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Masters Degrees (In Vitro)

We have 38 Masters Degrees (In Vitro)

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Tissues in the human body have a defined structure in that their growth and differentiation have developed in specific ways to create a cellular architecture that supports their function. Read more
Tissues in the human body have a defined structure in that their growth and differentiation have developed in specific ways to create a cellular architecture that supports their function. Following this fundamental principle that ‘from structure comes function’ we can develop in vitro models that resemble elements of the anatomy and physiology of real human tissues. This can be achieved through our understanding of tissue development and morphology, and the application of innovative technologies to build mature, functional tissue equivalents. Such innovation often occurs at the interface between disciplines such as biological, chemistry, and engineering.
In my laboratory, we specialise in the development of novel approaches to culturing cells in vitro, to enhance cell viability, growth, and differentiation, to enable the creation of human tissue mimetics that can subsequently be used for basic research, drug screening, and the assessment of chemicals. Cell biology-based Master by Research projects are available in tissue engineering in various areas, notably: epithelial biology (for example, skin, oral mucosa, intestine); neural biology (for example, in vitro models of neurological disorders); and basic biological mechanisms involved in stem cell differentiation, tissue development and function in vitro. In other projects, we are also interested in developing new cell technologies to further improve the culture and differentiation of human tissues in vitro and invite applicants who are interested in working at the interface between biology and the physical sciences. The exact nature of the project will be determined in discussions with the applicant but will involve engineering human tissues in vitro and their development, characterisation, and application in areas consistent with our fields of interest. For further information about our research please visit my research staff profile https://www.dur.ac.uk/biosciences/about/schoolstaff/profile/?id=1016
Successful applicants will join a busy and productive research group. The Masters projects on offer provide excellent training in the development of non-animal in vitro technologies, cell biology, tissue specific anatomy/physiology, engineering human tissues, stem cell science and cell differentiation, and advanced cell technologies. Students will master a range of cutting edge techniques to advance their research programme, including advanced 3D cell culture, cell and molecular biology, tissue analysis, histology, cell-based assays, and imaging (advanced light and electron microscopy). Students will train to become a research scientist, develop ownership of their project, and become expert in their field of interest. The Department of Biosciences at Durham University has excellent research facilities and training support programme to prepare students for a successful career in scientific research.

APPLICATIONS ACCEPTED ALL YEAR ROUND

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If you are passionate about a career in embryology, this course is for you. Read more
If you are passionate about a career in embryology, this course is for you. The Intensive Master of Clinical Embryology course (MCE) has gained global recognition as a training program for all assisted reproductive technologies (ART), producing high calibre embryologists, with the excellent knowledge and practical skills to eventually work in, and manage, human ART clinics. MCE is offered both on-campus (one year full time) and off-campus (restricted entry, full or part-time) to domestic and international students

Your studies will include the foundations of mammalian embryology, detailed assessment of all infertility treatment strategies, the theoretical basis behind embryo production, embryo selection and cryopreservation, focussing on all current and future technologies associated with ART. There are 3 units dedicated to Total Quality Management, Preimplantation Diagnosis and Ethics. Most importantly, we are equipped to teach all the practical skills required of andrologists and embryologists, beginning with sperm and embryo handling and assessment, and slowly building skills though learning in vitro fertilisation techniques, the latest cryopreservation techniques, such as vitrification of gametes and embryos finally finishing the year with ICSI and biopsy. While learning the practical skills, students are also given opportunities to visit ART clinics within Australasia and worldwide and all encouraged to attend ART industry conferences. Students engage in research projects that are designed to enhance practical and research skills, while assessments throughout the year are designed to measure the competency of students in theoretical, practical and research disciplines.

Visit the website http://www.study.monash/courses/find-a-course/2016/clinical-embryology-2309?domestic=true

Overview

This 12-month, intensive course provides students with the essential postgraduate knowledge and practical skills necessary to contribute competently to human infertility clinical services. Theoretical and practical skills are presented in the broad context of the regulations and the ethical considerations that apply to human IVF, both nationally and internationally, along with the quality control procedures required to ensure maximum success for IVF patients. The guidelines, protocols and regulations that steer and control human infertility services are also presented. In addition to attending lectures and self-directed study, students are required to undertake continual practical skills training and also students will undertake a minor research project. Students will not only be equipped with practical skills required for work in an IVF laboratory but also gain a greater understanding of research applications within the field of reproductive or developmental biology. Research-related tasks contribute to the overall assessment for specific coursework units.

Career opportunities

On completion of this course graduates may gain employment as clinical embryologists, or work in laboratories in embryology, health, in vitro fertilisation (IVF), or in related jobs within the reproductive biology field.

For more information visit the faculty website - http://www.study.monash/media/links/faculty-websites/medicine

Faculty of Medicine, Nursing and Health Sciences

The Faculty is also home to a number of leading medical and biomedical research institutes and groups, and has contributed to advances in many crucial areas: in vitro fertilisation, obesity research, drug design, cardiovascular physiology, functional genomics, infectious diseases, inflammation, psychology, neurosciences and mental health.

Notwithstanding the relatively short history of our University, the Faculty is ranked in the top 50 in the world for its expertise in life sciences and biomedicine by the Times Higher Education and QS World University 2012 benchmarks.

Courses offered by the Faculty include medicine, nursing, radiography and medical imaging, nutrition and dietetics,emergency health studies, biomedical sciences, physiotherapy, occupational therapy, and social work. A range of research and coursework postgraduate programs is also offered.

The Faculty takes pride in delivering outstanding education in all courses, in opening students to the possibilities offered by newly discovered knowledge, and in providing a nurturing and caring environment.

Further details may be found at: http://www.med.monash.edu.au/about.html

Find out how to apply here - http://www.study.monash/courses/find-a-course/2016/clinical-embryology-2309?domestic=true#making-the-application

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. Dementia (including a raft of neurodegenerative diseases such as Alzheimer’s Disease) has recently become the leading cause of death in the UK. Read more

Dementia (including a raft of neurodegenerative diseases such as Alzheimer’s Disease) has recently become the leading cause of death in the UK. Stem cells are a novel and relatively young branch of scientific research that hold the potential for not only therapies but to be able to accurately model these distinctly human diseases.

This unique programme will offer students real-world perspectives from patients, carers, scientists and a range of health care professionals including world-leading experts on the impact of neurological diseases.

This programme offers cutting edge translational neuroscience focused on stem cells, neurodegenerative diseases, regeneration and models (both animal and cell). Furthermore the inclusion of patients and importantly their carers and the real-life impacts of these diseases on individuals will be a common thread running throughout this programme making it truly unique and exceptionally novel.

This programme is designed for medical and/or scientific professionals and aims to introduce students to the fields of neurodegenerative diseases, stem cells, industry and emerging therapeutic opportunities in regenerative / translational neurology. Overall students will gain the knowledge and understanding of the clinical, real-life impact and scientific realities of these fields and thus advance their own learning and be able to carry this forward into their future careers.

Therefore students will be introduced to a range of topics as they progress through the programme from introducing the basic anatomy, structure and development of the central nervous system, a critical understanding of stem cells including sources, locations and roles, an introduction to multiple neurodegenerative diseases (such as Alzheimer’s, Motor Neurone Disease and Parkinson’s disease), from both clinical and patient angles, before being introduced to in vitro and in vivo modelling of these diseases, neuroimaging techniques, stem cells and industry.

Online learning

This part-time, fully online programme will support the need for up-to-date knowledge, skills and theory in a wide variety by the use of not only world leading clinical and scientific experts but also by using the real-life impacts as viewed by patients, the people who care for them and the frontline health professionals. All of this expertise will be presented utilising a range of techniques including: online lectures, practical studies, directed readings and other video and audio resources.

Discussion boards will provide directed assessment tasks while input from expert guest lecturers and tutors offer students opportunity for collaborative critical discourse and debate of current issues.

Programme structure

Within the programme, students can progress from Postgraduate Certificate (60 credits), to Postgraduate Diploma (120credits) and to Master of Science degrees (180 credits) as they successfully complete the required number of credits for each level and can therefore stop at any stage or continue onwards depending on their situation.

Postgraduate Certificate

Composed of 4 core courses to provide the fundamental foundations for the Diploma and MSc but can also be taken as a self-contained PGCert. It will cover fundamental areas including key basic research skills (such as how to critically evaluate scientific manuscripts, as well as a basic understanding of statistics) whilst introducing students to the central nervous system, its basic anatomy and development and stem cells. In parallel students would cover an introduction to neurodegenerative diseases (that would include Alzheimer’s Disease, Parkinson’s Disease and Motor Neurone Disease) before being introduced to in vitro and in vivo modelling of these diseases. Finally students would also learn about neuroimaging and its potential roles for scientific research.

Postgraduate Diploma

Expands on the PGCert courses as well as introducing greater depth to novel areas such as the roles of pharma and industry with respect to stem cells. A proportion of the Diploma credits are elective and students will be assisted in choosing appropriate options from across the broad spectrum available from Edinburgh University that are relevant to their own situation, employment and career goals.

MSc

Students have the opportunity to explore a specialist area from within the broad spectrum of stem cells, regeneration and translational neuroscience in the form of either a dissertation, or, a structured project (the student would themselves have to source this if desired), which would aim to deliver a ‘real world’ project with a direct impact for an employer, organisation or personal goal. A third option available for students is a choice of 60 fully taught credits.

The minimum recommended time for completion of the full Masters programme is three years, and the maximum time for completion is six years. The Certificate and Diploma can be completed on a pro rata basis.

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.

Career opportunities

Potential career paths, exits routes and employers are very diverse and depend on the students chosen carer. For students working in a clinical environment this programme would offer them career advancement/specialism within their clinical setting.

For students coming from a scientific background there is the opportunity to improve carer prospects in laboratory research settings or alternatively to help in progressing to a PhD.



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Our MSc Model-based Drug Development course provides the knowledge and skills for making evidence-based decisions at various stages of drug development. Read more
Our MSc Model-based Drug Development course provides the knowledge and skills for making evidence-based decisions at various stages of drug development.

It covers the scientific and regulatory aspects of evaluating a drug, with emphasis on the use of modelling and simulation methods. You will learn why these methods are so highly valued by industry and regulatory authorities as effective, cost-saving, decision-making tools. Learning is reinforced via hands-on application of the skills to real data.

The course has been developed with an emphasis on mechanistic approaches to assessing and predicting pharmacokinetics and pharmacodynamics (PKPD), such as physiologically-based pharmacokinetics (PBPK).

As this comes under the general umbrella of systems biology, you will be able to apply your knowledge of modelling and simulation in various areas of research within the pharmaceutical industry.

Full-time students benefit from immersion in the varied biomedical research environment at The University of Manchester, including interaction with research staff at the renowned Centre for Applied Pharmacokinetic Research.

Alternatively, part-time students already working in the pharmaceutical industry can take advantage of the flexible, distance learning mode of the course, which allows you to fit study around other commitments.

Aims

The aim of the course is to provide specialist knowledge and skills that are highly relevant for a career linked to drug development and pharmaceutical industry.

It is designed for science, engineering or mathematics graduates who want to acquire:
-Awareness of the commercial and regulatory factors in drug development
-Understanding of the physiological, chemical, and mathematical foundations used to define the safe and effective use of potential medicines
-Training in the use of mathematical modelling and simulation methods to guide drug development

The course aims to:
-Provide background information on the theory and methods for quantitative assessment of drug absorption, distribution and elimination
-Provide an understanding of the role of pharmacometrics in the process of drug development
-Provide background information on in vitro assays used to characterise ADME properties of new drug entities
-Indicate the mathematical framework that is capable of integrating in vitro information with knowledge of the human body to predict pharmacokinetics
-Provide familiarity and experience of using different software platforms related to pharmacometric data analysis including R, Phoenix, NONMEM, MATLAB, Simcyp, WinBUGS and MONOLIX
-Equip you to reflect upon influential research publications in the field, to critically assess recent published literature in a specific area
-Provide awareness of the elements of a convincing research proposal based on modelling and simulation
-Provide the opportunity to undertake a project and carry out original research

Teaching and learning

The course emphasises the development of problem-solving skills. A large portion of the learning involves structured problems requiring the you to apply theory and practical skills to solve typical problems that arise in drug development.

The following teaching and learning methods are used throughout the course:
-Taught lectures
-Hands-on workshops
-Self-directed learning to solve given problems
-Webinars and tutorials by leading scientists in industry/academia
-Supervised research
-Mentorship in solving problems and writing the research dissertation
-Independent study

Career opportunities

This course was originally developed for scientists working within the pharmaceutical industry who wished to qualify as modellers with hands-on experience. The qualification will enhance your abilities within your current role or provide you with skills to progress into new posts.

The course is also appropriate for science and engineering graduates who wish to enter the industry. The role of modelling and simulation or pharmacometrics is assuming greater and greater importance in the pharmaceutical industry. Pharmaceutical companies and government regulatory agencies are recognising its value in making best use of laboratory and clinical data, guiding and expediting development, saving time and costs and a range of well paid jobs exist in this area across the globe. Scientific and industry publications often discuss the current shortage and growing need for modellers.

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The MSc Diabetes Care and Management programme equips Healthcare Professionals (HCPs) from all backgrounds with the in-depth knowledge and understanding required to deliver the best care to patients with diabetes. Read more
The MSc Diabetes Care and Management programme equips Healthcare Professionals (HCPs) from all backgrounds with the in-depth knowledge and understanding required to deliver the best care to patients with diabetes.

Diabetes is a disease that is on the increase worldwide. The demands on HCPs are rising at an alarming rate and HCPs need the education basis to provide competent appropriate care.

The programme takes a multi-disciplinary approach to the study of diabetes, allowing integration of key discipline areas in the understanding of the biology of the disease, its diagnosis and the understanding of the complications of diabetes, their prevention and management. It emphasises the importance of research and development in the subject area and exposes you to the latest advances in the understanding of health and disease; equipping you with the competencies to take part in active research.

Many of our graduates go on to work in the field of diabetes – in general practice, in hospitals and in industry. Some with a suitable medical background choose to study for the UK General Medical Council exams (PLAB 1 and 2) and go on to work in the NHS.

This programme has several different available start dates and study options - for more information, please view the relevant web-page:
SEPTEMBER 2017 (Part Time) - http://www.gcu.ac.uk/hls/study/courses/details/index.php/P02663-1PTA-1718/Diabetes_Care_and_Management_(Part-time)?utm_source=XXXX&utm_medium=web&utm_campaign=courselisting

JANUARY 2017 (Full Time) - http://www.gcu.ac.uk/hls/study/courses/details/index.php/P02638-1FTAB-1617/Diabetes_Care_and_Management_(Jan)?utm_source=XXXX&utm_medium=web&utm_campaign=courselisting

JANUARY 2018 (Full Time) - http://www.gcu.ac.uk/hls/study/courses/details/index.php/P02638-1FTAB-1718/Diabetes_Care_and_Management?utm_source=XXXX&utm_medium=web&utm_campaign=courselisting

Clinical Placements

Our top six students undertake a short clinical attachment at a local hospital.

Research Expertise

Examples of research in diabetes underpinning the MSc programme include:
-Obesity and vascular changes in type 2 diabetes
-Adypocyte pathophysiology in diabetes
-Diabetes and the feto-placental circulation
-Novel in-vitro methods of assessing vascular function in health and disease
-The efficacy of urea cream in the control of anhidrosis in diabetic autonomic neuropathy
-Alteration of vascular reactivity by insulin and cortisol
-Effect of glucose concentration on blood vessel contractibility
-Visual testing and testing of eye disease

CPD Option

It is possible to undertake Diabetes Care: A Multi Professional Approach, as a stand alone CPD certificate and gain credits towards a future Masters level degree.

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The global drug delivery sector is set to attain significant growth over the next five years. This is driven by the introduction of technologies with improved product features. Read more
The global drug delivery sector is set to attain significant growth over the next five years. This is driven by the introduction of technologies with improved product features. As the pharmaceutical industry continues to innovate in order to maintain growth and profitability, the use of new drug delivery technologies is being explored for many treatment areas.

The introduction of new routes of delivery combined with increasing research and development spend, has created a new market for drug delivery and there is a market need for employees with matched skill sets.

What you'll study

The programme provides specialist research training and practical experience in the design and development of effective drug delivery systems, as well as promoting directly applicable skills for career and professional development.

This course is designed to provide a robust postgraduate training and skills development for life science or physical science-based graduate students seeking employment in the pharmaceutical industry or at the life sciences interface.

You'll gain an overview of drug delivery and have hands-on experience of pharmaceutical formulation and drug delivery.

The course aims to:
-Develop your understanding of the biology of specific targets for drug-based intervention
-Develop your understanding of the biopharmaceutical, pharmacokinetic & physicochemical principles important in the design and formulation of drug dosage systems
-Address the latest advances in drug delivery & targeting & develop your understanding of the concept of drug targeting using drug -Carriers & provide an in depth appreciation of the strategies available & utilised for a particular drug & biological barrier
-Enhance your research skills & transferable skills relevant to drug delivery in preparation for a career in the pharmaceutical industry or academia including leadership skills & entrepreneurship
-Develop your understanding of advanced research methodology to enable you to carry out independent work of publishable standard

Major projects

Within your project, you'll have the exciting opportunity to work alongside leading researchers developing the next generation of drug delivery systems. We offer a range of topics from nano to macro drug delivery systems and we consider a wide range of delivery strategies.

Facilities

The Strathclyde Institute of Pharmacy & Biomedical Sciences offers an excellent environment for research and teaching. It’s located in a new building with several laboratories. All are fitted with the latest equipment.

The course will also provide students with full experiential learning with facilities including:
-Formulation & manufacturing facilities
-Thermo-analytical facilities
-Particle, microparticle & nanoparticle size & surface analysis
-Dissolution analysis facilities
-Freeze-drying
-In-vitro analysis

The course is also supported by access to the full range of analytical spectroscopic and chromatographic instrumentation for the characterisation of drug and drug delivery components, including:
-Nuclear Magnetic Resonance (NMR)
-Ultra-violet (UV)
-Attenuated total reflectance fourier transform infrared spectroscopy (ATR_FTIR)
-Mass spectrometry (MS)
-High-pressure liquid chromatography (HPLC)
-Gas chromatography (GC)
-Liquid chromatograph/gas chromatography mass spectrometry (LC/GC-MS)

Careers

This Masters programme is designed to support your career journey into the field of drug delivery and pharmaceutical sciences and provide the support for you to take up an exciting role within the pharmaceutical industry or continue your research career into a PhD programme.

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Overview. The MRes courses are designed to provide students with intensive laboratory-based training in research methods, supported by in-depth understanding. Read more
Overview
The MRes courses are designed to provide students with intensive laboratory-based training in research methods, supported by in-depth understanding. The aim is to prepare graduates to make contributions, as individuals and members of a team, to research-oriented activities in the biomedical industries and related service sectors, or academia. The courses are also well-suited to students wishing to upgrade a first degree, change field, or gain valuable laboratory experience before employment or a PhD. The Strathclyde Institute of Pharmacy and Biomedical Sciences represents the largest Pharmacy research group in the UK, with 55% of its staff rated as either world-leading or internationally excellent in terms of originality, significance and rigour (data: Research Assessment Exercise 2008). The University of Strathclyde has invested £30M in a world-class, pioneering centre for biomedical and pharmaceutical sciences teaching and research, opened Aug 2010. Students will find themselves in stimulating, unique environment on account of the strongly multidisciplinary nature of the Institute. Combining fundamental and applied research across the areas of bioscience and pharmacy, SIPBS builds on its record of success in drug and vaccine discovery and development. The Institute engages with industry and the health services, ensuring that its excellent fundamental research is translated into products that are of benefit to health and society. For more information on SIPBS go to http://www.strath.ac.uk/sipbs

Course outline

An MRes degree is focussed on research and students will spend 8 months undertaking a laboratory-based project.
To support their chosen research project, students choose advanced-level taught courses in a named specialisation, from the following areas:

Taught classes delivered through lectures, workshops and practical classes in four areas:
1. Transferable skills training in data mining, interpretation and presentation; experimental planning, personal effectiveness, ethics in research
2. Commercialisation and entrepreneurship
3. MRes-specific classes relevant to subject area

Biomedical Sciences

Example research projects:
1. Antileishmanial activity of extracts and compounds from Monodora myristica
2. Imaging and modelling of cancer development
3. Endothelial progenitor cell expression and differentiation
4. Targeted radiotherapy for cancer
5. The involvement of pulmonary veins in atrial fibrillation: electrical properties
6. Reducing bacterial resistance to antibiotics
7. Development of neural stem cells with increased levels of the autophagy cell survival pathway
8. Investigating the role of Sigma 54 in Pseudomonas aeruginosa virulence
9. Transcriptional network analysis of the Escherichia coli core stress response.
10. Identification of novel anti-microbial compounds targeted at biofilm formation

Drug Delivery systems

Example research projects
1. Nanoparticulate formulations of insulin and their analysis
2. Mesoporous silicas for oral delivery of cyclosporine
3. Bioprocessing of biopharmaceuticals
4. Modified and time-delayed oral solid-dose release formulations
5. Nasal formulations of poorly soluble compounds
6. Reducing bacterial resistance to antibiotics: establishing, optimising and implementing a high throughput assay to discover natural product derived inhibitors of metallo beta-lactamase.
7. Imaging of dermal formulations using Raman microscopy techniques
8. Antileishmanial activity of extracts and compounds from Monodora myristica
9. Anti-trypanosomal active triterpenoids from some African Propolis
10. Investigation into the potential therapeutic properties of marine organisms
11. Photo-triggered adhesion of mammalian cells

Drug Discovery

Projects in the areas of :
1. Drug Delivery
2. Molecular Biology
3. Pharmacology
4. Pharmaceutical Materials and Formulation
5. Toxicology

Neuroscience

Projects in the areas of:
1. Electrophysiology
2. Stem cell biology for regenerative purposes
3. Cell biology
4. Inflammation
5. In vitro culture systems
6. Functional genetics

How to Apply
Applicants should apply through the University of Strathclyde on-line application form: http://pgr.strath.ac.uk indicating "Masters by Research", and named specialisation as appropriate. Applicants are not required to submit a detailed research proposal at this stage.

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The MSc Molecular Genetics course aims to provide instruction in current concepts and techniques of molecular genetics as applied in modern research. Read more
The MSc Molecular Genetics course aims to provide instruction in current concepts and techniques of molecular genetics as applied in modern research. The MSc offers practical experience of experimental techniques and provides a framework to develop skills to plan research and devise strategies to achieve specific goals. The MSc acts as a springboard for graduates who want employment in molecular, biomedical or biotechnological research, or for entry to PhD programmes.

The MSc was established in 1988 and has been developed over the years to reflect the research strengths within the Faculty. Our students find the course to be demanding and challenging but also exciting, stimulating and rewarding.

The MSc consists of 180 course credits and is split into two phases:
Taught Phase 60 credits September - January
Research Project 120 credits January - August

Taught Phase
The taught phase is based around a series of taught practical experiments that introduce a variety of modern molecular techniques and research strategies. The experiments are run Tuesday-Friday of each week in the period September-December, with the Monday being reserved for a supporting lecture programme. The practical experiments are intensive and are used to help students develop analytical and reasoning skills as well as to learn how to plan and execute experimental investigations. There are some weeks set aside for students to complete written assignments and prepare for exams.

Research Project
For the research project students become part of an active research group and choose from a broad range of projects offered by departments of the Faculty of Medicine and Biological Sciences, the MRC Toxicology Unit, or collaborating research institutes or industrial partners (when available). The spread of projects covers a wide variety of disciplines involving molecular genetics and a variety of organisms.

Below are examples of project titles from a previous year:

• Molecular engineering of novel ligands with therapeutic potential

• Detection of oxidative damage to DNA in specific gene sequences

• Analyzing human disease genes in yeast

• Single molecule methods for watching the assembly of splicing complexes

• Secretory protein expression in pancreatic β-cells

• The iron responsive regulatory system of Campylobacter jejuni

• Non-recombining segments of the human genome as tools to study evolutionary history

• Analysis of telomere length dynamics in mice that lack telomerase by the amplification of single mouse telomeres.

• Molecular mechanisms underlying antisense-RNA mediated CpG island methylation in mammalian cells

• Mutations in the LMNA Gene in Emery Dreyfuss Muscular Dystrophy – consequences for in vitro differentiation of muscle cell cultures

• Alternative lengthening of telomeres in chronic lymphocytic leukaemia


Assessment of the research project is based on:
• Research performance (60 credits)
• A written report on the research (50 credits)
• A research seminar (10 credits).

Students submit the project report in August and the research seminars are held near the end of August.

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The Institute for Neuroscience has clinicians and scientists working together to understand the brain and behaviour. Read more
The Institute for Neuroscience has clinicians and scientists working together to understand the brain and behaviour. From the basic biology of neurons through to complex processes of perception and decision-making behaviour, we address how the mind, brain, and body work together and translate this knowledge into clinical applications for patient benefit.

We offer MPhil supervision in the following research areas:

Motor systems development, plasticity and function

We conduct clinical and preclinical studies of normal and abnormal development and plasticity of the motor system. We run functional studies and computer modelling of motor system activity throughout the neuraxis. We also research the development and assessment of novel therapies for motor disorders/lesions including stem cell and brain-machine interface.

Visual system development, plasticity and repair]]
We research the development and assessment of novel neuro-technological approaches to retinal dystrophy repair including brain-machine interface and stem cells. We use in vitro approaches to look at retinal development and visual system wiring.

[[Neural computation and network systems
We conduct experimental and theoretical (computational) studies aimed at understanding how neurones throughout the brain interact in localised networks to compute complex tasks. Our research looks at the role of network activity in a wide range of neurological, neurodegenerative and psychiatric disorders.

Auditory neuroscience

We conduct clinical and preclinical studies aimed at understanding the brain mechanisms involved in detection, discrimination and perception of sound. We are interested in how these mechanisms are affected in individuals with brain disorders, including dementia, autism and stroke.

Pain

Our research focuses on:
-Understanding mechanisms underlying pain, analgesia, and anaesthesia
-The development of methods to assess pain and to alleviate pain in animals and humans

Psychobiology

We conduct studies in laboratory animals, healthy volunteers and patient populations investigating the mechanisms underlying mood, anxiety and addiction disorders and their treatment. Allied research looks at normal neuropsychology, and the physiology and pharmacology of neurotransmitter and endocrine systems implicated in psychiatric disorders.

Neurotoxicology

Our research focuses on delineating the effects and understanding the mechanisms of action of established and putative neurotoxins, including environmental and endogenous chemicals, and naturally occurring toxins.

Forensic psychiatry and clinical psychology

Our research covers:
-The assessment, treatment and management of sex offender risk
-Development and assessment of cognitive models
-Cognitive behavioural therapy (CBT) treatment for bipolar disorder, psychosis, anxiety and developmental disorders
-Developmental disorders of perception and cognition

Systems and computational neuroscience

We conduct theoretical (computational) and experimental studies aimed at understanding the neuroanatomy, neuropharmacology of vision, visual attention and episodic memory.

Behaviour and evolution

Many research groups take an evolutionary and comparative approach to the study of brain and/or behaviour, comparing brain function and behaviour among such disparate groups as insects, birds and mammals, and studying the ecological and evolutionary functions of behaviour. Much of our work is at the forefront of the fields of neuroethology, behavioural ecology and comparative cognition, and has important implications for the study and practice of animal welfare.

Visual perception and human cognition

We research:
-Colour and depth perception - perception of natural scenes
-Psychophysics and attention - memory
-Word learning in children
-Body image dysfunction
-Visual social cognition and face processing
-Advertising and consumer behaviour

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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If you have a background in biomedical science, biology, medicine and life sciences, this course allows you to develop your knowledge in selected areas of biomedical science. Read more

If you have a background in biomedical science, biology, medicine and life sciences, this course allows you to develop your knowledge in selected areas of biomedical science.

You gain advanced knowledge and understanding of the scientific basis of disease, with focus on the underlying cellular processes that lead to disease. You also learn about the current methods used in disease diagnosis and develop practical skills in our well-equipped teaching laboratories.

As well as studying the fundamentals of pathology, you can choose one specialist subject from • cellular pathology • microbiology and immunology • blood sciences. Your work focuses on the in vitro diagnosis of disease. You develop the professional skills needed to further your career. These skills include • research methods and statistics • problem solving • the role of professional bodies and accreditation • regulation and communication.

This course is taught by active researchers in the biomedical sciences who have on-going programmes of research in the Biomolecular Sciences Research Centre together with experts from hospital pathology laboratories.

Most of your practical work is carried out in our teaching laboratories which contain industry standard equipment for cell culture, quantitative nucleic acid and protein analysis and a sophisticated suite of analytical equipment such as HPLC and gas chromatography.

Many of our research facilities including flow cytometry, confocal microscopy and mass spectrometry are also used in taught modules and projects and our tutors are experts in these techniques.

The teaching on the course is split between formal lectures and tutorials, and laboratory-based work. A third of the course is a laboratory-based research project, where full-time students are assigned to a tutor who is an active research in the biomedical research centre. Part-time students carry out their research project within the workplace under the guidance of a workplace and university supervisor.

Three core modules each have two full-day laboratory sessions and the optional module applied biomedical techniques is almost entirely lab-based. Typically taught modules have a mixture of lectures and tutorials. The research methods and statistics modules are tutorial-led with considerable input from the course leader who acts as personal tutor.

The course content is underpinned by relevant high quality research. Our teaching staff regularly publish research articles in international peer-reviewed journals and are actively engaged in research into • cancer • musculoskeletal diseases • human reproduction • neurological disease • hospital acquired infection • immunological basis of disease.

Professional recognition

This course is accredited by the Institute of Biomedical Science (IBMS) who commended us on

  • the excellent scientific content of our courses
  • the supportive nature of the staff which provides a positive student experience
  • the laboratory and teaching facilities, which provide an excellent learning environment

Course structure

The masters (MSc) award is achieved by successfully completing 180 credits.

The postgraduate certificate (PgCert) is achieved by successfully completing 60 credits.

The postgraduate diploma (PgDip) is achieved by successfully completing 120 credits.

Core modules

  • Biomedical laboratory techniques (15 credits)
  • Evidence based laboratory medicine (15 credits)
  • Cell biology (15 credits)
  • Molecular diagnostics (15 credits)
  • Research methods and statistics (15 credits)
  • Research project (60 credits)

Optional modules

  • Applied biomedical techniques (15 credits)
  • Cellular and molecular basis of disease (15 credits)
  • Cellular and molecular basis of cancer (15 credits)
  • Human genomics and proteomics (15 credits)
  • Blood sciences (30 credits)
  • Cellular pathology (30 credits)
  • Microbiology and immunology (30 credits)

Assessment

Assessment methods include written examinations and coursework such as

  • problem solving exercises
  • case studies
  • reports from practical work
  • presentations.

Research project assessment includes a written report, presentation and portfolio. 

Employability

This course enables you to start to develop your career in various applications of biomedical science including pathology, government funded research labs or the life sciences industry. It is also for scientists working in hospital or bioscience-related laboratories particularly as biomedical scientists who want to expand their knowledge and expertise in this area.



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Over the last two decades there has been an explosion of interest in brain science across academia, industry and the media. Read more
Over the last two decades there has been an explosion of interest in brain science across academia, industry and the media. The integration of cognitive brain imaging with neuroscience will play a central part in discovering how the brain functions in health and disease in the 21st century, as illustrated by the Human Brain Project in Europe and The Brain Initiative in the USA. The taught Brain Sciences Degree will help you gain interdisciplinary knowledge “from molecules to mind” and enable you to develop research skills in cognitive brain imaging, fundamental neuroscience and brain disorders.

Why this programme

◾You will study the Brain Science Degree in an Institute that strives to understand the brain at multiple levels of function, from cells to cognition using approaches ranging from molecular, cellular and systems level investigations to brain imaging o
◾Lectures will be given by staff who are international research leaders and who publish cutting edge research at the forefront of brain sciences.
◾You will attend seminars on a wide range of topics given by eminent external speakers visiting the Institute from around the world as part of our Current Research Topics course.
◾You will carry out a research project working in labs equipped with technology and expertise at the forefront of brain science research, including: ◾3 Tesla fMRI system to image human brain function
◾Magnetoencephalography and electroencephalography to study neural activity
◾Transcranial magnetic stimulation for non-invasive brain stimulation
◾7 Tesla experimental MRI scanner for studying models of disease
◾Confocal microscopy for high resolution cellular imaging
◾Models of disease for pharmcolgical, gene and stem cell therapies

◾You will receive in depth training in research design and statistical analysis
◾The brain science programme allows student choice and flexibility. Through your choice of optional taught courses you can develop in-depth specialist knowledge to enhance further academic research as well as transferable skills for a career outside academia.
◾You will join a vibrant community of masters students from other programmes and for your research project you will be based in laboratories alongside PhD students, postdocs and senior researchers.
◾Through the range of teaching methods and assessments used you will gain skills in critical appraisal, independent working, presentations, writing scientific documents and time management.

Programme structure

The programme will consist of compulsory taught courses, selected optional courses and a research project spread over 11-12 months.

Core courses and Research Project

◾Fundamentals for neuroscience research
◾Cognitive brain imaging
◾Statistics and research design
◾Current research topics in brain sciences
◾Neuroscience: animal models of disease and function
◾Designing a research project
◾Brain sciences research project

Optional courses

◾Introduction to Matlab for biologists
◾Neuroscience: in vivo models
◾In vitro and analytical approaches in neuroscience
◾Bioimaging for life sciences
◾Current trends and challenges in biomedical research and health
◾Technology transfer and commercialisation of biomedical research
◾Neuroinflammation

Teaching and Learning Methods

Taught courses are delivered by lectures, tutorials, problem-based learning and computer-based sessions supplemented by a wide range of electronic resources for independent or group study. You will use the primary scientific literature as an information resource and through project work will develop skills in team-working, experimental design and data interpretation. Through assessment of coursework you will gain skills in oral and written communication.

Career prospects

The University of Glasgow MSc in Brain Sciences provides you with many career opportunities.

Research: MSc students can enter a research career, mainly by undertaking further postgraduate research studies towards a PhD, or by working in research laboratories in academic settings.

Industry: Other options include going on to work in a wide range of commercial sectors including the pharmaceutical or biotechnological industries and scientific publishing.

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1-year fully funded studentships still available (for EU students only). Read more
1-year fully funded studentships still available (for EU students only)

MRes in Experimental Physiology and Drug Discovery (Bio-Imaging) is a unique 12 month full-time multi-disciplinary course which aims to give all participants an introduction to the different aspects of biomedical imaging (including hardware and probe development, in vivo and in vitro experimental application, software development and data analysis). In addition, participants will be given training in comparative anatomy, physiology and pharmacology of laboratory animals, they will also obtain a Home Office Personal licence and hands-on experience of a range of in-vivo techniques used in research.


Students will follow already taught courses in Biomedical Imaging, and Experimental Physiology and Drug Discovery. Students will also be taught transferrable skills subjects, such as safety awareness, intellectual property management, time and project management and presentation and communication skills. In addition, students will undertake an individual research project throughout the course and submit a research thesis.


Aims and Objectives

Provide science graduates with:

- an introduction to the different aspects of biomedical imaging
- the ability to perform biomedical imaging, such as probe development or the experimental applicatoin of imaging in vivo
- intensive hands-on in vivo functional biology research training
- the ability to perform the physiological and pharmacological studies in drug development


Content and Structure

Part A: Bio-imaging, animal handling, Home Office training course, comparative anatomy and physiology and drug discovery.

Part B: Six practical modules focused on in vivo research skills (problem solving, e-learning, journal club and lectures).

Part C: 21 week in vivo research project

Career opportunities

The course will provide students with an insight into the principles of drug discovery and translational medical science. Importantly, those students wanting to undertake a PhD in in-vivo science will have gained a Home Office personal licence and be confident in animal handling and techniques. The students will thus be well equipped to make rapid progress in research. Furthermore, having learnt about biomedical imaging from development to application, they will also be better equipped to develop a fully integrative approach to their research problem. The multidisciplinary nature of the course will give students the ability to appreciate the importance of translating the results of scientific and cliical discoveries into potential benefits to healthcare.

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This programme will equip you with the necessary ethos, critical evaluative skills and technical competence to pursue a research career in the in vivo sciences. Read more
This programme will equip you with the necessary ethos, critical evaluative skills and technical competence to pursue a research career in the in vivo sciences. Such an approach is essential to understand the complex interactions among body systems, and how these may be modified with adaptations, by drugs, and during pathologies.

You will graduate equipped with essential skills for training to PhD level with an excellent grounding for future careers in biological research, the pharmaceutical industry or higher education.

Training is provided on this course for a Home Office Personal Licence. The research project will normally require students to carry out licensed procedures. This module will be taught at the beginning of the MRes.

The programme is split into two components - taught and research. The taught component comprises three taught modules and aids the students to gain the skills required to undertake the research component. The first module covers physiology of major body systems in order to ensure all students have a common knowledge regardless of their first degree background.

A practical in vivo research skills module involves progressive training with equipment using in vitro and ex vivo approaches. This research modules also provides seminars from research-active scientists about their approaches, and a series of taster projects where you observe current research projects in action. A research methods module gives theoretical and practical instruction in common techniques, experimental design and data analysis. The in vivo research project takes 20 weeks and gives you the opportunity to develop your skills in publishable-quality research.

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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The taught Infection Biology MSc will help you to develop your knowledge and understanding of the molecular mechanisms by which bacteria, viruses and parasites cause disease in humans and in domesticated animals, and the immune responses generated by these hosts to such pathogens. Read more
The taught Infection Biology MSc will help you to develop your knowledge and understanding of the molecular mechanisms by which bacteria, viruses and parasites cause disease in humans and in domesticated animals, and the immune responses generated by these hosts to such pathogens. You can choose to specialise in virology, microbiology (bacteriology) or parasitology.

Why this programme

◾This degree in Infection Biology allows you to study in an Institute housing two UK National centres of excellence, in Virology and Parasitology, and active in the Scottish Infection Research Network (SIRN), a key clinical focus on healthcare-related
◾You will work in the laboratories of internationally recognized infection biology researchers, conducting high quality basic, translational and clinical science.
◾We have exciting scholarship opportunities.
◾This MSc in Infection Biology provides access to a combination of highly specialised equipment, unique in Scotland, including cutting edge in vitro and in vivo research facilities for biological imaging, high content screening microscopy , and a state of the art polyomics facility bringing together metabolomics, proteomics, genomics, transcriptomics, and integrations of data sets with bioinformatics.
◾You can attend guest lectures and workshops from scientists and clinicians working in the pharmaceutical, diagnostic and biotechnology fields.
◾You can carry out a research project in an internationally recognized centre of excellence, working with world-leading researchers in infection biology.
◾This Infection Biology degree integrates infection biology with cutting edge molecular and cellular techniques.
◾The MSc in Infection Bilogy offers breadth, covering bacteria, viruses and parasites.
◾Students can opt to specialise in one of the three areas of infection biology, and will graduate with a named specialism e.g. MSc Infection Biology (Microbiology).
◾Optional courses allow students to develop their interests: ◾Technology transfer and commercialisation of bioscience research.
◾Drug discovery
◾Diagnostic technologies and devices
◾Current trends and challenges in biomedical research and health

◾We have excellent opportunities to engage with industrial and clinical scientists, with guest lecturers from the pharmaceutical industry, medical diagnostic laboratories and bioscience business.
◾Students have the opportunity to carry out a research project in an internationally recognized centre of excellence, working with world-leading researchers in infection biology.

Programme structure

The MSc programme will consist of five taught courses and a project or dissertation, spread over 11-12 months. Three courses are compulsory, and two are chosen from a series of options.

The PGDip programme will consist of five taught courses, spread over 7-8 months, with three compulsary courses and two chosen from a series of options.

The PgCert programme consists one core taught course over 3-4 months.

Core Courses and Project
◾Host-pathogen interactions and immune responses to infection
◾Omic technologies for the biomedical sciences: from genomics to metabolomics
◾Designing a research project: biomedical research methodology
◾Infection Biology Research project (laboratory based or non-laboratory based, in Virology, Parasitology, or Microbiology)

Optional Courses
◾Drug discovery
◾Diagnostic technologies and devices
◾Current trends and challenges in biomedical research and health
◾Technology transfer and commercialisation of bioscience research

Teaching and Learning Methods

A variety of methods are used, including lectures, tutorials, workshops, laboratories and problem-based learning. These are supplemented by a wide range of course-specific electronic resources for additional learning and self assessment. As a result, you will develop a wide range of skills relevant to careers in infection biology research, diagnostics or drug development. These skills include team-working, data interpretation and experimental design. You will use the primary scientific literature as an information resource.


Electronic Resources

Our online resources were voted the best in the United Kingdom in the International Student Barometer in 2012, and include:
◾a continually updated Moodle (virtual learning environment) with extensive additional teaching and self-assessment materials
◾over 35,000 online textbooks and e-journals available through the University library website, 24/7
◾academic databases of biological sciences and medicine
◾Henry Stewart Talks - animated audio visual presentations by world leading experts covering many topics in infection biology.

Career prospects

The University of Glasgow MSc in Infection Biology provides you with many career opportunities.

Research: About half of our MSc students enter a research career, mainly by undertaking further postgraduate research studies towards a PhD), or by working in research laboratories in clinical or academic settings, including national government laboratories.

Industry: Other students go on to work in the pharmaceutical, diagnostic or biotechnological industries.

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Undertaking the Master of Clinical Research Methods at Monash University, a Group of Eight University and one that is ranked in the Top 100 Universities worldwide, will give you the knowledge and skills necessary to work in the broad domain of clinical research and a postgraduate qualification that is recognised around the world. Read more
Undertaking the Master of Clinical Research Methods at Monash University, a Group of Eight University and one that is ranked in the Top 100 Universities worldwide, will give you the knowledge and skills necessary to work in the broad domain of clinical research and a postgraduate qualification that is recognised around the world.

This 12-unit course provides students with the full range of quantitative and analytical skills necessary to work in the broad domain of clinical health. It especially focuses on developing skills in the quantitative methods of clinical research and application to patient care.

Students must complete 9 core units, plus either 3 electives or 1 elective and a 12 credit point project.

Teaching is structured as a combination of on-line educational delivery, and face to face block days which suits busy professionals and those who balance other responsibilities in their lives.

Students may quality for entry into a PhD by the following pathways:

Successfully completing the Master of Clinical Research Methods including a Distinction average in: chronic diseases: epidemiology and prevention; regression methods for epidemiology; advanced statistical methods for clinical research; clinical measurement and systematic reviews and meta-analysis.

OR

Completing the Master of Clinical Research Methods including the 12 credit point project and achieve a Distinction average in epidemiology and prevention; regression methods for epidemiology; advanced statistical methods for clinical research; and clinical measurement.

Exit points: Students may be eligible to alternately exit from the Master's program with a Graduate Certificate in Clinical Research Methods or Graduate Diploma in Clinical Research Methods provided the requirements of the alternative exit have been met.

Visit the website http://www.study.monash/courses/find-a-course/2016/clinical-research-methods-2311?domestic=true

Career opportunities

Graduates may move into careers in a diverse range of areas within research and the wider health sector. These may include employment within clinical research units in medical, nursing or allied health science; work in industry sponsored trials; applying their skills in investigator initiated studies in public health, primary care, infection control, chronic disease and clinical medicine, or they may implement their skills in their usual employment.

For more information visit the faculty website - http://www.study.monash/media/links/faculty-websites/medicine

Faculty of Medicine, Nursing and Health Sciences

The Faculty is also home to a number of leading medical and biomedical research institutes and groups, and has contributed to advances in many crucial areas: in vitro fertilisation, obesity research, drug design, cardiovascular physiology, functional genomics, infectious diseases, inflammation, psychology, neurosciences and mental health.

Notwithstanding the relatively short history of our University, the Faculty is ranked in the top 50 in the world for its expertise in life sciences and biomedicine by the Times Higher Education and QS World University 2012 benchmarks.

Courses offered by the Faculty include medicine, nursing, radiography and medical imaging, nutrition and dietetics,emergency health studies, biomedical sciences, physiotherapy, occupational therapy, and social work. A range of research and coursework postgraduate programs is also offered.

The Faculty takes pride in delivering outstanding education in all courses, in opening students to the possibilities offered by newly discovered knowledge, and in providing a nurturing and caring environment.

Further details may be found at: http://www.med.monash.edu.au/about.html

Find out how to apply here - http://www.study.monash/courses/find-a-course/2016/clinical-research-methods-2311?domestic=true#making-the-application

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