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Masters Degrees (Catalysis)

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Catalysis lies at the heart of many chemical processes, from living systems to large-scale industrial reactors. By understanding and applying catalysts, we can make processes faster, cleaner and more sustainable. Read more
Catalysis lies at the heart of many chemical processes, from living systems to large-scale industrial reactors. By understanding and applying catalysts, we can make processes faster, cleaner and more sustainable. Specialists in catalysis are particularly sought after in industry, as more efficient processes can lead to less waste and cost savings.

Our MSc in Catalysis will provide you with a sound foundation in catalysis theory and its applications. We will explore three branches of catalysis – heterogeneous, homogeneous and biological – and you will be given the opportunity to specialise in the area you are most interested in. You will be trained to use a range of laboratory equipment and techniques for testing and characterising catalysts.

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This master's degree provides students with in-depth theoretical knowledge of the field and new techniques in product synthesis, catalyst development, management of environment-friendly chemical processes, and computational design. Read more
This master's degree provides students with in-depth theoretical knowledge of the field and new techniques in product synthesis, catalyst development, management of environment-friendly chemical processes, and computational design. It is primarily research-oriented, so graduates will be able to undertake research, development and innovation in industry. The general objectives are the following:
i) To provide high-level scientific training in the fields of: molecular synthesis, catalysis and design, so that graduates can undertake doctoral studies and pursue a scientific or academic career.
ii) To provide graduates with a capacity for innovation and the necessary skills to synthesise sustainable chemical products and processes in the professional world.

The aims of the courseg are the following:
-To enable students to use synthetic methodologies and design ways of obtaining new products with the tools of computational chemistry.
-To familiarise students with modern techniques for characterising molecular compounds, surfaces and solids.
-To provide tools for understanding the most advanced principles and applications of catalysis.
-To train students to design chemical processes on a laboratory or industrial scale through channels that meet the standards of sustainability and environmental friendliness.
-To provide students who wish to undertake doctoral studies with more advanced, specific knlowledge relevant to their research: synthesis, catalysis or modelling.

Student Profile

This master's degree is designed for students who have an official university degree in chemistry, chemical engineering or a related science.

Career Opportunities

The University Master's degree in Synthesis, Catalysis and Molecular Design is primarily research-oriented but is suitable for students who wish to pursue a career in the manufacturing sector. It provides the following career opportunities:
-Doctoral studies.
-Leading sectors of production that have interdisciplinary research groups. The spectrum is broad, as most industrial processes require catalysts. However, the sectors with which the master's degree is most involved are fine chemicals in general: synthesis of intermediates, pharmaceutical chemistry, agricultural chemistry, plant protection products and synthesis of polymers and smart materials. Graduates will be able to design and develop new products and processes in chemical companies in general.

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Catalysis underpins a huge range of modern chemical transformations. From the megaton scale production of acetic acid to the polymers we use for plastics to automotive catalytic converters to key steps in pharmaceutical synthesis, the impact of catalysis upon our everyday life is enormous. Read more
Catalysis underpins a huge range of modern chemical transformations. From the megaton scale production of acetic acid to the polymers we use for plastics to automotive catalytic converters to key steps in pharmaceutical synthesis, the impact of catalysis upon our everyday life is enormous.

Companies such as BP, INEOS, Sasol, Johnson Matthey, Pfizer, AstraZeneca all have research and development facilities in the UK. Researchers from many of these companies will deliver taught elements of this course, and therefore the students will have the opportunity to learn from and network with future employers first hand.

Catalysis has traditionally been divided into homogenous (solution-based), heterogeneous (solid-liquid, solid-gas interface) and (reaction) engineering disciplines. However, this distinction is becoming increasingly blurred so this MRes course aims to provide students with a coherent overview of these areas.

At its conclusion students will be ideally placed to undertake PhD studies in collaborative research along the chemistry-engineering spectrum or to apply their knowledge in industry.

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If you have successfully graduated with a B.Sc. degree in Chemistry or Biochemistry and wish to expand your knowledge of the molecular sciences, then the two-year elite M.Sc. Read more

The program

If you have successfully graduated with a B.Sc. degree in Chemistry or Biochemistry and wish to expand your knowledge of the molecular sciences, then the two-year elite M.Sc. „Advanced Synthesis & Catalysis“ (SynCat) of the Network of Excellence Bavaria at the University of Regensburg will be the perfect match. The thematically focused curriculum taught in English offers tailored training courses, intensive seminars, research lab rotations, technical English courses (to C1 level) and funded industry and abroad placements. Synthesis and catalysis play decisive roles in the development of sustainable production methods, new functional materials and pharmaceuticals, and hold the key to the solution of modern societal challenges such as energy, nutrition, and health.

Benefits

SynCat offers free tuition, assistance with industrial and international research stays, a fellowship program and a student counseling and individual mentoring system. Successful graduates of SynCat are equipped with the best skills to pursue a challenging academic career or assume leadership positions in chemistry, materials, and health or energy businesses.

Modules

SYNTHESIS (SYN): the basic concepts of how to make complex molecules, functional materials, natural products, and drugs

CATALYSIS (CAT): modern aspects of catalyst preparation, characterization, and application to molecule synthesis in academic and industrial contexts

TECHNIQUES (TEC): basic lab methods and tools for the preparation and analysis of molecules

ADVANCED TECHNIQUES (A TEC): modern technologies and their applications in research and industry settings

RESEARCH EXCHANGE (RES EX): study off-campus, grow your skills abroad or in a company (funding available!)

CONCLUSION (CON): choose a specialization and train special techniques for a successful Master Thesis

MASTER THESIS (MAT): become a researcher and tackle a challenging task

Application

Applications for the winter term are being accepted until June 30th, for the summer term until January 31st. The assessment considers excellent transcript of records and extracurricular activities and involves a chemical problem set and an interview.

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There is a growing need by industry for staff trained in computational molecular sciences. Read more
There is a growing need by industry for staff trained in computational molecular sciences. This new multidisciplinary MSc will teach simulation tools used in a wide range of applications, including catalysis and energy materials, nanotechnology and drug design, and will provide skills transferable to other fields, thereby broadening employment prospects.

Degree information

Students will gain detailed knowledge and skills in molecular modelling, focusing on the state-of-the art simulation techniques employed to research the molecular level properties that determine the macroscopic behaviour of matter. They will also gain key research skills and will learn the basic concepts in business and entrepreneurship as applied to high-tech industries.

Students undertake modules to the value of 180 credits. The programme consists of two core modules (45 credits), three optional module (45 credits) and a research project (90 credits).

Core modules - students take the two modules listed below (45 credits) and submit a research dissertation (90 credits).
-Simulation Methods in Materials Chemistry
-The Scientific Literature

Optional modules - students take 45 credits drawn from the following:
-Mastering Entrepreneurship
-Numerical Methods in Chemistry
-Researcher Professional Development
-Transferable Skills for Scientists
-Choice of one postgraduate lecture module at UCL

Dissertation/report
All students undertake a computational research project which culminates in a substantial dissertation of approximately 10,000 to 12,000 words.

Teaching and learning
The programme is delivered through a combination of lectures, seminars and laboratory classes. Assessment is through unseen examination, coursework, individual and group projects, poster creation, presentation and the research project.

Careers

There are increasing career opportunities in the field of molecular modelling in sectors including sustainable energy, catalysis, nanotechnology, biomedical materials and pharmaceuticals. This MSc will train students in the skills necessary for future employment in the industrial and public sector communities, together with specific training in career development and transferable skills.

The majority of students on the programme have moved on to PhD study.

Top career destinations for this degree:
-Chemistry, University College London (UCL)

Employability
The training provided by this program will enable the student to enter into a wide range of fields. Students may continue in academia to complete a PhD or pursue teaching as a profession. Students with the skills obtained during this study are highly sought after by the industrial sector, including IT, sustainable energy, catalysis, nanotechnology, biomedical materials and pharmaceuticals. Students are very likely to be welcome in the financial sector.

Why study this degree at UCL?

UCL Chemistry has a world-leading position in molecular modelling research.

Molecular modelling techniques are having increasing impact in the industrial sector, as evidenced by the partnership between UCL's Industrial Doctorate Centre in Molecular Modelling and Materials Science and a range of national and international industrial sponsors.

This multidisciplinary programme offers a wide range of options, thereby enabling each student to tailor the programme to their own needs and interests.

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Pursuing a research degree at the School of Chemistry could be one of the best experiences of your life. Read more

Research profile

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.

Synthesis

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.

Materials Chemistry

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.

Training and support

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.

Facilities

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.

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The Advanced Process Engineering programme advances students’ knowledge in process engineering by focusing on an in-depth understanding of the fundamentals of key chemical and industrial processes and on their application and translation to practice. Read more
The Advanced Process Engineering programme advances students’ knowledge in process engineering by focusing on an in-depth understanding of the fundamentals of key chemical and industrial processes and on their application and translation to practice.

You will encounter the latest technologies available to the process industries and will be exposed to a broad range of crucial operations. Hands-on exposure is our key to success.

The programme uses credit accumulation and offers advanced modules covering a broad range of modern process engineering, technical and management topics.

Core study areas include applied engineering practice, downstream processing, research and communication, applied heterogeneous catalysis and a research project.

The research project is conducted over two semesters and involves individual students working closely with a member of the academic staff on a topic of current interest. Recent examples, include water purification by advanced oxidation processes, affinity separation of metals, pesticides and organics from drinking water, biodiesel processing and liquid mixing in pharmaceutical reactors.

See the website http://www.lboro.ac.uk/study/postgraduate/programmes/departments/chemical/advanced-process-engineering/

Programme modules

Compulsory Modules
Semester 1:
- Applied Engineering Practice
- Downstream Processing
- Research and Communication

Semester 2:
- Applied Heterogeneous Catalysis

Semester 1 and 2:
- MSc Project

Optional Modules (select four)
Semester 1:
- Chemical Product Design
- Colloid Engineering and Nano-science
- Filtration
- Hazard Identification and Risk Management

Semester 2:
- Mixing of Fluids and Particles
- Advanced Computational Methods for Modelling

Careers and further study

Our graduates go on to work with companies such as 3M, GE Water, GL Noble Denton, GSK, Kraft Food, Tata Steel Group, Petroplus, Shell, Pharmaceutical World and Unilever. Some students further their studies by enrolling on a PhD programme.

Why choose chemical engineering at Loughborough?

The Department of Chemical Engineering at Loughborough University is a highly active, research intensive community comprising 21 full time academic staff, in addition to research students, postdoctoral research fellows and visitors, drawn from all over the world.

Our research impacts on current industrial and societal needs spanning, for example, the commercial production of stem cells, disinfection of hospital wards, novel drug delivery methods, advanced water treatment and continuous manufacturing of pharmaceutical products.

- Facilities
The Department has excellent quality laboratories and services for both bench and pilot scale work, complemented by first-rate computational and IT resources, and supported by mechanical and electronic workshops.

- Research
The Department has a strong and growing research programme with world-class research activities and facilities. Given the multidisciplinary nature of our research we work closely with other University departments across the campus as well as other institutions. The Departments research is divided into six key areas of interdisciplinary research and sharing of expertise amongst groups within the Department is commonplace.

- Career Prospects
The Department has close working relationships with AstraZeneca, BP, British Sugar, Carlsberg, E.ON, Exxon, GlaxoSmithKline, PepsiCo and Unilever to name but a few of the global organisations we work with and employ our graduates.

Find out how to apply here http://www.lboro.ac.uk/study/postgraduate/programmes/departments/chemical/advanced-process-engineering/

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The School of Chemistry is a vibrant centre of research in chemistry. We have an international reputation in a wide range of fields from catalysis to anticancer drug design and molecular photonics to nanotechnology. Read more
The School of Chemistry is a vibrant centre of research in chemistry. We have an international reputation in a wide range of fields from catalysis to anticancer drug design and molecular photonics to nanotechnology.

Research in the School of Chemistry is organised into the following groups:

Medicinal Chemistry and Chemical Biology

Our strength in medicinal chemistry is evident through our track record of successful research. This has included the discovery of drugs that have progressed to clinic. We have core capacity in:
-Anti-cancer drug discovery
-Biomolecular imaging
-Computational chemistry
-Chemical biology

Nanoscience and Materials

Our research develops new methods to synthesise, characterise and improve our understanding of materials. We focus on materials with useful nanoscale properties.

Photonic Materials

Photonic materials refer to systems that respond to stimulation by light. These can range from single molecules to intricate architectures and molecular devices. Many systems focus on:
-Converting sunlight into chemical potential
-The concentration of excitonic energy.

We focus on understanding fundamental principles by using spectroscopic examination.

Structure and Dynamics

Structure underpins the majority of research in chemistry, biology and materials science. The trouble is, the world is dynamic and not static. This means that understanding how structures evolve during a chemical reaction is critical. Our research relates to fundamental and applied research fields over broad time ranges.

Synthesis, Reactivity and Catalysis

This research group combines the expertise of organic and inorganic chemists. Our research aims to advance fundamental knowledge and capabilities in synthesis and reactivity. We focus on the elements s, p, d and f blocks across the periodic table. Through this study we can develop new and improved materials and catalytic processes.

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The Molecular Modelling and Materials Science MRes programme provides training in the key area of the application of state-of-the-art computer modelling and experimental characterisation techniques to determine the structure, properties and functionalities of materials and complex molecules. Read more
The Molecular Modelling and Materials Science MRes programme provides training in the key area of the application of state-of-the-art computer modelling and experimental characterisation techniques to determine the structure, properties and functionalities of materials and complex molecules.

Degree information

The programme provides specific training in molecular modelling methods and structure determination and characterisation techniques applicable to the materials sciences, together with tuition in research methods and the use of literature sources. The taught modules cover both specialist scientific topics and general project management and professional skills training relevant to the industrial environment.

Students undertake modules to the value of 180 credits.

The programme consists of two core modules (45 credits), two optional modules (30 credits) and a research project (105 credits).

Core modules - students take both modules listed below (45 credits) and submit a research dissertation (105 credits).
-Simulation Methods in Materials Chemistry
-The Scientific Literature

Optional modules - students take 30 credits drawn from the following:
-Researcher Professional Development
-Mastering Entrepreneurship
-Transferable Skills for Scientists
-Numerical Methods

Dissertation/report
All students undertake an independent research project which culminates in a substantial dissertation of approximately 12,000 to 15,000 words, and an oral presentation.

Teaching and learning
The programme is delivered through a combination of lectures, tutorials, practical classes and seminars. Assessment is through unseen examination, presentation, coursework and the research project.

Careers

This MRes provides the ideal foundation for employment in a range of industries or further doctoral research, with increasing career opportunities in sectors including sustainable energy, catalysis, nanotechnology, biomedical materials and pharmaceuticals.

Top career destinations for this degree:
-PhD Chemistry, The University of Oxford
-Engineer, Mohan Boiler and Fraser Vessel Inspection Institute
-PhD Nanomaterials, University College London (UCL)
-Phd Physics, University College London (UCL)
-PhD Chemistry, Technische Universität Berlin (Technical Universit

Employability
The training provided by this program will enable the student to enter into a wide range of fields. Students may continue in academia to complete a PhD or pursue teaching as a profession. Students with the skills obtained during this study are highly sought after by the industrial sector, including IT, sustainable energy, catalysis, nanotechnology, biomedical materials and pharmaceuticals. Students are very likely to be welcome in the financial sector.

Why study this degree at UCL?

UCL Chemistry's interests and research activities span the whole spectrum of chemistry from the development of new drugs to the prediction of the structure of new catalytic materials.

This programme was established by the Engineering and Physical Sciences Research Council in response to the needs of industry for highly qualified research leaders with industrial experience and it provides for significant collaboration between academic institutions and industry.

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The MPhil and PhD programmes in Chemical Engineering attract students from diverse disciplinary backgrounds such as statistics, maths, electrical engineering, chemistry and physics. Read more
The MPhil and PhD programmes in Chemical Engineering attract students from diverse disciplinary backgrounds such as statistics, maths, electrical engineering, chemistry and physics. You may work on multidisciplinary research projects in collaboration with colleagues across the University or from external organisations.

Research in the School of Chemical Engineering and Advanced Materials is cross-disciplinary and our strategy is to ensure that our research groups grow and provide a balanced portfolio of activities for the future. This is achieved in part through MPhil and PhD supervision.

Advanced materials

Every article, instrument, machine or device we use depends for its success upon materials, design and effective production. We work on a wide range of materials topics including:
-New material development
-Optimising of materials processing
-Testing and evaluation at component scale and at high spatial resolution
-Modelling
-Failure analysis

Much of our work relates to materials and processes for renewable energy generation, energy efficiency, carbon capture and storage. We also use biological and bio-inspired processes to develop new functional materials.

The Group Head is Professor Steve Bull, Cookson Group Chair of Materials Engineering – high spatial resolution mechanics. His research focuses on development and testing of compliant and porous materials, and the use of sustainable materials. Professor Bull is the 2013 recipient of the Tribology Silver Medal presented by the Tribology Trust, the top national award in this area.

Electrochemical engineering science

Electrochemical Engineering Science (EES) arose out of the pioneering fuel cell research at Newcastle in the 1960s. We are continuing this research on new catalyst and membrane materials, optimising electrode structures and developing meaningful fuel cell test procedures.

We are investigating electrochemical methods for surface structuring, probing and testing at the micron and nanoscale. More recently, we have been using electrochemical analysis to understand cellular and microbial catalysis and processes.

Applications of our research are in:
-Energy production and storage
-Micro and nanoscale device fabrication
-Medical and health care applications
-Corrosion protection

The Group Head is Professor Sudipta Roy. Professor Roy's research focuses on materials processing, micro/nano structuring and corrosion.

Process intensification

Process intensification is the philosophy that processes can often be made smaller, more efficient and safer using new process technologies and techniques, resulting in order of magnitude reductions in the size of process equipment. This leads to substantial capital cost savings and often a reduction in running costs.

The Group Head is Professor Adam Harvey. Professor Harvey's research focuses on Oscillatory Baffled Reactors (OBRs), biofuel processing and heterogeneous catalysis.

Process modelling and optimisation

Our goal is to attain better insight into process behaviour to achieve improved process and product design and operational performance. The complexity of the challenge arises from the presence of physiochemical interactions, multiple unit operations and multi-scale effects.

Underpinning our activity is the need for improved process and product characterisation through the development and application of process analytical techniques, hybrid statistical and empirical modeling and high throughput technologies for chemical synthesis.

The Group Head is Professor Elaine Martin. Professor Martin's research focuses on Process Analytical Technologies, Statistical and Empirical Process Data Modelling, and Process Performance Monitoring.

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The MPhil is offered by the Department of Chemistry as a full-time period of research and introduces students to research skills and specialist knowledge. Read more
The MPhil is offered by the Department of Chemistry as a full-time period of research and introduces students to research skills and specialist knowledge. Students are integrated into the research culture of the Department by joining a research group, supervised by one of our academic staff, in one of the following areas of Chemistry:

Biological:

with a focus on enzymes, nucleic acids, protein folding and misfolding, and physical techniques; with relevance to health and disease, drug discovery, sensors, nanotechnology, ageing and energy research applications.

Materials Chemistry:

including surfaces, interfaces, polymers, nanoparticles and nanoporous materials, self assembly, and biomaterials, with applications relevant to: oil recovery and separation, catalysis, photovoltaics, fuel cells and batteries, crystallization and pharmaceutical formulation, gas sorption, energy, functional materials, biocompatible materials, computer memory, and sensors.

Physical Chemistry:

including atmospheric sciences, surfaces and interfaces, materials, and physical and chemical aspects of the behaviour of biopolymers and other soft systems.

Synthetic Chemistry:

including complex molecule synthesis, synthetic catalysis, synthetic assembly, synthetic biology and medicine, new technology for efficient synthesis, green synthesis, and preparation of new materials.

Theory, Modelling and Informatics:

including quantum dynamics, modelling soft materials, protein folding and binding, biomolecules in motion, pharmacological activity, molecular switches, redox chemistry, designing bioactive molecule and drugs, chemical biology, crystallography, and simulation of spectroscopic studies.

Potential supervisors and their area of research expertise may be found at Department of Chemistry (Research): http://www.ch.cam.ac.uk/research

Visit the website: http://www.graduate.study.cam.ac.uk/courses/directory/pcchmpmch

Course detail

Educational aims of the MPhil programme:

- to give students with relevant experience at first degree level the opportunity to carry out focussed research in the discipline under close supervision; and

- to give students the opportunity to acquire or develop skills and expertise relevant to their research interests and a broader set of transferable skills.

Learning Outcomes

By the end of the programme, students will have:

- a comprehensive understanding of techniques, and a thorough knowledge of the literature, applicable to their own research;
- demonstrated originality in the application of knowledge, together with a practical understanding of how research and enquiry are used to create and interpret knowledge in their field;
- shown abilities in the critical evaluation of current research and research techniques and methodologies;
- demonstrated some self-direction and originality in tackling and solving problems, and acted autonomously in the planning and implementation of research.

Format

The MPhil involves minimal formal teaching. Students may attend the Department's programme of research seminars and other graduate courses, including the Transferable Skills programme that forms part of the PhD programme. Informal opportunities to develop research skills also exist through mentoring and other opportunities by fellow students and members of staff. However, most research training is provided within the research group structure and all students are assigned a research supervisor.

All graduate students receive termly reports written by their supervisors.

Assessment

The scheme of examination for the MPhil in Chemistry shall consist of a thesis, of not more than 15,000 words in length, exclusive of tables, footnotes, bibliography, and appendices, on a subject approved by the Degree Committee for the Faculty of Physics and Chemistry, submitted for examination at the end of 11 months. The examination shall include an oral examination on the thesis and on the general field of knowledge within which it falls. The thesis shall provide evidence to satisfy the Examiners that a candidate can design and carry out investigations, assess and interpret the results obtained, and place the work in the wider perspectives of the subject.

Continuing

The Department offers a PhD in Chemistry course and MPhil students can apply to continue as a graduate student on this course.

MPhil students currently studying a relevant course at the University of Cambridge will need to pass their MPhil course (if examined only by thesis) or obtain a minimum merit (if there is a marked element) in order to be eligible to continue onto the PhD in Chemistry.

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

Funding Opportunities

There are no specific funding opportunities advertised for this course. For information on more general funding opportunities, please follow the link below.

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

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The School of Chemistry is one of the largest in the UK and an internationally recognised centre of teaching and research. Currently there are over 250 postgraduate and postdoctoral researchers, from many different countries, working with more than 60 academic staff on a wide range of research themes. Read more
The School of Chemistry is one of the largest in the UK and an internationally recognised centre of teaching and research. Currently there are over 250 postgraduate and postdoctoral researchers, from many different countries, working with more than 60 academic staff on a wide range of research themes. Extensive collaborations with science-based industries and leading international academic centres ensure that research in Bristol remains at the frontier of science.

The School of Chemistry is housed in spacious, modern laboratories, which are well equipped with state-of-the-art facilities. There is a comprehensive graduate programme to ensure you have the opportunity to build a wide range of skills, both in chemistry and other transferable skills.

The School of Chemistry hosts or participates in a number of Centres for Doctoral Training (CDTs) and Doctoral Training Partnerships (DTPs). Training opportunities in these national flagship centres are available in the following disciplines:
-Chemical synthesis
-Functional nanomaterials
-Catalysis
-Theory and modelling in chemical sciences
-Science and technology of diamond
-Synthetic biology
-Advanced composites
-Earth and environmental sciences
-Quantum engineering
-Future autonomous and robotic systems
-Bioscience
-Condensed matter physics

Research groups

The School of Chemistry maintains a traditional managerial structure with three sections, namely Inorganic and Materials, Organic and Biological, and Physical and Theoretical. However, the school’s research profile is defined according to nine themes, each with a critical mass of researchers. Further information on the school's research profile can be found at Explore Bristol Research (http://research-information.bristol.ac.uk/).

-Atmospheric and Global Change Chemistry
-Biological and Archaeological Chemistry
-Catalysis
-Computational and Theoretical Chemistry
-Materials for Energy
-Soft Matter, Colloids and Materials
-Spectroscopy and Dynamics
-Supramolecular and Mechanistic Chemistry
-Synthesis

Researchers in the School of Chemistry are engaged in a number of collaborative centres and research institutes, with broader engagement from researchers across the Faculty of Science, the University and beyond.

Careers

Many of our PhD graduates are successful in securing postdoctoral positions at universities in the UK and abroad. A PhD in chemistry is valued in many employment sectors worldwide, including pharmaceutical sciences, polymers, coatings, agrochemicals, instrumentation manufacturers and management consultancy. Your skills will be in high demand from the chemical and allied industries, as well as the public sector.

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The first course of its kind to be accredited by the Royal Society of Chemistry, this taught Masters course is designed to equip you with the necessary skills in green chemistry and green chemical technology to prepare you for a range of different careers in research, process development, environmental services, manufacturing, law, consultancy and government. Read more
The first course of its kind to be accredited by the Royal Society of Chemistry, this taught Masters course is designed to equip you with the necessary skills in green chemistry and green chemical technology to prepare you for a range of different careers in research, process development, environmental services, manufacturing, law, consultancy and government.

Course Content

The MSc is a one year full time course consisting of taught material and a substantial research project. Teaching is delivered by academic experts within the Department of Chemistry as well as external experts from other academic institutions and industry. The Teaching component of the course is delivered via a mix of lectures, workshops, seminars and practical work. You will learn about the key principles of green chemistry and the importance of sustainable technology in a variety of areas. In addition to this, you will also have the opportunity to enhance your transferable skills.

Assessment methods include a closed examination, written assignments, presentations, posters and practical work.

Our Students

The MSc course has been running for over ten years over which time there has been a large increase in the range of nationalities represented. The content of the course is globally relevant and so attracts applications from around the world from people keen to develop their own knowledge to pass on when they return to their home country. Students have an opportunity not only to benefit from the degree that will aid them in their future career in industry or elsewhere but also to experience the cultural and social attractions that the university and the city can offer.

Students who have previously studied the MSc programme have come from France, Spain, Ireland, Tanzania, Nigeria, Oman, Thailand, Malta, Lithuania, Brunei, China and Malaysia to name but few – the full range can be seen on the map below. The diversity of our students enriches the cultural experience for all members of the group.

Career Destinations

The course will be of benefit to students who wish to follow a range of career paths including those in chemistry-based industries:
-Speciality chemical and associated manufacturing industries
-Fine chemical and associated manufacturing industries
-Catalyst development
-Pharmaceutical industry in either a research or process-development role
-Chemical formulation
-Chemical user companies along the entire supply chain including retail
-Government departments and science laboratories
-University academic career
-University research career, in particular as a route to PhD research
-Environmental monitoring and evaluation
-Legal services and other organisations

Research Project

A key part of the MSc in Green Chemistry is the research project. The whole course is 180 credits and the research project accounts for 100 of these so is a very significant part of the programme.

Students are able to choose from a range of project areas in order to carry out research in their area of interest. Projects will be supervised by an academic member of staff, and may also involve collaboration with industry. Projects are chosen in the early stages of the course and you will be allocated to a PAG - Project Area Group - that corresponds with larger research projects that are currently taking place within the Green Chemistry Centre.

Projects can vary each year, but examples of recent MSc students' research includes:
-Production of natural flavours and fragrances using biocatalysis in scCO2
-Clean synthetic strategies for production of pharmaceuticals
-Extraction and utilisation of high value chemicals from food waste
-Starbon technology for catalysis
-Microwave assisted pyrolysis of wood pellets
-Bio-derived platform molecules

The research project module is assessed by a substantial written report by each student, a PAG report and an oral presentation on your individual research.

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The Dutch Master's Selection Guide (Keuzegids Masters 2016) ranked Utrecht University's Nanomaterials Science programme as the best in the field of Chemistry in the Netherlands. Read more

Nanomaterials Science Judged Best in the Field

The Dutch Master's Selection Guide (Keuzegids Masters 2016) ranked Utrecht University's Nanomaterials Science programme as the best in the field of Chemistry in the Netherlands.
Students chose the Master's programme Nanomaterials Science at Utrecht University as the best programme in the field in the yearly review 'Beste studies' by Elsevier.

Functional materials, organic and inorganic, play an important role in much of modern physics, chemistry and technology.

In this field there is an obvious trend towards systems which operate on the nanoscale. This includes the exciting areas of nanoscience, nanotechnology and catalysis: the fundamental units such as macromolecules, quantum structures and catalysts have dimensions on the nanometre scale. The challenges in this area of science include:
* the synthesis of functional units and their manipulation to form novel and 'artificial' solids;
* the study of fundamental processes in (nano)structured systems and the development of theory and models to explain new phenomena;
* the elucidation of structure-property relations;
* materials engineering and the application of materials in improved and novel devices.
* the elucidation of structure-property relations;
* materials engineering and the application of materials in improved and novel devices.

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Biotechnology is the exploitation of living systems or molecules from them for commercial gain. Although the word 'biotechnology' is only a few decades old, humankind has been using biotechnology for millennia, for example in baking, brewing and sewage treatment. Read more
Biotechnology is the exploitation of living systems or molecules from them for commercial gain. Although the word 'biotechnology' is only a few decades old, humankind has been using biotechnology for millennia, for example in baking, brewing and sewage treatment.

Modern biotechnologies rely on our increasing ability to manipulate organisms at the genetic level and include novel waste treatments and bioremediations, new pharmaceuticals, the exploitation of enzymes in 'green catalysis' and exciting new diagnostic techniques. In the 20th century our lives were transformed by information technology; the 21st century may see an equally great transformation, but this time led by biotechnology.

This Masters degree aims to teach the fundamental molecular bioscience underpinning biotechnology along with examples of its current applications.

PROGRAMME CONTENT
This MSc is taught by research-active staff members in the School of Biological Sciences. In addition, fundamental biological research skills are taught and students are given an understanding of bio-entrepreneurship. The degree culminates in a three-month, intensive research project in a laboratory in Queen's, thus preparing graduates for a career in research biotechnology.

Modules:
- Bio-entrepreneurship
- Biotechnology
- Foundations for Research in the Biosciences
- Literature Review
- Nucleic Acid Structure and Function
- Protein Structure and Function
- Research Project (triple module)

CAREER PROSPECTS
This Masters degree equips students with the necessary skills to enter either PhD programmes or employment directly in the global biotechnology industry.

Queen's postgraduates reap exceptional benefits. Unique initiatives, such as Degree Plus and Researcher Plus bolster our commitment to employability, while innovative leadership and executive programmes alongside sterling integration with business experts helps our students gain key leadership positions both nationally and internationally.

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