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Masters Degrees (Microfluidics)

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Have you ever wondered how the latest life science discoveries - such as a novel stem cell therapy - can move from the lab into commercial scale production?… Read more
Have you ever wondered how the latest life science discoveries - such as a novel stem cell therapy - can move from the lab into commercial scale production? Would you like to know whether it is possible to produce bio-polymers (plastics) and biofuels from municipal or agricultural waste? If you are thinking of a career in the pharma or biotech industries, the Biochemical Engineering MSc could be the right programme for you.

Degree information

Our MSc programme focuses on the core biochemical engineering principles that enable the translation of advances in the life sciences into real processes or products. Students will develop advanced engineering skills (such as bioprocess design, bioreactor engineering, downstream processing), state-of-the-art life science techniques (such as molecular biology, vaccine development, microfluidics) and essential business and regulatory knowledge (such as management, quality control, commercialisation).

Three distinct pathways are offered tailored for graduate scientists, engineers, or biochemical engineers. Students undertake modules to the value of 180 credits. The programme offers three different pathways (for graduate scientists, engineers, or biochemical engineers) and consists of core taught modules (120 credits) and a research or design project (60 credits).

Core modules for graduate scientists
-Advanced Bioreactor Engineering
-Bioprocess Synthesis and Process Mapping
-Bioprocess Validation and Quality Control
-Commercialisation of Bioprocess Research
-Fluid Flow and Mixing in Bioprocesses
-Heat and Mass Transfers in Bioprocesses
-Integrated Downstream Processing
-Mammalian Cell Culture and Stem Cell Processing

Core modules for graduate engineers
-Advanced Bioreactor Engineering
-Bioprocess Validation and Quality Control**
-Cellular Functioning from Genome to Proteome
-Commercialisation of Bioprocess Research
-Integrated Downstream Processing
-Mammalian Cell Culture and Stem Cell Processing
-Metabolic Processes and Regulation
-Structural Biology and Functional Protein Engineering
-Bioprocess Microfluidics*
-Bioprocess Systems Engineering*
-Bioprocessing and Clinical Translation*
-Cell Therapy Biology*
-Industrial Synthetic Biology*
-Sustainable Bioprocesses and Biorefineries*
-Vaccine Bioprocess Development*

*Core module for graduate biochemical engineers; **core module for both graduate engineers and graduate biochemical engineers

Research project/design project
All MSc students submit a 10,000-word dissertation in either Bioprocess Design (graduate scientists) or Bioprocess Research (graduate engineers and graduate biochemical engineers).

Teaching and learning
The programme is delivered through a combination of lectures, tutorials, and individual and group activities. Guest lectures delivered by industrialists provide a professional and social context. Assessment is through unseen written examinations, coursework, individual and group project reports, individual and group oral presentations, and the research or design project.

Careers

The rapid advancements in biology and the life sciences create a need for highly trained, multidisciplinary graduates possessing technical skills and fundamental understanding of both the biological and engineering aspects relevant to modern industrial bioprocesses. Consequently, UCL biochemical engineers are in high demand, due to their breadth of expertise, numerical ability and problem-solving skills. The first destinations of those who graduate from the Master's programme in biochemical engineering reflect the highly relevant nature of the training delivered.

Approximately three-quarters of our graduates elect either to take up employment in the relevant biotechnology industries or study for a PhD or an EngD, while the remainder follow careers in the management, financial or engineering design sectors.

Top career destinations for this degree:
-Mechanics of Material, Imperial College London
-PhD Biochemical Engineering, University College London (UCL)
-Bio-Pharmaceutical Engineer, GSK (GlaxoSmithKline)
-Associate Consultant, PwC
-Genetics Technician, Chinese Academy Of Sciences

Employability
The department places great emphasis on its ability to assist its graduates in taking up exciting careers in the sector. UCL alumni, together with the department’s links with industrial groups, provide an excellent source of leads for graduates. Over 1,000 students have graduated from UCL with graduate qualifications in biochemical engineering at Master’s or doctoral levels. Many have gone on to distinguished and senior positions in the international bioindustry. Others have followed independent academic careers in universities around the world.

Why study this degree at UCL?

UCL was a founding laboratory of the discipline of biochemical engineering, established the first UK department and is the largest international centre for bioprocess teaching and research. Our internationally recognised MSc programme maintains close links with the research activities of the Advanced Centre for Biochemical Engineering which ensure that lecture and case study examples are built around the latest biological discoveries and bioprocessing technologies.

UCL Biochemical Engineering co-ordinates bioprocess research and training collaborations with more than a dozen UCL departments, a similar number of national and international university partners and over 40 international companies. MSc students directly benefit from our close ties with industry through their participation in the Department’s MBI® Training Programme.

The MBI® Training Programme is the largest leading international provider of innovative UCL-accredited short courses in bioprocessing designed primarily for industrialists. Courses are designed and delivered in collaboration with 70 industrial experts to support continued professional and technical development within the industry. Our MSc students have the unique opportunity to sit alongside industrial delegates, to gain deeper insights into the industrial application of taught material and to build a network of contacts to support their future careers.

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Accredited by the the Institution of Chemical Engineers. Develop the essential skills for a career in bioindustry or for further advanced research in next-horizon biotechnologies. Read more

About the course

Accredited by the the Institution of Chemical Engineers

Develop the essential skills for a career in bioindustry or for further advanced research in next-horizon biotechnologies. You’ll learn from world-class researchers, including staff from Biomedical Science and Materials Science and Engineering. Our graduates work in biotechnology, biopharmaceutical and bioprocess organisations.

Take advantage of our expertise

Our teaching is grounded in specialist research expertise. Our reputation for innovation secures funding from industry,
UK research councils, the government and the EU. Industry partners, large and small, benefit from our groundbreaking work addressing global challenges.

You’ll have access to top facilities, including modern social spaces, purpose-built labs, the Harpur Hill Research Station for large-scale work, extensive computing facilities and a modern applied science library. There are high-quality research facilities for sustainable energy processes, safety and risk engineering, carbon capture and utilisation, and biological processes and biomanufacturing.

Studentships

Contact us for current information on available scholarships.

Course content

Four core modules including research project, a conversion module, and three optional modules.

Core modules

Biopharmaceutical Bioprocessing
Biosystems Engineering and Computational Biology
Bioanalytical Techniques
Research Project

Examples of optional modules

Any three from:

Microfluidics
Bio-energy
Synthetic Biology
Tissue Engineering Approaches to Failure in Living Systems
Bionanomaterials
Stem Cell Biology
Proteomics and Bioinformatics

Conversion modules:

Principles in Biochemical Engineering or
Principles in Biomolecular Sciences.

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Electronic technologies are now being applied to bio-molecular and biomedical research and the electronics industry is moving towards healthcare applications, e.g. Read more

Course Summary

Electronic technologies are now being applied to bio-molecular and biomedical research and the electronics industry is moving towards healthcare applications, e.g. Google Life Sciences and Panasonic Healthcare. Examples include microfluidic units mounted on mobile phones for point-of-care medical diagnostics. Learn how modern micro- and nanofabrication methods can be used to develop these biodevices and position yourself at this exciting new interface between electronic engineering and the life sciences.

Modules

Semester one: Microfabrication; Microfluidics and Lab-on-a-Chip; Bionanotechnology; Nanoelectronic Devices; Introduction to MEMS
Semester two: Nanofabrication and Microscopy; Biosensors; Biotechnology and Therapeutics; Molecular Recognition; Green Electronics; MEMS Sensors and Actuators; Practical Application of MEMS; Medical Electrical and Electronic Technologies; Photonics
Plus three-month independent research project culminating in a dissertation

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Electronic technologies have evolved enabling many new device concepts, fabrication methods and characterisation techniques. This has led to the simultaneous fabrication of micro scale mechanical structures with integrated electronics to form MicroElectroMechanical Systems (MEMS). Read more

Course Summary

Electronic technologies have evolved enabling many new device concepts, fabrication methods and characterisation techniques. This has led to the simultaneous fabrication of micro scale mechanical structures with integrated electronics to form MicroElectroMechanical Systems (MEMS). MEMS technology is becoming ubiquitous; it is the key enabling technology that will underpin the internet of things and the proliferation of smart technology in the world around us. You will gain an understanding of the techniques developed by the microelectronics industry to produce micron-scale mechanical devices such as accelerometers and micropumps on silicon wafers. You will work in research laboratories and in the cleanroom.

Modules

Semester one: Microfabrication; Introduction to MEMS; Microfluidics and Lab-on-a-Chip; Nanoelectronic Devices; Advanced Memory and Storage; Bionanotechnology

Semester two: MEMS Sensors and Actuators; Practical Application of MEMS; Green Electronics; Nanofabrication and Microscopy; Quantum Devices and Technology; Biosensors; Medical Electrical and Electronic Technologies

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Nanoelectronics and Nanotechnology includes scaling of commercially available logic and memory devices such as MOSFETs; SRAM; FLASH and hard disks drives… Read more

Course Summary

Nanoelectronics and Nanotechnology includes scaling of commercially available logic and memory devices such as MOSFETs; SRAM; FLASH and hard disks drives into the future in which these devices are only a few tens of nanometers long; the course includes the development of new materials and effects that exploit the inherent quantum mechanical nature of devices at that scale; students will learn about device operation, and also get a grounding in how to make and characterise these devices.

Modules

Semester one: Nanoelectronic Devices; Microfabrication; Advanced Memory and Storage; Introduction to MEMS; Microfluidics and Lab-on-a-Chip; Bionanotechnology

Semester two: Green Electronics; Nanofabrication and Microscopy; Quantum Devices and Technology; MEMS Sensors and Actuators; Practical Application of MEMS; Biosensors

Visit our website for further information...



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Mechanical engineering plays a role in nearly everything made by humans. From design to fabrication to final applications, mechanical engineers touch everything. Read more
Mechanical engineering plays a role in nearly everything made by humans. From design to fabrication to final applications, mechanical engineers touch everything.

Our program balances theory, design and laboratory experience in the areas of thermal fluids, mechanics, dynamic systems, design and materials. We aim to help students develop into leaders in the field. Students are eligible to specialize in any one of the following areas of emphasis:
- mechanics and design (with emphasis on solid mechanics/stress analysis, vibrations and simulation/control)
- materials (with emphasis on nanotechnology, microstructure/property relationships, thin films and materials processing)
- thermofluids (with emphasis on heat transfer, microfluidics and environmental/biological transport phenomena)

The master of science (MS) program provides a balance of advanced theory and practical knowledge necessary for either practice within the profession or advancement to a doctoral program.

The master of engineering (MEng) program prepares students for careers in professional practice through a flexible course selection and requires no thesis or project.

The PhD program prepares students for basic and applied research in mechanical engineering through multidisciplinary research areas reflective of the interests of ME faculty.

Recent doctoral graduate placements include: Caterpillar Inc., Universal Instruments, Corning Inc., General Electric Research, Apple, Electrolux.

All applicants must submit the following:

- Online graduate degree application and application fee
- Transcripts from each college/university you have attended
- Three letters of recommendation
- Personal statement (2-3 pages) describing your reasons for pursuing graduate study, your career aspirations, your special interests within your field, and any unusual features of your background that might need explanation or be of interest to your program's admissions committee.
- Resume or Curriculum Vitae (max. 2 pages)
- Official GRE scores

And, for international applicants:
- International Student Financial Statement form
- Official bank statement/proof of support
- Official TOEFL, IELTS, or PTE Academic scores

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Explore how engineering principles can be applied to biological challenges, work with the latest nanoscale applications, and learn about the innovations that are driving the world of nanotechnology. Read more
Explore how engineering principles can be applied to biological challenges, work with the latest nanoscale applications, and learn about the innovations that are driving the world of nanotechnology.

KEY LEARNING OUTCOMES

Through the master's degree in the field of bioengineering and nanotechnology you:
-Gain an understanding of emerging biomedical technologies, including microfluidics for cellular analysis, tissue regeneration, and the use of nanomaterial for drug delivery.
-Build experience in experimental or case study design, scientific data analysis, writing and communication, ethical practices, and effective collaboration.
-Develop knowledge in life science theory as it relates to biotechnology.

PROGRAM OVERVIEW

The degree includes nine courses—at least four taken on campus—and a thesis.
-Get started. You begin by completing three admission courses from the program curriculum. This is your opportunity to demonstrate your commitment and ability to perform well as a Harvard student.
-Apply to the program. While you are completing your third admission course, you may submit your application. We have application periods in the fall, spring, and summer.
-Continue your studies, online and on campus. As you progress through the program, you may choose from courses offered on campus or online, in the fall, spring, or summer. You are required to take at least four courses on campus as part of your degree.
-Complete your thesis. Working with a thesis director, you conduct in-depth research on a topic relevant to your work experience or academic interests, producing publishable quality results. You’ll emerge with a solid understanding of how scientific research is executed and communicated.
-Graduate with your Harvard degree. You participate in the annual Harvard Commencement, receiving your Harvard University degree: Master of Liberal Arts (ALM) in extension studies, field: Bioengineering and Nanotechnology.

COST

Affordability is core to our mission. Our 2016–17 graduate tuition is $2,550 per course; the total tuition cost of earning the graduate degree is approximately $25,500.

FINANCIAL SERVICES

The Student Financial Services staff can assist you in identifying funds that will help you meet the costs of your education. You can find more information here: http://www.extension.harvard.edu/tuition-enrollment/financial-aid

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