The studies in Biomedical Imaging provide you with strong knowledge on either cellular biology, anatomy and physiology, nanomedicine or biophysics, depending on the area of specialisation. You will study in a highly international environment and gain excellent theoretical and practical skills in a wide range of imaging techniques and applications as well as in image analysis.
In addition, the courses cover for instance light microscopy, advanced fluorescence techniques, super-resolution imaging techniques, PET, electron microscopy, and atomic force microscopy. Also an understanding of the use of multimedia in a scientific context and excellent academic writing skills are emphasised. The interdisciplinary curriculum provides you with a broad spectrum of state-of-the-art knowledge in biomedical imaging related to many different areas in cell biology and biomedicine.
The graduates have the possibility to continue their studies as doctoral candidates in order to pursue a career as a scientist, in industry or science administration, and in an imaging core facility or a hospital research laboratory.
The strong imaging expertise of Turku universities is a great environment for the studying Biomedical Imaging. Imaging is one of the strongholds of the two universities in Turku, Åbo Akademi University and the University of Turku. Both universities also maintain the Turku BioImaging, which is a broad-based, interdisciplinary science and infrastructure umbrella that unites bioimaging expertise in Turku, and elsewhere in Finland. Turku is especially known for its PET Centre and the development of super-resolution microscopy.
Winner of the 2014 Nobel Prize in Chemistry Stefan Hell did his original discoveries on STED microscopy at the University of Turku. Turku is also a leader of the Euro-BioImaging infrastructure network which provides imaging services for European researchers.
Turku has a unique, compact campus area, where two universities and a university hospital operate to create interdisciplinary and innovative study and research environment.
Research facilities include a wide array of state-of-the-art imaging technologies ranging from atomic level molecular and cellular imaging to whole animal imaging, clinical imaging (e.g. PET) and image analysis.
Studies in bioimaging are highly research oriented and the courses are tailored to train future imaging experts in various life science areas.
Biomedical Imaging specialisation track is very interdisciplinary with a unique atmosphere where people from different countries and educational backgrounds interact and co-operate. Students are motivated to join courses, workshops and internship projects also elsewhere in Finland, in Europe and all around the world. Programme has Erasmus exchange agreements with University of Pecs in Hungary and L’Institut Supérieur de BioSciences in Paris, France.
Master’s thesis in biomedical imaging consists of two parts: an experimental laboratory project, thesis plan and seminar presentation, and the written thesis.
The aim of the thesis is to demonstrate that the student masters their field of science, understands the research methodology as well as the relevant literature, and is capable of scientific thinking and presenting the obtained data to the scientific community.
Usually the Master’s thesis is conducted in a research group as an independent sub-project among the group’s research projects. Experimental research work will be conducted under the guidance of a supervisor.
Examples of thesis topics:
After completing the studies, you will:
The interdisciplinary curriculum provides you with broad knowledge on biomedical imaging that is related to many areas of biomedicine and life sciences.
The Biomedical Imaging spesialisation track aims to train future imaging and image analysis experts to meet the increasing needs in the fields of basic and medical research as well as the high demand for imaging core facility personnel.
The Programme provides excellent possibilities for a career in life sciences. For example, you can:
Master of Science degree provides you with eligibility for scientific postgraduate degree studies.
Graduates from the Biomedical Sciences Programme are eligible to apply for a position in the University of Turku Graduate School, UTUGS. The Graduate School consists of 16 doctoral programmes covering all disciplines and doctoral candidates of the University.
Together with the doctoral programmes the Graduate School provides systematic and high quality doctoral training. UTUGS aims to train highly qualified experts with the skills required for both professional career in research and other positions of expertise.
Several doctoral programmes at University of Turku are available for graduates:
Pursuing a research degree at the School of Chemistry could be one of the best experiences of your life.
In addition to gaining research skills, making friends, meeting eminent researchers and being part of the research community, a research degree will help you to develop invaluable transferable skills which you can apply to academic life or a variety of professions outside of academia.
The Chemistry/Biology Interface
This is a broad area, with particular strengths in the areas of protein structure and function, mechanistic enzymology, proteomics, peptide and protein synthesis, protein folding, recombinant and synthetic DNA methodology, biologically targeted synthesis and the application of high throughput and combinatorial approaches. We also focus on biophysical chemistry, the development and application of physicochemical techniques to biological systems. This includes mass spectrometry, advanced spectroscopy and microscopy, as applied to proteins, enzymes, DNA, membranes and biosensors.
Experimental & Theoretical Chemical Physics
This is the fundamental study of molecular properties and processes. Areas of expertise include probing molecular structure in the gas phase, clusters and nanoparticles, the development and application of physicochemical techniques such as mass spectoscropy to molecular systems and the EaStCHEM surface science group, who study complex molecules on surfaces, probing the structure property-relationships employed in heterogeneous catalysis. A major feature is in Silico Scotland, a world-class research computing facility.
This research area encompasses the synthesis and characterisation of organic and inorganic compounds, including those with application in homogeneous catalysis, nanotechnology, coordination chemistry, ligand design and supramolecular chemistry, asymmetric catalysis, heterocyclic chemistry and the development of synthetic methods and strategies leading to the synthesis of biologically important molecules (including drug discovery). The development of innovative synthetic and characterisation methodologies (particularly in structural chemistry) is a key feature, and we specialise in structural chemistry at extremely high pressures.
The EaStCHEM Materials group is one of the largest in the UK. Areas of strength include the design, synthesis and characterisation of functional (for example magnetic, superconducting and electronic) materials; strongly correlated electronic materials, battery and fuel cell materials and devices, porous solids, fundamental and applied electrochemistry polymer microarray technologies and technique development for materials and nanomaterials analysis.
Students attend regular research talks, visiting speaker symposia, an annual residential meeting in the Scottish Highlands, and lecture courses on specialised techniques and safety. Students are encouraged to participate in transferable skills and computing courses, public awareness of science activities, undergraduate teaching and to represent the School at national and international conferences.
Our facilities are among the best in the world, offering an outstanding range of capabilities. You’ll be working in recently refurbished laboratories that meet the highest possible standards, packed with state-of-the-art equipment for both analysis and synthesis.
For NMR in the solution and solid state, we have 10 spectrometers at field strengths from 200-800 MHz; mass spectrometry utilises EI, ESI, APCI, MALDI and FAB instrumentation, including LC and GC interfaces. New combinatorial chemistry laboratories, equipped with a modern fermentation unit, are available. We have excellent facilities for the synthesis and characterisation of bio-molecules, including advanced mass spectrometry and NMR stopped-flow spectrometers, EPR, HPLC, FPLC, AA.
World-class facilities are available for small molecule and macromolecular X-ray diffraction, utilising both single crystal and powder methods. Application of diffraction methods at high pressures is a particular strength, and we enjoy strong links to central facilities for neutron, muon and synchrotron science in the UK and further afield. We are one of the world's leading centres for gas-phase electron diffraction.
Also available are instruments for magnetic and electronic characterisation of materials (SQUID), electron microscopy (SEM, TEM), force-probe microscopy, high-resolution FTRaman and FT-IR, XPS and thermal analysis. We have also recently installed a new 1,000- tonne pressure chamber, to be used for the synthesis of materials at high pressures and temperatures. Fluorescence spectroscopy and microscopy instruments are available within the COSMIC Centre. Dedicated computational infrastructure is available, and we benefit from close links with the Edinburgh Parallel Computing Centre.
The International Master in Bio-Imaging at the University of Bordeaux offers a comprehensive and multidisciplinary academic program in cellular and biomedical imaging, from molecules and cells to entire animals and humans. It is part of the “Health Engineering” program, which combines three academic tracks (Biomedical Imaging, Cellular Bio-Imaging and Bio-Material & Medical Devices).
Built on the research expertise of the researchers at the University of Bordeaux, this Master program provides excellent training opportunities in advanced bio-imaging methods and concepts to understand (patho)-physiological processes through the vertical integration of molecular, cellular and systems approaches and analyses.
Students receive intense and coordinated training in bio-imaging, combining a mix of theoretical and practical aspects. They acquire scientific and technological knowledge and experience in the main imaging techniques used in biomedical research and practice.
Semesters 1 and 2 focus on the acquisition of general knowledge in the field (courses and laboratory training). Semester 3 consists of track specialization in cellular bio-imaging, biomedical imaging and bio-materials & medical devices. Semester 4 proposes an internship within an academic laboratory or with an industrial partner.
Cellular Bio-Imaging track
Biomedical Imaging track
Cellular Bio-Imaging track
Biomedical Imaging track
Graduates will be qualified in the following domains of expertise:
Potential career opportunities include: researcher, service engineer, application scientist, bio-medical engineer, sales engineer, healthcare executive.
This MSc is suited to talented engineers and scientists with a passion for understanding and creating innovative materials. It will equip you with core knowledge of Materials Science and Engineering that can be applied to any materials-based career, giving you flexibility in the job market.
This flexible MSc is a stand-alone qualification designed to prepare students to solve problems in materials science and engineering under the exacting conditions we encounter today.
The programme is broad, covering many aspects of both the science of materials and engineering applications, and includes course work and original research components.
Our students will have access to world leading knowledge and infrastructure by working on real projects as part of established research groups, and you will be motivated to develop your ability to research, design, assess, implement and review solutions to real-life engineering problems across a wide range of materials.
This course aims to equip you with knowledge and understanding of the key structural properties of different classes of materials. You will gain skills in characterisation of materials, in particular their structural, thermal, morphological and chemical properties.
You will use the principles and underlying theory of a range of characterisation methods – including X-ray Diffraction, Focussed Ion Beam, Secondary Ion Mass Spectrometry, Atomic Force Microscopy, Electron Microscopy and Scanning Probe Microscopies – as well as a range of modelling tools, applicable to a broad spectrum of materials types at different length scales.
For full information on this course, including how to apply, see: http://www.imperial.ac.uk/study/pg/materials/advanced-materials/
If you have any enquiries you can contact our team at: [email protected]
This programme is unique as it combines the study of pharmaceutical technology, including pharmaceutical sciences, and medicines control.
It has been designed to provide you with an advanced theoretical knowledge of sciences that are related to disciplines in pharmaceutical sciences, and give you the skills you need for laboratory work in this area.
These disciplines include the development of pharmaceutical formulation, with particular emphasis on the technology used in the pharmaceutical process and the development and production of medicines. This focus leads to an emphasis on the processes and procedures for clinical trials that are needed for licensing and regulation.
Medicines control is an important element of this programme. It encompasses drug regulations, drug licensing, drug testing, and safety. You will learn about the key processes involved in structured enforcement and inspection standards through the application of quality assurance. You will also gain knowledge and develop skills related to pharmaceutical supply chains and pharmacovigilance, including the safe and proper use of medicines.
You'll also have opportunities for hands-on experience in applying analytical and characterisation techniques such as liquid chromatography (LC) and gas chromatography (GC) combined with tandem mass spectrometric (MS/MS) detection, X-ray diffraction, scanning electron microscopy and near-infrared (NIR), nuclear magnetic resonance (NMR) and Raman spectroscopy.
The programme structure is modular and the taught components run over two semesters (September to January then late-January to May), with the research project taking place between May and August.
In the first semester you will take three core modules worth 60 credits. In the second semester you will take two core modules (which constitute 40 credits) and you will have the choice of two option modules (worth a further 20 credits). The research project is worth 60 credits.
A wide variety of teaching and learning methods are employed to engage you in developing your subject knowledge and understanding including:
The programme will progress from structured learning led by lectures and practicals, through to more seminar-based learning and to the individual research-based dissertation and project.
Different methods of assessment will be used as appropriate to the learning outcomes, including written examinations, oral presentations, experimental coursework reports, and, most importantly, an MSc dissertation.
You will have access to sophisticated state-of-the-art laboratories and equipment for practical classes and MSc projects. These include:
Graduates from our MSc Pharmaceutical Technology and Medicines Control programme progress into PhD research and employment in the pharmaceutical industry in various areas such as formulation and drug development, manufacture and production, pharmaceutical analysis, quality assurance and quality control.
The programme enhances graduate employment prospects, and opens up opportunities in government regulatory agencies, drug procurement and distribution centres.
Recent graduates have secured positions such as:
Awarded studentships from universities in the UK to undertake PhD studies:
The University is committed to helping students develop and enhance employability and this is an integral part of many programmes. Specialist support is available throughout the course from Career and Employability Services including help to find part-time work while studying, placements, vacation work and graduate vacancies. Students are encouraged to access this support at an early stage and to use the extensive resources on the Careers website.
Discussing options with specialist advisers helps to clarify plans through exploring options and refining skills of job-hunting. In most of our programmes there is direct input by Career Development Advisers into the curriculum or through specially arranged workshops.
Our comprehensive support services will help you to achieve your full potential – both academically and personally.
We provide all you need to make the very best of your time with us, and successfully progress through your studies and on into the world of graduate employment.
Our support services include:
We have well-stocked libraries and excellent IT facilities across campus. These facilities are open 24 hours a day during term time, meaning you’ll always find a place to get things done on campus.
Our Academic Skills Advice Service will work with you to develop your academic, interpersonal and transferable skills.
A comprehensive training in the theory and practice of groundwater science and engineering, providing an excellent basis for careers in scientific, engineering and environmental consultancies, water companies, major industries, research, and government scientific and regulatory services in the UK and abroad.
Modules encompass the full range of groundwater studies and are supported by practical field sessions and computing and hydrogeological modelling based on industry standard software.
This is a vocational programme relevant to graduates with good Honours degrees in appropriate subjects (for example, Geosciences, Engineering, Physics, Mathematics, Chemistry, Biosciences, and Environmental Sciences). It is important to have a good knowledge of mathematics.
The lecture component of the programme encompasses the full range of hydrogeology. Modules cover drilling, well design, aquifer test analysis, laboratory test analysis, groundwater flow, hydrogeophysics, inorganic chemistry of groundwaters, organic contamination of groundwater, contaminated land and remediation, groundwater modelling, contaminant transport, hydrology, and groundwater resources assessment.
These lecture modules are supported by practical field sessions, and by computing and hydrogeological modelling based on industry standard software. Integration of concepts developed in the taught programmes is facilitated through student-centred investigations of current issues linked to a diverse range of hydrogeological environments.
Examinations are held in January and April. From May onwards, you undertake a project, a report on which is submitted in September.
Projects may be field-, laboratory-, or modelling- based, and are usually of an applied nature, although a few are research-orientated. Our chemical (inorganic and organic), rock testing, computing, geophysical and borehole-logging equipment is available for you to use during this period.
Career openings include those with consulting engineering and environmental firms, government scientific services and regional water companies, both in this country and abroad. Demand for hydrogeologists is substantial and students from the course are highly regarded by employers.
Hydrogeology is the study of groundwater; an essential component of the world’s water supply. More than 2 billion people depend on groundwater for their daily needs (approximately 30% of water supplied in the UK is groundwater).
The aim of our Hydrogeology MSc Course is to provide students who have a good scientific or engineering background with a comprehensive training in the fundamentals of groundwater science and engineering, together with considerable practical experience.
The School is well supported and you will have the use of all equipment and facilities appropriate to your work:
You will have access to the multiple clusters of PCs in the University Learning Centre and Library, and the School-based Earth Imaging Laboratory. The MSc course also has its own dedicated room for teaching and study with six PCs for convenient access to email, web and on-line learning resources.
The University based computers have an extensive range of software installed that covers the needs of students of all disciplines, but in common with the School-based PCs, specialist software packages used routinely by professional hydrogeologists are installed for our MSc students. These include industry standard groundwater flow modelling, contaminant transport modelling, geochemical modelling, geophysical interpretation and field and laboratory hydraulic test analysis packages. You can also register for more specialist software on the University high speed BlueBEAR computing facility if your individual project requires it. Research software developed within the Water Sciences research group is also available.
The School is well equipped for inorganic and organic chemical analysis of field and laboratory samples. Facilities include: Total Organic Carbon analysis, Gas Chromatography, ICP Mass Spectrometry, Ion Chromatography, Stable Isotope Mass Spectrometry and Luminescence and UV/visible spectroscopy. These facilities have been used in a wide range of MSc projects, for both standard geochemical analysis of groundwater samples and for more specific purposes including studies of persistent organic pollutants and toxic heavy metals in the environment, and denitrification in river beds.
The School also has a dedicated microbiology laboratory equipped with an autoclave for sterilizing media and equipment, a class II safety cabinet for handing microbial samples, and incubators.
Facilities are also available within the School and elsewhere for geological material analysis, including thin section preparation and microscopy, a wide range of electron microscopy techniques, XRD, pore size distribution determination, and surface area measurement.
The School has two field sites on campus for use by MSc students and research staff. Both consist of arrays of boreholes drilled into the underlying sandstone aquifer to depths of up to 60m.
The groundwater group is well stocked with field equipment, which is used extensively in research projects, for teaching, and particularly on individual MSc projects. This equipment includes pumping test equipment (submersible pumps, generators, packers, digital pressure transducers, data loggers, divers, dip meters, pipe-work and installation frames); chemical sampling and tracer transport equipment (depth samplers, sampling pumps, tracer test equipment and field fluorimeter, hand held EC, pH and EH probes, portable chemical lab kit); geophysical equipment (resistivity imaging, electromagnetic surveying, ground penetrating radar, and borehole logging); and a secure, towable, mobile laboratory for off-site testing.
Fieldwork and projects transform theory into practice and form a large part of the course. They are supported by extensive field, laboratory and technical facilities.
A weeklong course of practical work and site visits is held in Week 7 of the Autumn Term. The content varies from year to year, but typically includes pumping tests, small-scale field tests, chemical sampling, and geophysics using the research boreholes on campus. Visits to landfill sites, water resources schemes, wetlands, and drilling sites are also arranged in collaboration with the Environment Agency, consultants and landfill operators. During the Spring Term, field demonstrations are provided by chemical sampling equipment distributors and manufacturers. You will gain further field experience either during your own 4.5 month project or when helping your colleagues on other projects.
This taught MSc course gives you a comprehensive overview of state-of-the-art research in nanoscience. It provides you with the opportunity to develop the skills necessary for this emerging area.
The course is mainly designed to equip you for a research-based career in industry but it can also serve as a way of progressing towards a PhD.
This course will be of interest to physical science graduates looking to work in the field of nanoscience. It’s also suitable for those with an industrial background as a further training opportunity and a way of gaining insights into topics at the forefront of academic research.
This course explores the frontiers of science on the nanoscale. It provides a strong grounding in basic nanoscience before progressing to advanced topics.
Taught classes have been developed from the many years of nanoscience research at the University in areas such as:
Two semesters of formal teaching are followed by a three-month intensive project.
Following the taught classes, you’ll undertake a research intensive project in a relevant nanoscience topic.
The projects take place primarily in research labs located in the University’s physical science departments. There are some opportunities for relevant industrial placements.
This course is run by the Department of Physics. The department’s facilities include:
The final assessment will be based on your performance in exams, coursework, a research project and, if required, in an oral exam.
What kind of jobs do Strathclyde Physics graduates get?
To answer this question we contacted some of our Physics graduates from all courses to find out what jobs they have. They are working across the world in a number of different roles including:
This course aims to provide a balance between theoretical, practical and biomedical skills, and develop your levels of critical enquiry. You will be encouraged to pursue creative approaches to contemporary research in biomedical science and communication through creative thinking, research methods, computer systems, case studies and practicals. You will evaluate how these various approaches can assist you in formulating your own experiments and research project, increasing your skill set and future employability.
This course has both full-time and part-time routes, comprising of three, 14-week semesters or five 14-week semesters, which you can take within one or three years respectively.
Teaching sessions include lectures, laboratory practicals, tutorials, guest lectures and guided reading. Lectures provide a thorough theoretical basis for the course subjects and are delivered by internationally recognised, research active staff. A variety of other teaching approaches including tutorials, case studies, and workshops reinforce theoretical knowledge and facilitate the development of individual and group based research and transferable skills.
Practical sessions demonstrate techniques and methods used in biomedicine, and provide an opportunity for you to learn complex experimental approaches and operate laboratory equipment. Guided reading will recommend key articles and other materials to help you learn. Guest expert seminars from clinicians and academics will provide insight into modern biomedical research.
The research project will enable you to start your own research and be part of active, internationally recognised research teams, where you will practice the application of relevant biomedical techniques and skills valuable for your future employment in biomedical sector.
Assessment is by a combination of written examinations, oral presentations, coursework, laboratory reports and submission of the dissertation.
We have newly refurbished and well-equipped teaching and research laboratories for practical work in molecular biology and biochemistry. State-of-the-art instrumentation includes cell culture facilities, FACS, MALDI-TOF mass spectrometry, FTIR and FTNMR spectroscopy, fluorescence spectroscopy and microscopy and scanning electron microscopy.
At the University of Salford we aim to produce graduates who meet the needs of their future employers: highly skilled practitioners and excellent communicators who are seeking to push the boundaries in the rapidly growing biomedicine sector.
Many of our biomedical science graduates are employed in roles such as research assistants and research laboratory technicians, across various sectors including clinical and research laboratories and pharmaceutical and biotechnology organisations. Some have gone on to pursue the field of education, working as lecturers and teachers in universities and schools.
A number of our graduates choose to continue their education by pursing PhD studies, with areas of research including microbiology, parasitology, medicinal chemistry, cancer and cell biology- to name a few! Furthermore, graduates of this course have been accepted into medical schools as students on completion of this degree.
Guest speakers provide a valuable contribution to the course, and bring a real world perspective to the academic delivery of the modules. The School of Environment and Life Sciences has a regular Postgraduate Research Seminar Series in which experts from outside the University share their knowledge and latest research findings. This Series not only augments scientific knowledge and progresses students’ understanding of effective science communication, it also allows for networking and the formation of valuable academic and industrial contacts.
There are over 50 fully research-active academic staff and a number of early career researchers engaged in a range of innovative research fields and in advancing the boundaries of theoretical investigation. Research in the School focuses on understanding disease processes and applying this information to understand pathology and develop new diagnostics and treatments. Research areas include microbiology, parasitology, medicinal chemistry, rational drug design, cancer, molecular endocrinology, pharmacology, physiology, immunology, proteomics, molecular diagnostics and cell biology. The School offers several fully funded Graduate Teaching Studentships for studying in these areas.