such research is also carried out by the group.

Biostatistics and Bioinformatics
Offered jointly by the statistics curriculum, the Master´s Programme in Mathematics and Statistics and the research groups Statistical and Translational Genetics, Computational Genomics and Computational Systems Medicine in FIMM. Topics and themes include statistical, especially Bayesian methodologies for the life sciences, with research focusing on modelling and analysis of biological phenomena and processes. The research covers a wide spectrum of collaborative topics in various biomedical disciplines. In particular, research and teaching address questions of population genetics, phylogenetic inference, genome-wide association studies and epidemiology of complex diseases.

Eco-evolutionary Informatics
With ecology and evolutionary biology, in which several researchers and teachers have a background in mathematics, statistics and computer science. Ecology studies the distribution and abundance of species, and their interactions with other species and the environment. Evolutionary biology studies processes supporting biodiversity on different levels from genes to populations and ecosystems. These sciences have a key role in responding to global environmental challenges. Mathematical and statistical modelling, computer science and bioinformatics have an important role in research and teaching.

Systems Biology and Medicine
With the Genome-scale Biology Research Program in Biomedicum. The focus is to understand and find effective means to overcome drug resistance in cancers. The approach is to use systems biology, i.e., integration of large and complex molecular and clinical data (big data) from cancer patients with computational methods and wet lab experiments, to identify efficient patient-specific therapeutic targets. Particular interest is focused on developing and applying machine learning based methods that enable integration of various types of molecular data (DNA, RNA, proteomics, etc.) to clinical information.

Selection of the Major

During the first Autumn semester, each specialisation area gives you an introductory course. At the beginning of the Spring semester you are assumed to have decided your study direction.

Programme Structure

Studies amount to 120 credits (ECTS), which can be completed in two years according to a personal study plan.
-60 credits of advanced studies from the specialisation area, including a Master’s thesis, 30 credits.
-60 credits of other studies chosen from the programme or from other programmes (e.g. computer science, mathematics and statistics, genetics, ecology and evolutionary biology).

Internationalization

The Life Science Informatics MSc is an international programme, with international students and an international research environment. The researchers and professors in the programme are internationally recognized for their research. A significant fraction of the teaching and research staff is international.

As a student you can participate in an international student exchange programme, which offers the possibility to include international experience as part of your degree. Life Science Informatics itself is an international field and graduates can find employment in any country.

In the programme, all courses are given in English. Although the Helsinki region is very international and English is widely spoken, you can also take courses to learn Finnish via the University of Helsinki’s Language Centre’s Finnish courses. The Language Centre also offers an extensive programme of foreign language courses for those interested in learning new languages.

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Laboratory medicine is facing an exciting era in the transforming Molecular Pathology landscape that aims to foster the delivery of high-impact innovation on the bases of complex informatics, for benefits to patient care, academic research and UK industry. Read more
Laboratory medicine is facing an exciting era in the transforming Molecular Pathology landscape that aims to foster the delivery of high-impact innovation on the bases of complex informatics, for benefits to patient care, academic research and UK industry. With a vision of creating the next generation of leaders in Molecular Pathology, this programme will provide the state of the art training programme for Molecular Pathology, in order to facilitate the pathologists, clinical scientists, trainees, and to those in the related health professions, to acquire essential knowledge, skills and attributes in the current and future diagnosis that incorporates molecular knowledge.

Why this programme

● In August 2014, MRC published a review of the UK Molecular Pathology Landscape, in which the critical needs and challenges are pin downed in the delivery of improved diagnostics incorporating the molecular approaches.

● With a vision of creating the next generation of leaders, this programme provides state of the art training for Molecular Pathology

● We are one of the few centres where molecular pathology and diagnostic histopathology are amalgamated on one site, permitting the delivery of a clinically relevant molecular pathology course.

● The areas of main focus include diagnostic molecular pathology, clinical trials and translational research in molecular pathology, pathology bioinformatics and digital pathology. The core courses (PgCert) are designed to cover the intended learning outcomes within Royal College of Pathologists curriculum for Specialty Training in Histopathology 2015.

● The programme is led by the national leaders directly engaged in the various molecular pathology initiatives. Students are kept up-to-date with information and the current needs identified by the professional societies, research councils and charity organizations.

● You will be trained at the purpose-built Laboratory Medicine Building at the Queen Elizabeth University Hospital, which provides services to 52% of the Scottish population. This is one of the largest NHS department of pathology in Europe, accommodating about 50 consultant pathologists.

● The courses will be delivered by a range of professionals with expertise from geneticists, pathologists, clinical, lab scientists and academics, informaticians and clinicians provided across hospital practice and primary care. They are experts based in QEUH and those nationally and internationally recognized experts of molecular pathology.

Programme structure

The main aims of the MSc Molecular Pathology programme are to enable students:

• to fully provide a high quality service in molecular pathology diagnosis
• to participate in research in the area of molecular pathology
• to participate in the training of future generations of molecular pathologists

The "Blended Learning" programme offers the maximum flexibility for students who wish to study Molecular Pathology while on clinical duties and pathology training. "Moodle-Based Learning" sessions offer an advantage allowing clinicians to study within their own schedule. "In person review" sessions will enable active interactions with the course contributors and other students. Case-based and "hands-on" sessions facilitate the knowledge and skills acquired in clinical diagnosis as the programme proceeds, so it is easy to keep motivated throughout the course.

Core Courses

– 3 x compulsory, 20-credit courses; 1 per semester

• Fundamentals of Molecular Biology and Genetics for Histopathology (20 credits)
• Molecular Tests and Techniques for Histopathology (20 credits)
• Multidisciplinary Approaches to Molecular Pathology (20 credits)

The first three core components will provide the minimum requirement for students to apply molecular knowledge and skill in pathology diagnosis currently on-going and in the immediate future.

These courses will form the PgCert.

Advanced Courses

- Courses must be selected from the following options to obtain a total of 60 credits.

• Translational Medical Research Approaches (10 credits)
• Medical and Research Ethics (10 credits)
• Molecular Pathology (20 credits)
• Omics technologies for biomedical sciences: from genomics and metabolomics (20 credits)
• Frontiers in Cancer Science (20 credits)
• Disease Screening in Populations (10 credits)
• Governance and ethics in education research (10 credits)

In the advanced component, students will further their training of Molecular Pathology to acquire the knowledge needed to get involved in research, or development and improvement of diagnostics. There are options for learning of advanced technologies, wider disease areas, research methods, in-depth bioinformatics, and health professional education.

Successful completion of core and advanced courses will be awarded with the PgDip.‌

Dissertation

- 1 x 60-credit project-based course assessed by a dissertation of approximately 8,000 words followed by an oral presentation.

The Masters dissertation project gives students the opportunity to conduct research in an area of Molecular Pathology with supervisor(s) assigned to each project. For example, the opportunity to conduct an independent research project, audit or critical review of the literature in selected topics in the area of Molecular Pathology, current and future diagnosis, clinical and scientific research.

Successful completion of all core and advanced courses and the dissertation will lead to the award of the MSc.

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