Our Microbiome in Health & Disease MSc provides students with a unique background in all aspects of both analysis of microbiome and determining the role of microbiome in pathology with experience in both computational and experimental techniques.
Designed and delivered by the newly established Centre for Host-Microbiome Interactions (CHMI) at King’s, the course brings together teaching on a varied course incorporating systems biology and bioinformatics with molecular biology, microbiology, immunology and physiology.
In the post-human genome project world, our health is dependent on more than our genes. High throughput sequencing reveals the amazing complexity and extent of the microbial communities that reside within or upon us. We are also beginning to understand just how dynamic the interactions between the host and members of communities are. Interactions are diverse, and variations observed between individuals depend on a multitude of microbial and host factors, including diet and inflammatory status. More importantly, it is becoming clear that different disease states are linked to significant changes in the make-up of these communities. Scientists who understand the computational analysis of the huge data sets for microbial communities, and who are also able to interpret findings in the context of human and microbial health, will be in demand across this emerging field in academia and in industry.
The MSc Microbiome in Health & Disease will provide you with a deep understanding of microbial communities and their diversity, and the impact of these communities on host health and disease. You will be exposed to the concepts and techniques involved in profiling and analysing large omics data sets associated with characterising and investigating microbial communities.
You will learn to analyse omics data sets, such as genome, transcriptome, metabolome and metagenome data, and how to integrate these data to develop a holistic understanding of the interactions between host and microbial communities in both health and disease states.
You will also learn how these skills apply in industry and have the opportunity to undertake research in collaboration with industrial partners. You will study the intersection between microbiome and engineering and learn how to identify and develop innovative products in different microbiome fields, applying learning from computational, multiomics analysis and basic biology, through advanced synthetic biology tools, and integrative analysis and modelling, to design new engineered therapeutic microbial communities and optimize their effectiveness in clinical, agricultural and environmental challenges.
You will also undertake a 10,000 word supervised dissertation on a subject within the field of microbiome in health and disease.
The course aims to develop students' knowledge of the microbial communities that reside within or upon us, and how they impact our health and disease processes.
It is designed for students who wish to improve their background knowledge and skills prior to applying for a PhD studentship, and also for students who wish to enhance their knowledge and skill set for analysing and interpreting the large, multiple omics data sets that are involved in microbiome research.
The MSc Microbiome in Health & Disease consists of 4 taught modules (two covering microbiology, microbial diversity and host-microbiome interactions, and two covering computational analysis of microbiome, and systems and synthetic biology), followed by a lab-based research project. The taught component will run from September until January, with the research component running from February until August.
Teaching comprises conventional lectures, tutorials and computational workshops, supported by example sessions, project work and independent learning via reading material and online courses. During the computational modules, you will be provided with data sets to analyse for written and oral projects.
After completing the taught component, you will undertake a lab-based research project for which you will provide a proposal and subsequent dissertation and presentation under the guidance of a supervisor.
The typical hours you will spend as you progress through your studies are as follows:
Lectures, seminars & feedback: 214 hours
Self-study: 1586 hours
Contact time is based on 24 academic weeks and self-study time is based on 31 academic weeks.
Typically, one credit equates to 10 hours of work.
You may typically expect assessment by a combination of coursework (76%) and examinations (24%).
The study time and assessment methods detailed above are typical and give you a good indication of what to expect. However, they may change if the course modules change.
The Department of Education will not be recruiting to the MA in Science Education for the academic year 2018/19, as we are undertaking a review of our provision. The text below is for information only.
The Department of Education offers a one-year (12 month) taught full time MA in Science Education. This programme will be attractive to all those who have an interest in science education, whether as teachers, researchers or policy makers. Applications are welcomed from both home and international students.
Applicants are strongly advised to ensure that they submit applications no later than 1st September if they wish to begin a course of study beginning in the same year. No guarantee can be offered that applications received after this date will be processed for a September start date.
The Department also welcomes applications from people interested in studying for a PhD in science education in its areas of expertise (see below).
The University of York Science Education Group (UYSEG) has an outstanding international reputation for the excellence of its work in research and curriculum development in science education. Our school science programmes such as Science: the Salters Approach, Salters Advanced Chemistry, Salters Horners Advanced Physics and, most recently, Salters Nuffield Advanced Biology and 21st Century Science are widely used in this country, and have received international acclaim. Science: the Salters Approach and Salters Advanced Chemistry have been adapted for use in many other countries, including Belgium, Hong Kong, The Netherlands, New Zealand, Russia, South Africa, Spain, Swaziland and the USA. If you come to York, you will have the opportunity to work with one of the leading groups in science education.
As members of the University of York Science Education Group, the science education staff in the Department of Education have made a significant contribution to the high profile of science education at York. Science specialist staff currently in the Department include Professor Robin Millar, Professor Judith Bennett, Martin Braund and Fred Lubben. All hold major grants for research and development in science education.
Areas of expertise include assessment, attitudes to science, the use of context-based approaches to the teaching of science, curriculum development (including international collaboration on projects), evaluation of curriculum interventions, gender issues in science education, practical work in science, scientific literacy, systematic reviews of research literature, and the transition from primary to secondary school. Current international work includes involvement in the PISA (Programme for International Student Assessment) project and a number of initiatives in Southern Africa.
The reputation of the University of York Science Education Group was a major contributory factor in York being chosen as the home of the new National Science Learning Centre, which opened in September 2005 and offers a programme of professional development courses for science teachers.
The programme offers specialist tuition within an established framework for MA provision in the Department. The aims of the programme are:
-To enhance knowledge and understanding in science education
-To develop educational research capabilities and skills in the fields of education and science education
-To contribute, where appropriate, to professional development by enhancing capacity to investigate aspects of one or more of educational theory, policy and practice
-Science, Education and Society (20 credits)
-Research methods in education (20 credits)
One option module from a list of about 10 (20 credits). Options are likely to include:
-Cross-linguistic influences in second language acquisition
-Education and social justice
-Evaluating ESOL classroom practice
-Intercultural communication in education
-Learning and teaching second/foreign language reading
-Motivation in education
-Teaching and assessing speaking skills
-Teaching and assessing writing skills
-Teaching and learning in schools
-Teaching World English
-Topics in second language acquisition
-Recent research and innovation in science education (20 credits)
One option module from a list of about 10 (20 credits). Options are likely to include:
-Approaches to English teaching
-Contemporary issues in teaching
-Cross-cultural perspectives on language and discourse
-Learning and teaching grammar in a second language
-Pragmatics: language, meaning and communication
-Psychology of language and language learning
-Qualitative and quantitative data analysis
-Teaching and learning citizenship and global education
-Teaching English for academic purposes
-The practice of English language teaching
-Testing and assessment in English language teaching
Planning and Communicating Research (20 credits). Classes are spread over Terms 2 and 3.
The third term and the summer is also devoted to writing a dissertation (60 credits) based on a small-scale research study to be submitted by early September.
Students will also be able to attend the department series of research seminars for Masters students which includes talks by visiting speakers.
Students will complete:
-Four assessed coursework essay assignments (each 4,000 to 5,000 words in length)
-An exam in Research Methods in Education
-An assessed presentation + dissertation outline + ethics audit
-A dissertation of 12,000 words in length
Our graduates find employment in a wide range of sectors within education, but also in journalism, information management, human resources and other careers.
Our postgraduate courses can be used to complement teacher training/development programmes and voluntary or paid roles which focus on the more practical elements of teaching. However, other than our PGCE, our courses are not teacher training programmes in themselves.