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The MSc/Diploma has been developed by the Division of Reproduction and Early Development within the Leeds Institute of Genetics, Health and Therapeutics in association with the Leeds Centre of Reproductive Medicine in the NHS Trust. Read more

Introduction

The MSc/Diploma has been developed by the Division of Reproduction and Early Development within the Leeds Institute of Genetics, Health and Therapeutics in association with the Leeds Centre of Reproductive Medicine in the NHS Trust. The course aims to provide a high standard of education in clinical embryology and to provide enhanced academic and professional development for embryologists, clinical scientists and clinicians working in the field through provision of a recognised qualification which will contribute to uniformity of knowledge in the theory and practise of clinical embryology. The part-time, distance learning format allows applicants in full-time employment to acquire an MSc degree.

Course History

The course was established in 2000, as the first web-based MSc degree course in Clinical Embryology. The course celebrated its 15th year in 2014. Over 250 students from over 40 countries have attended the course to date.

Course Objectives

The programme will provide a depth of knowledge and understanding of topics and issues within and related to clinical embryology. By the end of the MSc course students should be able to:
• Understand the molecular and endocrinological control of human reproduction, gametogenesis, fertilisation & early embryonic development, embryonic stem cells, epigenetics, and the causes and management of infertility
• Use laboratory techniques in molecular biology and genetics
• Understand assisted fertilisation techniques including micromanipulation and establish and maintain quality assurance and quality management systems, for the reliable operation of an IVF clinic. Understand the selection of the best oocyte and embryo. Undertake a lab design project
• Evaluate the latest developments in cryopreservation and vitrification of oocytes, spermatozoa, zygotes and cleavage and blastocyst stage embryos as well as ovarian and testicular biopsies
• Assess the HFEA act and code of practice and discuss the wider ethical issues of infertility treatments
• Submit a research project proposal carried out within the field of Assisted Reproduction Technology

Course Content

The course will comprise the following compulsory modules:
Module 1: Fundamentals of Clinical Embryology
Module 2: IVF and Embryo Culture
Module 3: Micromanipulation
Module 4: Cryobiology and Cryopreservation
Module 5: Ethics and Law for Embryologists
Module 6: Research Project Proposal

Course Delivery

This is a distance learning course that is delivered primarily by a dedicated course website and by the provision of printed versions of five of the course modules. Additional material is available online. Student-tutor communication is by e-mail.

There are three separate, week long workshops in Leeds during the course at which students meet the academic team for lectures, tuition and assessment.

Find us on Facebook! https://www.facebook.com/MScClinicalEmbryologyUniversityofLeeds

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This Biomedical Sciences degree offers research training for students in order to gain all the required Biomedical Sience entry requirements to proceed to a PhD. Read more
This Biomedical Sciences degree offers research training for students in order to gain all the required Biomedical Sience entry requirements to proceed to a PhD. It is largely based on individual research projects rather than coursework, and allows you to specialise in a particular area of study.

Why this programme

◾Ranked world top 100 for Biological Sciences
◾The Masters in Biomedical Science provides training in a wide range of modern molecular biology techniques required to pursue a research career.
◾You will gain valuable practical research experience by using the skills and techniques acquired during the programme to complete two extensive research projects.
◾The Biomedical Science programme is distinctive in that students complete two different extensive research projects of their choice, allowing them to acquire a wide range of knowledge and skills directly relevant to the study of human disease.
◾If you are aiming to study for a higherBiomedical Science degree , this programme is designed for you.
◾If you want to enter the pharmaceutical and biotechnology industries, this programme provides excellent training; and is an ideal introduction for overseas students who may wish to proceed to PhD biomedical science studies in the UK.
◾You can choose to specialise within a particular discipline or area, which can be important for career development, see programme structure below for more information.

Programme structure

The overall aims of the programme are:
◾to provide students with the knowledge, skills and confidence needed to pursue a career in laboratory research.
◾to provide students with a theoretical and practical understanding of advanced techniques used in modern biomedical sciences research.
◾to provide students with the opportunity to practice research skills in the laboratory by completing two extensive research projects.

MRes students have the opportunity to specialise in a particular discipline or area, which can be important for their career development. The specialisations are:
◾Biotechnology
◾Cancer Studies
◾Cardiovascular Studies
◾Cell Engineering
◾Integrative Mammalian Biology SFC funded places available

◾Medical Biochemistry and Molecular Biology
◾Molecular Genetics
◾Neuroscience
◾Proteomics

To qualify for a specialisation, students must select two research projects in a cognate research area.

Research projects

The central and most important part of the MRes is the two research projects that students undertake. Students choose both projects themselves in the subject areas that interest them and that will allow them to follow the career path they wish to follow. The MRes programme has a huge number of projects which students can choose from, across a wide spectrum of biomedical science.

The following are examples of the types of projects offered, to illustrate the range of subject areas.

• Making blood from human embryonic stem cells

• A gene-microarray based approach to the detection of recombinant human erythropoietin doping in endurance athletes

• Neuropathology of trypanosomiasis

• Development of a new technique for stem cell transfection

• Cloning and analysis of an inflammatory factor in cancer and autoimmune disease

• Analysis of viral induced cancer

Each year students have about 100 different projects to choose from and all students find research topics that interest them.

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The Master's in Cancer, Stem Cells and Developmental Biology guides you in exploring the mysteries of embryonic growth, stem cells, evolution and development in relation to health and disease. Read more

Cancer, Stem Cells and Developmental Biology

The Master's in Cancer, Stem Cells and Developmental Biology guides you in exploring the mysteries of embryonic growth, stem cells, evolution and development in relation to health and disease.

This Master's programme combines research in the fields of oncology,molecular developmental biology and genetics in animals and humans. During the major (9 months) and minor (6 months) research projects on topics of your own choice, you learn sophisticated modern techniques of genomics, proteomics and bioinformatics. It is possible to complete the minor research project in a laboratory of your choice abroad. During the two year research programme, you are required to take 10 weeks of theoretical courses in the areas grouped in five broad subject areas. You may choose your favourite courses from the list of courses organized by our programme, as well as by other programmes and institutes. Moreover, you are required to attend seminars that present research covering the full range of topics related to biomedical and life sciences.

A final Master's thesis, based on literature research on a relevant topic, completes your programme. It should present a clear overview of recent literature on the topic of interest and demonstrate your ability to critically evaluate hypotheses and results, present your own views and draw conclusions that may lead to the formulation of new research goals.

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This unique specialist course gives you practical experience in human embryonic stem cell techniques, helping you develop the professional skills employers want. Read more

About the course

This unique specialist course gives you practical experience in human embryonic stem cell techniques, helping you develop the professional skills employers want. You’ll also spend time in seminars considering the ethical and legal issues associated with the field.

Where your masters can take you

Graduates with skills in stem cell and regenerative medicine are in demand. Your degree will prepare you for a career in research in academia or industry, or in a clinical-related field. Our graduates are working all over the world – from the UK to China, India and the USA – and over half go on to doctoral study.

Learn from the experts

The 2014 Research Excellence Framework (REF) rates us No 1 in the UK for research in this field. Our international reputation attracts highly motivated staff and students. Sheffield is a vibrant place to take a masters based on pioneering research.

Regular seminars from distinguished international experts help you to connect your studies to the latest developments. We’re also part of collaborative research groups for developmental biology, cell biology, physiology, pharmacology, neuroscience, models of human disease, stem cell science and regenerative medicine.

Our three research centres focus on translating laboratory research to the clinical environment: Bateson Centre, the Centre for Stem Cell Biology, and the Centre for Membrane Interactions and Dynamics.

Leaders in our field

We have a long track record of groundbreaking discoveries. These include breakthroughs in human stem cells for hearing repair, and the generation of animal models for Parkinson’s disease, schizophrenia, muscular dystrophies and their use for therapeutic studies.

Labs and equipment

We have purpose-built facilities for drosophila, zebrafish, chick and mouse genetics and for molecular physiology. Other facilities provide all the tools you’ll need to examine and analyse a range of cellular structures. We have an electron and a light microscopy centre, a PCR robotics facility, a flow cytometry unit and an RNAi screening facility.

Teaching and assessment

There are lectures, practical classes, tutorials and seminars. In small group teaching classes you’ll discuss, debate and present on scientific and ethical topics. Laboratory placements within the department provide you with one-to-one attention, training and support to do your individual research project. Assessment is by formal examinations, coursework assignments, debates, poster presentations and a dissertation.

Our teaching covers ethics, practical scientific skills and an overview of the current literature. You’ll also develop useful career skills such as presentation, communication and time management.

Core modules

Literature Review; Practical Research Project; Analysis of Current Science; Ethics and Public Understanding.

Examples of optional modules

Stem Cell Techniques; Practical Cell Biology; Practical Developmental Genetics; Bionanomaterials; Modelling Human Diseases; Stem Cell Biology.

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This pioneering course aims to maximise the employability of students. Our track record shows 90% of graduates secure ste cell technology-related posts including PhDs, positions in industry and government-funded agencies (e.g. Read more

Overview

This pioneering course aims to maximise the employability of students. Our track record shows 90% of graduates secure ste cell technology-related posts including PhDs, positions in industry and government-funded agencies (e.g. stem cell banks).

The course content has been designed in consultation with stem cell experts and potential employers in biotechnology, academia, industry and bodies regulating stem cells, to provide the necessary expertise to compete in an ever changing world.

Highlights

- Students learn a broad range of transferable skills including critical analysis, data handling, and oral and written skills.
- Teaching is by leading research scientists who are working at the cutting edge of new developments, ensuring the most recent research is integrated into the course.
- Teaching also incorporates guest speakers recognised as international experts in the stem cell technology field, including clinicians who want to use stem cells in regenerative medicine.

Modules

The course incorporates the following modules:

- Cell, Developmental and Molecular Biology
- Module 2: Embryonic Stem Cells
- Module 3: Adult and Fetal Stem Cells
- Module 4: Translational Technologies for Stem Cells
- Module 5: Research Skills & Stem Cell Technology Exploitation
- Module 6: Regenerative Medicine Research Project

Approximately 40% of the taught modules encompass direct laboratory training. This high level of practical work means we take a maximum of 16 students. This ensures we have good tutor/student ratios and specialist equipment is widely accessible.

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Molecular genetics is the study of genes at the molecular level. It focuses on the processes that underlie the expression of the genetic information from the DNA into the functional proteins that execute the genetic programme. Read more
Molecular genetics is the study of genes at the molecular level. It focuses on the processes that underlie the expression of the genetic information from the DNA into the functional proteins that execute the genetic programme. Within the School of Life Sciences research in molecular genetics is concentrated in the Human Genetics, Fungal Biology, and Developmental Genetics and Gene Control groups. In the Human Genetics group research in this area includes studies of the molecular basis of myotonic dystrophy and the identification of genes involved in cardiac development; the molecular genetics of muscle disease; mouse models of muscle disorders and molecular genetic approaches to anthropology and human population genetics. In the Fungal Biology group there are studies on the molecular events that determine stress responses during polarised growth, protein folding and secretion in yeasts and filamentous fungi; the molecular and cellular effects of stress on yeast cells and the genetic mechanisms that control sex in fungi. The Developmental Genetics and Gene Control group focuses on the mechanisms of eukaryotic gene expression and the genetics of vertebrate embryonic development. Developmental studies are focussed largely upon the mechanisms that control stem cell fate. Projects on the control of gene expression address the machinery used by cells to achieve appropriate levels of functional transcripts. These studies include control of transcription and the mechanisms of RNA maturation.

APPLICATION PROCEDURES
After identifying which Masters you wish to pursue please complete an on-line application form
https://pgapps.nottingham.ac.uk/
Mark clearly on this form your choice of course title, give a brief outline of your proposed research and follow the automated prompts to provide documentation. Once the School has your application and accompanying documents (eg referees reports, transcripts/certificates) your application will be matched to an appropriate academic supervisor and considered for an offer of admission.

COURSE STRUCTURE
The MRes degree course consists of two elements:
160 credits of assessed work. The assessed work will normally be based entirely on a research project and will be the equivalent of around 10 ½ months full-time research work. AND
20 credits of non-assessed generic training. Credits can be accumulated from any of the courses offered by the Graduate School. http://www.nottingham.ac.uk/gradschool/research-training/index.phtml The generic courses should be chosen by the student in consultation with the supervisor(s).

ASSESSMENT
The research project will normally be assessed by a dissertation of a maximum of 30,000 to 35,000 words, or equivalent as appropriate*. The examiners may if they so wish require the student to attend a viva.
*In consultation with the supervisor it maybe possible for students to elect to do a shorter research project and take a maximum of 40 credits of assessed modules.

The School of Life Sciences will provide each postgraduate research student with a laptop for their exclusive use for the duration of their studies in the School.

SCHOLARSHIPS FOR INTERNATIONAL STUDENTS
http://www.nottingham.ac.uk/studywithus/international-applicants/scholarships-fees-and-finance/scholarships/masters-scholarships.aspx

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The Institute of Genetic Medicine brings together a strong team with an interest in clinical and developmental genetics. Our research focuses on the causes of genetic disease at the molecular and cellular level and its treatment. Read more
The Institute of Genetic Medicine brings together a strong team with an interest in clinical and developmental genetics. Our research focuses on the causes of genetic disease at the molecular and cellular level and its treatment. Research areas include: genetic medicine, developmental genetics, neuromuscular and neurological genetics, mitochondrial genetics and cardiovascular genetics.

As a research postgraduate in the Institute of Genetic Medicine you will be a member of our thriving research community. The Institute is located in Newcastle’s Life Science Centre. You will work alongside a number of research, clinical and educational organisations, including the Northern Genetics Service.

We offer supervision for MPhil in the following research areas:

Cancer genetics and genome instability

Our research includes:
-A major clinical trial for chemoprevention of colon cancer
-Genetic analyses of neuroblastoma susceptibility
-Research into Wilms Tumour (a childhood kidney cancer)
-Studies on cell cycle regulation and genome instability

Cardiovascular genetics and development

We use techniques of high-throughput genetic analyses to identify mechanisms where genetic variability between individuals contributes to the risk of developing cardiovascular disease. We also use mouse, zebrafish and stem cell models to understand the ways in which particular gene families' genetic and environmental factors are involved in the normal and abnormal development of the heart and blood vessels.

Complex disease and quantitative genetics

We work on large-scale studies into the genetic basis of common diseases with complex genetic causes, for example autoimmune disease, complex cardiovascular traits and renal disorders. We are also developing novel statistical methods and tools for analysing this genetic data.

Developmental genetics

We study genes known (or suspected to be) involved in malformations found in newborn babies. These include genes involved in normal and abnormal development of the face, brain, heart, muscle and kidney system. Our research includes the use of knockout mice and zebrafish as laboratory models.

Gene expression and regulation in normal development and disease

We research how gene expression is controlled during development and misregulated in diseases, including the roles of transcription factors, RNA binding proteins and the signalling pathways that control these. We conduct studies of early human brain development, including gene expression analysis, primary cell culture models, and 3D visualisation and modelling.

Genetics of neurological disorders

Our research includes:
-The identification of genes that in isolation can cause neurological disorders
-Molecular mechanisms and treatment of neurometabolic disease
-Complex genetics of common neurological disorders including Parkinson's disease and Alzheimer's disease
-The genetics of epilepsy

Kidney genetics and development

Kidney research focuses on:
-Atypical haemolytic uraemic syndrome (aHUS)
-Vesicoureteric reflux (VUR)
-Cystic renal disease
-Nephrolithiasis to study renal genetics

The discovery that aHUS is a disease of complement dysregulation has led to a specific interest in complement genetics.

Mitochondrial disease

Our research includes:
-Investigation of the role of mitochondria in human disease
-Nuclear-mitochondrial interactions in disease
-The inheritance of mitochondrial DNA heteroplasmy
-Mitochondrial function in stem cells

Neuromuscular genetics

The Neuromuscular Research Group has a series of basic research programmes looking at the function of novel muscle proteins and their roles in pathogenesis. Recently developed translational research programmes are seeking therapeutic targets for various muscle diseases.

Stem cell biology

We research human embryonic stem (ES) cells, germline stem cells and somatic stem cells. ES cell research is aimed at understanding stem cell pluripotency, self-renewal, survival and epigenetic control of differentiation and development. This includes the functional analysis of genes involved in germline stem cell proliferation and differentiation. Somatic stem cell projects include programmes on umbilical cord blood stem cells, haematopoietic progenitors, and limbal stem cells.

Pharmacy

Our new School of Pharmacy has scientists and clinicians working together on all aspects of pharmaceutical sciences and clinical pharmacy.

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The MArch at AUB explores the possibilities of architectural practices that conceive and articulate diverse processes of community development and transformation. Read more
The MArch at AUB explores the possibilities of architectural practices that conceive and articulate diverse processes of community development and transformation.

The “construction” of the “sites” of our interventions in the public sphere includes involvement with other institutions, governmental agencies and other actors at a local, regional, national, and global level.

Where are the options?

What is at stake?

Are there really options?

How should we choose?

The MArch at AUB program is structured around the idea of architectural intervention, interrogated in relationship to its duration and effects in and around the community where it takes place – indeed, in its potential to create community.

The notion that there is any singular definition of the architectural profession is, at least on the margins, continuously questioned. But the ‘middle’ is strong, and the very fact that a multiplicity of ‘other’ agendas and their attendant methodologies are marginalised attests to this strength.

So looking for something different and fresh in your route to becoming an architect in a changing world. The new MArch at AUB (RIBA*/ARB Part2) aims to produce: performative, projective enablers and architecture, cutting into societies deepest darkest myths; building interventions in the utopias and distopias past, present and future; and launching architectural careers and journey’s via its laboratory practice, where the body and somatic practice is at the fore.

Travel with MArch at AUB and @inspiredAUB, the arts campus and its cross disciplinary docks, on the ride of a lifetime with your new highly decorative AUB baggage. Join the eclectic global and local, MArch student body, be ready to catch a big one from the Portland Stone cliffs or disappear into the Mirkwood to live like a hobbit. The AUB MArch has the arts centre in Sway by the architect, Tony Fretton as a part of its portfolio of spaces AUB to the main campus and its multiple workshops, studios and laboratories. Although the course is new there is a fascinating history of drawing and representation. In former lives architects Michael Hopkins and Peter Cook were educated in Bournemouth with bright lights and late night inflatables on the beach. The emerging, social, political, and architectural in its many frightening forms, are being professionally dissected, compressed, crafted and beaten, by brave bodies in the embryonic laboratory practice ‘ROOM 101’, based in the Enterprise Pavilion.

From the first graduating cohort there many fascinating stories – ecological strategies from Haiti, Delhi and Wessex. They are now working and researching from the local practice and making/fabricating to teaching (on the BA Hons), to developing the ‘fablab’ in AUB’s workshop. They all came from different schools and found AUB & the MArch very welcoming and encouraging. The [email protected] broadens the architect’s range of activities, and empowers its community through its members’ ability to actually make a difference.

Ed Frith, Architect, MArch Course Leader & Prof Oren Liebermann, Dean of the Faculty of Art & Design

If you would like to discuss any aspect of this course, or details on the application process, please contact Astrid MacKellar on: or 01202 363384.

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This MSc aims to provide medical and science students with a comprehensive knowledge and understanding of the field of prenatal genetics and fetal medicine, specifically human genetics, human embryonic development and fetal medicine. Read more
This MSc aims to provide medical and science students with a comprehensive knowledge and understanding of the field of prenatal genetics and fetal medicine, specifically human genetics, human embryonic development and fetal medicine. There is a strong focus on the development of key skills and careers advice in the programme.

Degree information

Students will develop a knowledge and understanding of the field of prenatal genetics and fetal medicine, specifically in the areas of basic genetics and technology, genetic mechanisms, medical genetics, organogenesis and fetal development, gametogenesis and IVF, prenatal diagnosis and screening, fetal and perinatal medicine, and preimplantation genetic diagnosis and developing technology. They gain transferable skills including information technology, analysis of scientific papers, essay writing, seminar presentation, research techniques, peer review and laboratory skills.

Students undertake modules to the value of 180 credits.

The programme consists of eight core modules (120 credits) and a research project (60 credits). A Postgraduate Diploma consisting of eight core modules (120 credits, full time nine months, flexible study two to five years) is offered. There are no optional modules for this programme.

Mandatory modules
-Basic Genetics and Technology
-Gametogenesis, Preimplantation Development and IVF
-Genetic Mechanisms
-Medical Genetics
-Organogenesis and Fetal Development
-Prenatal Diagnosis and Screening
-Fetal and Perinatal Medicine
-Preimplantation Genetic Diagnosis and Developing Technology

Dissertation/report
All MSc students undertake a clinical, laboratory, audit or library-based research project, which culminates in a dissertation of 10,000 words.

Teaching and learning
The programme is delivered through a combination of lectures, seminars, tutorials, practical demonstrations in laboratories, observation days in fetal medicine and IVF units, and student presentations. There are a number of peer-led learning activities. Assessment is through essays, patient case reports, critical reviews of papers, online problem booklet, examinations and the dissertation.

Careers

On completion of the programme, all students will have gained knowledge of both the clinical and laboratory aspects of prenatal genetics and fetal medicine. This will enable the science-orientated students to go on to pursue research degrees, careers in embryology or prenatal diagnosis, or other careers in the field or in general science. Medically-orientated students will be able to develop their careers in the field of fetal medicine.

Top career destinations for this degree:
-Ob/Gyn Surgeon, Ente Ospedaliero Cantonale
-Trainee Embryologist, Homerton University Hospital (NHS)
-PhD Medical Genetics, The Cyprus Institute of Neurology and Genetics (CI
-Clinical Research Nurse, University College London (UCL)
-Trainee Embryologist, Life Hospital

Employability
Throughout the MSc programme students learn key skills through peer-led activities, such as evaluating and presenting orally on patient cases and media coverage of scientific papers. Basic laboratory techniques are taught as are essay writing, the critical evaluation of papers, debates and ethical discussions. We also offer a comprehensive careers programme involving our alumni, covering job applications, CV writing, general careers in science and specific advice on careers in embryology, clinical genetics, medicine and research degrees.

Why study this degree at UCL?

The UCL Institute for Women’s Health delivers excellence in research, clinical practice, education and training in order to make a real and sustainable difference to women's and babies' health worldwide.

The institute houses the UK's largest group of academics working in women's health and the UCL/UCL Hospitals NHS Foundation Trust collaboration at its core provides an academic environment in which students can pursue graduate studies taught by world-class reseachers and clinicians.

Our diversity of expertise in maternal and fetal medicine, neonatology, reproductive health and women's cancer ensures a vibrant environment in which students develop subject-specific and generic transferable skills, supporting a broad range of future employment opportunities.

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Academic, practical and research teaching covering all aspects of the latest developments in regenerative dentistry including dental stem cell culture, iPS and ES cells, tooth bioengineering, the role of stem cells in tooth repair and regeneration. Read more
Academic, practical and research teaching covering all aspects of the latest developments in regenerative dentistry including dental stem cell culture, iPS and ES cells, tooth bioengineering, the role of stem cells in tooth repair and regeneration. A major feature of the course is a research project carried out in one of our research labs and supported by practical demonstrations and evaluation of research publication.

Key benefits

• Training in research methodologies and the critical evaluation of data.
• Taught course on the very latest advances of stem cell research.
• World renowned department.
• Original research project.

Visit the website: http://www.kcl.ac.uk/study/postgraduate/taught-courses/regenerative-dentistry-msc.aspx

Course detail

- Description -

Taught course elements include: Introduction to stem cells, ES and iPS, Dental stem cells, Endogenous dentine repair, Endodontic applications of stem cells, Whole tooth regeneration, Scaffolds and bone regeneration, Salivary gland regeneration, Periodontal ligament restoration, GMP cell culture.

Research and practical elements include a research project, practical demonstrations of dental pulp stem cell culture combined with critical evaluation of research methods and approaches in dental stem cell biology.

Examples of research projects:

- Salivary gland stem cells
- Stem cells in the middle ear and their role in homeostasis and repair
- Development of replacement teeth: location of stem cell niches in a range of species
- A chemical genetics screen for regulators of cranial muscle stem cells
- Dental pulp stem cells in tooth repair
- Exploring the relationship between surface free energy and osseointegration with modifiable ceramic coatings
- Human Embryonic tooth mesenchymal cells and bio-tooth engineering
- Periodontal tissue regeneration - evaluating different human dental stem cell populations
- Neural crest stem cells and ossification of the mandible

- Course purpose -

Regenerative dentistry is for both dentists and biological scientists who desire to learn more about the latest advances in cell and molecule-based dentistry and also gain experience in carrying out laboratory-based, cutting-edge research in dental stem cell biology.

- Course format and assessment -

Written exam, practical tests and written reports, seminar presentation.

How to apply: http://www.kcl.ac.uk/study/postgraduate/apply/taught-courses.aspx

About Postgraduate Study at King’s College London:

To study for a postgraduate degree at King’s College London is to study at the city’s most central university and at one of the top 20 universities worldwide (2015/16 QS World Rankings). Graduates will benefit from close connections with the UK’s professional, political, legal, commercial, scientific and cultural life, while the excellent reputation of our MA and MRes programmes ensures our postgraduate alumni are highly sought after by some of the world’s most prestigious employers. We provide graduates with skills that are highly valued in business, government, academia and the professions.

Scholarships & Funding:

All current PGT offer-holders and new PGT applicants are welcome to apply for the scholarships. For more information and to learn how to apply visit: http://www.kcl.ac.uk/study/pg/funding/sources

Free language tuition with the Modern Language Centre:

If you are studying for any postgraduate taught degree at King’s you can take a module from a choice of over 25 languages without any additional cost. Visit: http://www.kcl.ac.uk/mlc

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The minimum entry criteria for the PgCert/PgDip Stem Cell Biology are as follows. Read more

Entry Requirements

The minimum entry criteria for the PgCert/PgDip Stem Cell Biology are as follows:

(a) Applicants must hold a degree in a relevant life science discipline or another related discipline from a University in the United Kingdom or the Republic of Ireland, or from an institution which is recognised by the Senate for this purpose; or

(b) Candidates who do not meet the above requirements but who hold other qualifications and professional experience may be considered eligible for admission to the programme by accreditation of prior experiential learning (APEL). Those candidates who wish to be considered in terms of experiential learning must complete an APEL form and send this with their application.

(c) Candidates will have to provide evidence of adequate English language skills. Overseas applicants may demonstrate competence through either a TOEFL score of 550 (or computer based), or an IELTS score 6.0.

Course Description

The cutting edge PgCert course will provide you with knowledge and skills required to pursue a career in the rapidly expanding field of stem cell biology. The PgDip will further develop your skills in experimental design and stem cell commercialization. Successful completion of the course will allow you to capitalise on opportunities in areas such as research, law, clinics and industry. You will study in a supportive and collaborative online environment where you will be supported by an e-tutor. The course will cover the latest exciting advances in stem cell science and equip you with the skills to critically analyse these discoveries not only during the course but during your future career.

Visit: http://www.ulster.ac.uk/course/pgcert-stem-cell-biology-pt-e

Structure and Content

The PgCert course consists of two modules (60 credit points). The first module in Stem Cell Biology will equip you with up to date knowledge on various topics such as sources of stem cells e.g. adult, embryonic and induced pluripotent stem cells, pluripotency, current and future uses of stem cells and bioethics. This module also introduces you to the skills which will enable you to evaluate future advances in stem cell research following the end of the course. The second module in Evidence Based Healthcare Practice will allow you to evaluate how stem cells are currently used and inform future practice in this area.
The PgDip course consists of a further 3 modules in Techniques in Stem Cell Biology, Commercialization of Stem Cells and Research Skills & Statistics (5 modules worth 120 credit points in total). These modules will equip you with the knowledge to design experiments involving stem cells and lead you through the commercialization process, topics which our Industrial Advisory Board recommend are highly sought after skills in stem cell industry employees.

Teaching Methods and Assessment

The course is delivered as a series of online lectures designed by a range of experts and multimedia resources in the various areas of stem cell biology. The flexible nature of the course allows you to study at your own pace. You can study 1 or two modules each semester. The course will be supplemented by online discussions with e-tutors, access to specialist online talks and interactive quizzes.

Assessment will be by 100% coursework which will take various forms including contributions to online discussions, online quizzes and various pieces of written work.

Why Choose Ulster University ?

1. Over 92% of our graduates are in work or further study six months after graduation.
2. We are a top UK university for providing courses with a period of work placement.
3. Our teaching and the learning experience we deliver are rated at the highest level by the Quality Assurance Agency.
4. We recruit international students from more than 100 different countries.
5. More than 4,000 students from over 50 countries have successfully completed eLearning courses at Ulster University.

Flexible payment

To help spread the cost of your studies, tuition fees can be paid back in monthly instalments while you learn. If you study for a one-year, full-time master’s, you can pay your fees up-front, in one lump sum, or in either five* or ten* equal monthly payments. If you study for a master’s on a part-time basis (e.g. over three years), you can pay each year’s fees up-front or in five or ten equal monthly payments each year. This flexibility allows you to spread the payment of your fees over each academic year. Find out more by visiting https://www.ulster.ac.uk/apply/fees-and-finance/postgraduate

Scholarships

A comprehensive range of financial scholarships, awards and prizes are available to undergraduate, postgraduate and research students. Scholarships recognise the many ways in which our students are outstanding in their subject. Individuals may be able to apply directly or may automatically be nominated for awards. Visit the website: https://www.ulster.ac.uk/apply/fees-and-finance/scholarships

English Language Tuition

CELT offers courses and consultations in English language and study skills to Ulster University students of all subjects, levels and nationalities. Students and researchers for whom English is an additional language can access free CELT support throughout the academic year: https://www.ulster.ac.uk/international/english-language-support

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The only Master’s specialisation in the Netherlands covering the function of our epigenome, a key factor in regulating gene expression and in a wide range of diseases. Read more

Master's specialisation in Medical Epigenomics

The only Master’s specialisation in the Netherlands covering the function of our epigenome, a key factor in regulating gene expression and in a wide range of diseases.
Our skin cells, liver cells and blood cells all contain the same genetic information. Yet these are different types of cells, each performing their own specific tasks. How is this possible? The explanation lies in the epigenome: a heritable, cell-type specific set of chromosomal modifications, which regulates gene expression. Radboud University is specialised in studying the epigenome and is the only university in the Netherlands to offer a Master’s programme in this field of research.

Health and disease

The epigenome consists of small and reversible chemical modifications of the DNA or histone proteins, such as methylation, acetylation and phosphorylation. It changes the spatial structure of DNA, resulting in gene activation or repression. These processes are crucial for our health and also play a role in many diseases, like autoimmune diseases, cancer and neurological disorders. As opposed to modifications of the genome sequence itself, epigenetic modifications are reversible. You can therefore imagine the great potential of drugs that target epigenetic enzymes, so-called epi-drugs.

Big data

In this specialisation, you’ll look at a cell as one big and complex system. You’ll study epigenetic mechanisms during development and disease from different angles. This includes studying DNA and RNA by next-generation sequencing (epigenomics) and analysing proteins by mass spectrometry (proteomics). In addition, you‘ll be trained to design computational strategies that allow the integration of these multifaceted, high-throughput data sets into one system.

Why study Medical Epigenomics at Radboud University?

- Radboud University combines various state-of-the-art technologies – such as quantitative mass spectrometry and next-generation DNA sequencing – with downstream bioinformatics analyses in one department. This is unique in Europe.
- This programme allows you to work with researchers from the Radboud Institute for Molecular Life sciences (RIMLS), one of the leading multidisciplinary research institutes within this field of study worldwide.
- We have close contacts with high-profile medically oriented groups on the Radboud campus and with international institutes (EMBL, Max-Planck, Marie Curie, Cambridge, US-based labs, etc). As a Master’s student, you can choose to perform an internship in one of these related departments.
- Radboud University coordinates BLUEPRINT, a 30 million Euro European project focusing on the epigenomics of leukaemia. Master’s students have the opportunity to participate in this project.

Career prospects

As a Master’s student of Medical Epigenomics you’re trained in using state-of-the art technology in combination with biological software tools to study complete networks in cells in an unbiased manner. For example, you’ll know how to study the effects of drugs in the human body.
When you enter the job market, you’ll have:
- A thorough background of epigenetic mechanisms in health and disease, which is highly relevant in strongly rising field of epi-drug development
- Extensive and partly hands-on experience in state-of-the-art ‘omics’ technologies: next-generation sequencing, quantitative mass spectrometry and single cell technologies;
- Extensive expertise in designing, executing and interpreting scientific experiments in data-driven research;
- The computational skills needed to analyse large ‘omics’ datasets.

With this background, you can become a researcher at a:
- University or research institute;
- Pharmaceutical company, such as Synthon or Johnson & Johnson;
- Food company, like Danone or Unilever;
- Start-up company making use of -omics technology.

Apart from research into genomics and epigenomics, you could also work on topics such as miniaturising workflows, improving experimental devices, the interface between biology and informatics, medicine from a systems approach.

Or you can become a:
- Biological or medical consultant;
- Biology teacher;
- Policy coordinator, regarding genetic or medical issues;
- Patent attorney;
- Clinical research associate;

PhD positions at Radboud University

Each year, the Molecular Biology department (Prof. Henk Stunnenberg, Prof. Michiel Vermeulen) and the Molecular Developmental Biology department (Prof. Gert-Jan Veenstra) at the RIMLS offer between five and ten PhD positions. Of course, many graduates also apply for a PhD position at related departments in the Netherlands, or abroad.

Our approach to this field

- Systems biology
In the Medical Epigenomics specialisation you won’t zoom in on only one particular gene, protein or signalling pathway. Instead, you’ll regard the cell as one complete system. This comprehensive view allows you to, for example, model the impact of one particular epigenetic mutation on various parts and functions of the cell, or study the effects of a drug in an unbiased manner. One of the challenges of this systems biology approach is the processing and integration of large amounts of data. That’s why you’ll also be trained in computational biology. Once graduated, this will be a great advantage: you’ll be able to bridge the gap between biology, technology and informatics , and thus have a profile that is desperately needed in modern, data-driven biology.

- Multiple OMICS approaches
Studying cells in a systems biology approach means connecting processes at the level of the genome (genomics), epigenome (epigenomics), transcriptome (transcriptomics), proteome (proteomics), etc. In the Medical Epigenomics specialisation, you’ll get acquainted with all these different fields of study.

- Patient and animal samples
Numerous genetic diseases are not caused by genetic mutations, but by epigenetic mutations that influence the structure and function of chromatin. Think of:
- Autoimmune diseases, like rheumatoid arthritis and lupus
- Cancer, in the forms of leukaemia, colon cancer, prostate cancer and cervical cancer
- Neurological disorders, like Rett Syndrome, Alzheimer, Parkinson, Multiple Sclerosis, schizophrenia and autism

We investigate these diseases on a cellular level, focusing on the epigenetic mutations and the impact on various pathways in the cell. You’ll get the chance to participate in that research, and work with embryonic stem cell, patient, Xenopus or zebra fish samples.

See the website http://www.ru.nl/masters/medicalbiology/epigenomics

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The goal of the graduate program in Reproductive and Developmental Sciences is to provide students with a broad knowledge of mammalian reproductive and… Read more

Program Overview

The goal of the graduate program in Reproductive and Developmental Sciences is to provide students with a broad knowledge of mammalian reproductive and developmental biology, as well as with in-depth expertise in at least one area of research, including reproductive and molecular endocrinology, immunology of reproduction, fertilization and early embryonic development, perinatal metabolism, and fetal neonatal physiology. M.Sc. and Ph.D. programs of study are offered. Both programs involve coursework and completion of a thesis/dissertation based on research carried out by the student.

Quick Facts

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

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What causes a disease? What can be done about obesity and diabetes? Why does one person become depressed and another does not? What are the underlying mechanisms of diseases?. Read more
What causes a disease? What can be done about obesity and diabetes? Why does one person become depressed and another does not? What are the underlying mechanisms of diseases?

During the Master's degree programme in Biomedical Sciences you will learn how to find answers to these questions. The programme is strongly oriented towards the scientific background of health and disease and preclinical research. You will study life processes, and their abnormalities within the intact organism. The field in Groningen is wide and the choice is up to you – you can specialize in molecular biology or conduct research at the level of population groups.

At least 60% of the master's programme consist of independent research projects. As such, you are participating actively in all aspects of the research, from designing an experiment and conducting it, to writing an international scientific publication. Within the degree programme Biomedical Sciences students can follow the specialisation Biology of Ageing which provides training as a researcher mainly in the field of ageing and age-related pathologies.

Why in Groningen?

- Studying life processes, and their abnormalities, in the intact organism
- At least 60% of the master's programme consist of independent research projects
- Specialisation in Biology of Ageing

Job perspectives

Your career prospects are:

Researcher in a variety of organizations such as
- Universities
- Academic and general hospitals
- Biomedical, pharmaceutical or food industries

Positions linking biomedical sciences to a business or policy strategy in a social organization, such as the Heart Foundation and the Diabetes Fund. You can also work for the government in an advisory position.

At least 60% of the Master's Programme is conducting Independent Research
Within the Master's degree programme Biomedical Sciences you can conduct research in the following areas of expertise:
- The mechanisms of inflammation and immunity, allergies and tumours;
- The transplantation applications of embryonic stem cells;
- Diseases of the brain and nervous system;
- The biological aspects of emotional and affective disorders such as depression, anorexia nervosa and obesity;
- The molecular cellular biology underlying age-related pathologies.

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This MSc programme in Biomedical Sciences offers research training for student intending to proceed to a career in biomedical sciences, either directly or through a PhD. Read more
This MSc programme in Biomedical Sciences offers research training for student intending to proceed to a career in biomedical sciences, either directly or through a PhD. It is based on a research project and coursework.

Why this programme

◾Ranked world top 100 for Biological Sciences
◾The programme provides training in a wide range of modern molecular biology techniques required to pursue a research career in biomedical science.
◾You will gain valuable practical research experience by using the skills and techniques acquired during the programme to complete an in depth research project.
◾If you are aiming to study for a higher degree, or enter a biomedical career, then this programme is designed specifically for you.
◾If you want to enter the pharmaceutical and biotechnology industries, this programme provides excellent training.
◾It is an ideal introduction for overseas students who may wish to proceed to PhD studies in the UK, Europe or the USA.
◾This course is similar to the MRes Biomedical Sciences, but instead has more teaching in the first part of the programme, and one research project, which starts later in the year. This allows students more time to acquire knowledge and skills before they start their research work.

Programme structure

The overall aims of the programme are:
◾to provide students with the knowledge, skills and confidence needed to pursue a career in laboratory research.
◾to provide students with a theoretical and practical understanding of advanced techniques used in modern biomedical sciences research.
◾to provide students with the opportunity to practice research skills in the laboratory by completing an extensive research project in an area of their choice.

Projects

An important part of the MSc is your choice of research project; there are a huge number of choices available from a wide spectrum of biomedical science. Please see examples below:

• Making blood from human embryonic stem cells

• A gene-microarray based approach to the detection of recombinant human erythropoietin doping in endurance athletes

• Neuropathology of trypanosomiasis

• Development of a new technique for stem cell transfection

• Cloning and analysis of an inflammatory factor in cancer and autoimmune disease

• Analysis of viral induced cancer

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