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See the department website - http://www.rit.edu/kgcoe/program/microelectronic-engineering-0. Read more
See the department website - http://www.rit.edu/kgcoe/program/microelectronic-engineering-0

The objective of the master of science degree in microelectronic engineering is to provide an opportunity for students to perform graduate-level research as they prepare for entry into either the semiconductor industry or a doctoral program. The degree requires strong preparation in the area of microelectronics and requires a thesis.

Program outcomes

- Understand the fundamental scientific principles governing solid-state devices and their incorporation into modern integrated circuits.

- Understand the relevance of a process or device, either proposed or existing, to current manufacturing practices.

- Develop in-depth knowledge in existing or emerging areas of the field of microelectronics, such as device engineering, circuit design, lithography, materials and processes, and yield and manufacturing.

- Apply microelectronic processing techniques to the creation/investigation of new process/device structures.

- Communicate technical material effectively through oral presentations, written reports, and publications.

Plan of study

The MS degree is awarded upon the successful completion of a minimum of 33 semester credit hours, including a 6 credit hour thesis.

The program consists of eight core courses, two graduate electives, 3 credits of graduate seminar and a thesis. The curriculum is designed for students who do not have an undergraduate degree in microelectronic engineering. Students who have an undergraduate degree in microelectronic engineering develop a custom course of study with their graduate adviser.

- Thesis

A thesis is undertaken once the student has completed approximately 20 semester credit hours of study. Planning for the thesis, however, should begin as early as possible. Generally, full-time students should complete their degree requirements, including thesis defense, within two years (four academic semesters and one summer term).

Curriculum

- First Year

Microelectronic Fabrication
Lithographic Materials and Processes
Thin Films
Microelectronics Research Methods
Microelectronic Man.
VLS Process Modeling
Graduate Elective*
Microelectronics Research Methods

- Second Year

Graduate Elective*
MS Thesis
Microelectronics Research Methods

* With adviser approval.
Physical Modeling of Semiconductor Devices

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Explore the latest electrical engineering and process control techniques through this Masters in Microelectronic Systems Design. This postgraduate course is accredited by IET and meets Chartered Engineer status. Read more
Explore the latest electrical engineering and process control techniques through this Masters in Microelectronic Systems Design. This postgraduate course is accredited by IET and meets Chartered Engineer status.

•Complete this masters degree in one year (full time)
•Accredited by the Institution of Engineering and Technology (IET), the course meets Chartered Engineer status requirements
•Study at one the UK’s leading Engineering Schools
•Programme informed by internationally-acclaimed research
•Close industry links
•Excellent career opportunities in roles such as system designers, analysts, and senior engineers in the fields of electrical engineering, process control, and related industries

This Masters course will equip you with the technical and management skills you need to progress to senior professional positions, specialising in the design, fabrication and testing of microelectronic devices.

You will study the fundamental principles that drive future developments in microelectronics. We offer the opportunity to develop the critical, analytical and experimental skills to solve practical problems and work at the cutting edge of this rapidly developing field.

You’ll learn how to critically analyse designs, their functionality and expected reliability and it will also be important for you to gain a strong understanding of the capabilities and limitations of modelling and simulation tools.

The programme design provides opportunities to practice communication skills at Chartered Engineer level. You’ll gain sought after professional behavioural traits to prepare you for technical and management roles in microelectrical system design.

You will also undertake an individual project giving the opportunity to focus on your area of interest, working with our world-leading researchers.

Please see guidance below on core and option modules for further information on what you will study.
Level 7
Dynamic systems simulation
Microelectronic systems design
VLSI devices, fabrication and testing
Embedded systems
VLSI design
Research skills
Modelling with Matlab and Simulink
MSc project
Advanced single processing
Operations research
Safety and reliability
Project management
Programming for engineering
LabVIEW
Professional and leadership skills

Further guidance on modules

The information listed in the section entitled ‘What you will study’ is an overview of the academic content of the programme that will take the form of either core or option modules. Modules are designated as core or option in accordance with professional body requirements and internal Academic Framework review, so may be subject to change. Students will be required to undertake modules that the University designates as core and will have a choice of designated option modules. Additionally, option modules may be offered subject to meeting minimum student numbers.

Academic Framework reviews are conducted by LJMU from time to time to ensure that academic standards continue to be maintained. A review is currently in progress and will be operational for the academic year 2016/2017. Final details of this programme’s designated core and option modules will be made available on LJMU’s website as soon as possible and prior to formal enrolment for the academic year 2016/2017.

Please email if you require further guidance or clarification.

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This course is designed for students from a variety of engineering backgrounds, to enhance and develop electronic engineering knowledge and skills essential for the modern engineer. Read more
This course is designed for students from a variety of engineering backgrounds, to enhance and develop electronic engineering knowledge and skills essential for the modern engineer.

You will gain expertise and experience in the areas of analogue and digital systems and circuit design using state-of-the-art software and processors. You will gain the in-depth knowledge and skills you need for analysing, modelling and optimising the performance of advanced microelectronic and communication systems. The course covers a broad range of topics including advanced embedded system technologies, digital design automation and silicon electronic design, as well as optical fibre communication systems and wireless communications.

This course can also be taken in January - for more information, please view this web-page: https://www.northumbria.ac.uk/study-at-northumbria/courses/microelectronic-and-communication-engineering-msc-ft-dtfmiz6/

Learn From The Best

Our passion for research informs the curriculum and impacts our teaching, ensuring that course content stays current and our academic staff are amongst the best in the country. The team include published authors and industry experts with research interests including analogue electronics, networking, professionalism in practice, teaching and learning in technology and project management.

The department of Physics and Electrical Engineering is a top-35 research department with 79% of our outputs ranked world-leading or internationally excellent according to the 2014 UK wide Research Excellence Framework. This places us in the top quartile for world-leading publications among UK universities in General Engineering.

Teaching And Assessment

Your progress will be monitored by lecturing staff and advice and appropriate links supplied to improve your learning. Web links are provided for further reading whilst online videos, where appropriate, are available for you to review taught material in your own time. Lecture material is enhanced with laboratory sessions which allow demonstration of theories and exploration of practical problems and limitations.

As a postgraduate student you will be expected to have a responsible and professional approach to learning, accessing the material and support provided and raising any problems with academic staff or your programme leader. You will have an opportunity to take an active role in the operation and content of the course via the departmental programme committee.

Module Overview
KD7019 - Advanced Embedded System Design Technology (Core, 20 Credits)
KD7020 - Digital Design Automation (Core, 20 Credits)
KD7063 - Wireless Communication Systems (Core, 20 Credits)
KD7064 - Optical Communications System (Core, 20 Credits)
KD7065 - MSc Engineering Project (Core, 60 Credits)
KD7066 - Analogue Electronic Design (Core, 20 Credits)
KD7067 - Engineering Research and Project Management (Core, 20 Credits)

Learning Environment

Whether your subject matter is renewable energy, astrophysics or communications, our range of specialist and general use facilities will support you. Throughout your work you will be able to measure, explore, experiment and model developments that are changing the way we all live our lives.

Technology to enhance learning in engineering is embedded throughout the programme. This takes the form of self-guided exercises, online tests with feedback, assessment feedback and videos and tutorials to support lectures. Self-development and employability are enhanced throughout the programme, especially with respect to communicating ideas in written and oral forms, the use of appropriate IT tools, personal time management, problem solving and independent learning skills.

Research-Rich Learning

Our course is at the forefront of current knowledge and practice, shaped by world-leading and internationally excellent research. All the modules are industry or research informed, based upon academic staff industrial experience, consultancy or personal research interests. This allows the knowledge and skills that you will acquire to meet the need and practical application for real world scenarios.

The course is supported by a team of academics who are highly respected by research groups around the world and who make a significant contribution to the faculty and University vision for the future of research within the higher education sector.

Give Your Career An Edge

A strong industrial and research based curriculum enhances your employability by considering real world scenarios in which known solutions are absent. You will be encouraged to research information from professional publications, company literature, etc. to determine innovative and appropriate solutions to these scenarios, enabling you to demonstrate relevant industry practice.

You will also be attached to one of the departmental or faculty research groups for your final dissertation, exposed to and incorporated into a working team and environment. This provides the opportunity for both work-related learning experience and professional career development.

Your Future

The rapid growth of the communications and microelectronics industries has created a strong demand for skilled engineers, who are able to design and manufacture semiconductors and freespace and optical communication systems. The UK Government’s commitment to high-speed broadband means that demand for communications engineers is expected to outstrip supply. UK and international demand for microelectronic engineers remains strong, with salaries reflecting employers’ need to attract the best candidates.

Upon graduation, you will be well-equipped to apply for roles such as communications engineer, electronic/electrical engineer, operational researcher, software engineer and systems developer. You may also consider the wider engineering and information technology sectors, including energy, transport, electronics and telecommunications, defence and manufacturing and engineering management.

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This course is designed for students from a variety of engineering backgrounds, to enhance and develop electronic engineering knowledge and skills essential for the modern engineer. Read more
This course is designed for students from a variety of engineering backgrounds, to enhance and develop electronic engineering knowledge and skills essential for the modern engineer.

You will gain expertise and experience in the areas of analogue and digital systems and circuit design using state-of-the-art software and processors. You will gain the in-depth knowledge and skills you need for analysing, modelling and optimising the performance of advanced microelectronic and communication systems. The course covers a broad range of topics including advanced embedded system technologies, digital design automation and silicon electronic design, as well as optical fibre communication systems and wireless communications.

In the second year, for one semester, you’ll undertake an internship, study in another country or join a research group. This valuable experience will enhance your employability and further develop your theoretical and practical skills.

It’s also possible to complete this course in one year without the Advanced Practice element.

Learn From The Best

Our passion for research informs the curriculum and impacts our teaching, ensuring that course content stays current and our academic staffs are amongst the best in the country. The team include published authors and industry experts with research interests including analogue electronics, networking, professionalism in practice, teaching and learning in technology and project management.

The department of Physics and Electrical Engineering is a top-35 research department with 79% of our outputs ranked world-leading or internationally excellent according to the 2014 UK wide Research Excellence Framework. This places us in the top quartile for world-leading publications among UK universities in General Engineering.

Teaching And Assessment

Your progress will be monitored by lecturing staff and advice and appropriate links supplied to improve your learning. Web links are provided for further reading whilst online videos, where appropriate, are available for you to review taught material in your own time. Lecture material is enhanced with laboratory sessions which allow demonstration of theories and exploration of practical problems and limitations.

As a postgraduate student you will be expected to have a responsible and professional approach to learning, accessing the material and support provided and raising any problems with academic staff or your programme leader. You will have an opportunity to take an active role in the operation and content of the course via the departmental programme committee.

The Advanced Practice semester will be assessed via a report and presentation about your internship, study abroad or research group activities.

Module Overview
Year One
KD7019 - Advanced Embedded System Design Technology (Core, 20 Credits)
KD7020 - Digital Design Automation (Core, 20 Credits)
KD7063 - Wireless Communication Systems (Core, 20 Credits)
KD7064 - Optical Communications System (Core, 20 Credits)
KD7066 - Analogue Electronic Design (Core, 20 Credits)
KD7067 - Engineering Research and Project Management (Core, 20 Credits)

Year Two
KD7065 - MSc Engineering Project (Core, 60 Credits)
KF7005 - Engineering and Environment Advanced Practice (Core, 60 Credits)

Learning Environment

Whether your subject matter is renewable energy, astrophysics or communications, our range of specialist and general use facilities will support you. Throughout your work you will be able to measure, explore, experiment and model developments that are changing the way we all live our lives.

Technology to enhance learning in engineering is embedded throughout the course. This takes the form of self-guided exercises, online tests with feedback, assessment feedback and videos and tutorials to support lectures. Self-development and employability are enhanced throughout the course, especially with respect to communicating ideas in written and oral forms, the use of appropriate IT tools, personal time management, problem solving and independent learning skills.

Research-Rich Learning

Our course is at the forefront of current knowledge and practice, shaped by world-leading and internationally excellent research. All the modules are industry or research informed, based upon academic staff industrial experience, consultancy or personal research interests. This allows the knowledge and skills that you will acquire to meet the need and practical application for real world scenarios.

The course is supported by a team of academics who are highly respected by research groups around the world and who make a significant contribution to the faculty and University vision for the future of research within the higher education sector.

Give Your Career An Edge

A strong industrial and research based curriculum enhances your employability by considering real world scenarios in which known solutions are absent. You will be encouraged to research information from professional publications, company literature, etc. to determine innovative and appropriate solutions to these scenarios, enabling you to demonstrate relevant industry practice.

You will also be attached to one of the departmental or faculty research groups for your final dissertation, exposed to and incorporated into a working team and environment. This provides the opportunity for both work-related learning experience and professional career development.

Your Future

The rapid growth of the communications and microelectronics industries has created a strong demand for skilled engineers, who are able to design and manufacture semiconductors and freespace and optical communication systems. The UK Government’s commitment to high-speed broadband means that demand for communications engineers is expected to outstrip supply. UK and international demand for microelectronic engineers remains strong, with salaries reflecting employers’ need to attract the best candidates.

Upon graduation, you will be well-equipped to apply for roles such as communications engineer, electronic/electrical engineer, operational researcher, software engineer and systems developer. You may also consider the wider engineering and information technology sectors, including energy, transport, electronics and telecommunications, defence and manufacturing and engineering management.

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On this well-established MSc programme you willdevelop advanced knowledge and skills in key aspects of telecommunications and wireless systems. Read more
On this well-established MSc programme you willdevelop advanced knowledge and skills in key aspects of telecommunications and wireless systems.

The course content is updated annually to maintain industry relevance and to reflect the latest developments in the industry.

We cover the following core (compulsory) topics during the MSc:

- Embedded computer systems
- Digital system design
- IC design
- Microprocess systems
- Research skills and project management.

Part-time study is in co-operation with the students’ employers. Please contact the Programme Director before applying.

Projects

Your project work will earn you 60 credits towards your MSc degree. The project's examined by oral presentation and dissertation.

In your work you'll need to demonstrate an in-depth understanding of your topic, mastery of research techniques, and the ability to analyse assembled data and assess outcomes.

Why Electrical Engineering and Electronics?

World-class facilities, including top industry standard laboratories

We have specialist facilities for processing semiconductor devices, optical imaging spectroscopy and sensing, technological plasmas, equipment for testing switch gear, specialist robot laboratories, clean room laboratories, e-automation, RF Engineering, bio-nano engineering labs and excellent mechanical and electrical workshops.

A leading centre for electrical and electronic engineering expertise

We are closely involved with over 50 prominent companies and research organisations worldwide, many of which not only fund and collaborate with us but also make a vital contribution to developing our students.

Career prospects

Our postgraduate students get to be a part of the cutting edge research projects being undertaken by our academic staff.

Here are some of the areas these projects cover:-

Molecular and semiconductor integrated circuit electronics
Technological plasmas
Communications
Digital signal processing
Optoelectronics
Nanotechnology
Robotics
Free electron lasers
Power electronics
Energy efficient systems
E-Automation
Intelligence engineering.

You'll get plenty of industry exposure too. Our industrial partners include ARM Holdings Plc, a top 200 UK company that specialises in microprocessor design and development.

As a result our postgraduates have an impressive record of securing employment after graduation in a wide range of careers not limited to engineering.

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Bristol, and the surrounding area, hosts a thriving and world-leading semiconductor design industry. Read more
Bristol, and the surrounding area, hosts a thriving and world-leading semiconductor design industry. The Microelectronics group at the University of Bristol has many collaborative links with multinational companies in the microelectronics industry that have identified a shortfall in graduates with the necessary qualifications and professional skills to work in the sector. This programme has been designed to meet this need.

A range of taught subjects cover core topics such as advanced architectures and system design using FPGA and DSP platforms, before progressing into more specialised areas such as digital and analogue ASIC design, integrated sensors and actuators and mixed-signal design. Changes are made periodically to reflect important emerging disciplines, such as electronics for internet of things, bio-medical applications and neuromorphic computing.

The programme offers you the opportunity to learn from experts in micro- and nanoelectronics and computer science, to allow you to start working straight after your degree or continue your studies via a PhD. Special emphasis is put on providing you with a range of contemporary design skills to supplement theoretical knowledge. Lectures are accompanied by lab exercises in state-of-the-art industrial EDA software to give you experience of a professional environment.

Programme structure

The course consists of 120 credits of taught units and an individual research project worth 60 credits. The following core subjects, each worth 10 credit points (100 learning hours), are taken over autumn and spring:
-Design Verification
-Analogue Integrated Circuit Design
-Integrated Circuit Electronics
-Digital Filters and Spectral Analysis (M)
-Advanced DSP & FPGA Implementation
-VLSI Design M
-Embedded and Real-Time Systems
-Wireless Networking and Sensing in e-Healthcare

Additionally students are able to choose any two out of the following four 10-credit units (some combinations may not be possible due to timetabling constraints).

-Device Interconnect - Principles and Practice
-Advanced Computer Architecture
-Sustainability, Technology and Business
-Computational Neuroscience
-Bio Sensors

In the spring term, students also take Engineering Research Skills, a 20-credit unit designed to introduce the fundamental skills necessary to carry out the MSc project.

After completing the taught units satisfactorily, all students undertake a final project which involves researching, planning and implementing a major piece of work relating to microelectronics systems design. The project must have a significant scientific or technical component and may involve on-site collaboration with an industrial partner. The thesis is normally submitted by the end of September.

The programme structure is under continual discussion with the National Microelectronics Institute and our industrial advisory board in order that it remains at the cutting edge of the semiconductor industry. It is therefore subject to small changes on an ongoing basis to generally improve the programme and recognise important emerging disciplines.

Careers

This course gives graduating students the background to go on to a career in a variety of disciplines in the IT sector, due to the core and specialist units that cover key foundational concepts as well as advanced topics related to hardware design, programming and embedded systems and system-level integration.

Typical careers are in soft fabrication facilities and design houses in the semiconductor industry, electronic-design automation tool vendors, embedded systems specialists and software houses. The course also covers concepts and technologies related to emerging paradigms such as neuromorphic computing and the Internet of Things and prepares you for a career in academic research.

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See the Department website - http://www.rit.edu/kgcoe/program/microelectronic-engineering-1. Read more
See the Department website - http://www.rit.edu/kgcoe/program/microelectronic-engineering-1

The master of engineering in microelectronics manufacturing engineering provides a broad-based education for students who are interested in a career in the semiconductor industry and hold a bachelor’s degree in traditional engineering or other science disciplines.

Program outcomes

After completing the program, students will be able to:

- Design and understand a sequence of processing steps to fabricate a solid state device to meet a set of geometric, electrical, and/or processing parameters.

- Analyze experimental electrical data from a solid state device to extract performance parameters for comparison to modeling parameters used in the device design.

- Understand current lithographic materials, processes, and systems to meet imaging and/or device patterning requirements.

- Understand the relevance of a process or device, either proposed or existing, to current manufacturing practices.

- Perform in a microelectronic engineering environment, as evidenced by an internship.

- Appreciate the areas of specialty in the field of microelectronics, such as device engineering, circuit design, lithography, materials and processes, and yield and manufacturing.

Plan of study

This 30 credit hour program is awarded upon the successful completion of six core courses, two elective courses, a research methods course, and an internship. Under certain circumstances, a student may be required to complete bridge courses totaling more than the minimum number of credits. Students complete courses in microelectronics, microlithography, and manufacturing.

Microelectronics

The microelectronics courses cover major aspects of integrated circuit manufacturing technology, such as oxidation, diffusion, ion implantation, chemical vapor deposition, metalization, plasma etching, etc. These courses emphasize modeling and simulation techniques as well as hands-on laboratory verification of these processes. Students use special software tools for these processes. In the laboratory, students design and fabricate silicon MOS integrated circuits, learn how to utilize semiconductor processing equipment, develop and create a process, and manufacture and test their own integrated circuits.

Microlithography

The microlithography courses are advanced courses in the chemistry, physics, and processing involved in microlithography. Optical lithography will be studied through diffraction, Fourier, and image-assessment techniques. Scalar diffraction models will be utilized to simulate aerial image formation and influences of imaging parameters. Positive and negative resist systems as well as processes for IC application will be studied. Advanced topics will include chemically amplified resists; multiple-layer resist systems; phase-shift masks; and electron beam, X-ray, and deep UV lithography. Laboratory exercises include projection-system design, resist-materials characterization, process optimization, and electron-beam lithography.

Manufacturing

The manufacturing courses include topics such as scheduling, work-in-progress tracking, costing, inventory control, capital budgeting, productivity measures, and personnel management. Concepts of quality and statistical process control are introduced. The laboratory for this course is a student-run factory functioning within the department. Important issues such as measurement of yield, defect density, wafer mapping, control charts, and other manufacturing measurement tools are examined in lectures and through laboratory work. Computer-integrated manufacturing also is studied in detail. Process modeling, simulation, direct control, computer networking, database systems, linking application programs, facility monitoring, expert systems applications for diagnosis and training, and robotics are supported by laboratory experiences in the integrated circuit factory. The program is also offered online for engineers employed in the semiconductor industry.

Internship

The program requires students to complete an internship. This requirement provides a structured and supervised work experience that enables students to gain job-related skills that assist them in achieving their desired career goals.

Students with prior engineering-related job experience may submit a request for internship waiver with the program director. A letter from the appropriate authority substantiating the student’s job responsibility, duration, and performance quality would be required.

For students who are not working in the semiconductor industry while enrolled in this program, the internship may be completed at RIT. It involves an investigation or study of a subject or process directly related to microelectronic engineering under the supervision of a faculty adviser. An internship may be taken any time after the completion of the first semester, and may be designed in a number of ways. At the conclusion of the internship, submission of a final internship report to the faculty adviser and program director is required.

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On this well-established MSc programme you willdevelop advanced knowledge and skills in key aspects of telecommunications and wireless systems. Read more
On this well-established MSc programme you willdevelop advanced knowledge and skills in key aspects of telecommunications and wireless systems.

The course content is updated annually to maintain industry relevance and to reflect the latest developments in the industry.

The first two sections consist of lectures, laboratory classes and seminars, with a final section devoted to an individually supervised project.

We cover the following core (compulsory) topics during the MSc:

Embedded computer systems
Digital system design
IC design
Microprocess systems
Research skills and project management.
To meet the increasing demands for MSc students with industry experience, the Department of Electrical Engineering and Electronics has introduced a 2-year MSc programme for graduates of the highest calibre, to develop advanced knowledge and skills in microelectronic systems and give students the opportunity to put their knowledge into practice through valuable work experience during a one year industrial placement.

Graduates will be capable of undertaking research and development work in microelectronic Systems and also developing and managing R&D programmes.

This 2-year MSc programme EEMI shares the same taught modules with its equivalent 1-year MSc in Microelectronic Systems (EEMS) in year 1. But unlike the 1-year MSc students who do their MSc project over the summer, students on the 2 year MSc (EEMI) are required to undertake an industrial project and placement (either in the UK or overseas) in year 2, typically 30 weeks from September to next June.

This opportunity to work in industry will help students strengthen their career options by

Undertaking the project work in an industrial setting;
Applying theory learnt in the classroom to real-world practice;
Developing communications and interpersonal skills;
Building networks and knowledge which will be invaluable throughout their career.

The placement

During the placement year students will spend time working in a relevant company suitable for the MSc. This is an excellent opportunity to gain practical engineering experience which will boost students’ CV, build networks and develop confidence in a working environment. Many placement students continue their relationship with the placement provider by undertaking relevant projects and may ultimately return to work for the company when they graduate.

The University of Liverpool has a dedicated team to help students find a suitable placement. Preparation for the placement is provided by the University’s Careers and Employability Services (CES) who assist students in finding a placement, help students produce a professional CV and prepare students for placement interviews. Placements can be near or far in the UK or overseas.

The University has very good links with industry; companies (such as ARM Plc) have offered our MSc students competitive placements. Although industry placements are not guaranteed, the University offers students opportunities and support throughout the process to ensure that the chance for a student to find a placement is high.

If a student is unable to secure a suitable placement by the end of April during year 1, the student will be transferred onto the 1-year MSc to undertake the MSc project over the summer and graduate after one year.

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This course develops your knowledge and skills in mechatronics design and practice. You will develop skills in mechanical and electronic engineering, computing and control, and multidisciplinary skills appropriate to the requirements of modern manufacturing technologies. Read more
This course develops your knowledge and skills in mechatronics design and practice. You will develop skills in mechanical and electronic engineering, computing and control, and multidisciplinary skills appropriate to the requirements of modern manufacturing technologies.

This one year course is intended for honours (or international equivalent) graduates in mechatronics, mechanical or mechanical related engineering (eg automotive, aeronautical or design), physics or a related discipline.

A two year MSc is also available for non-native speakers of English that includes a Preliminary Year.

The taught part of the course consists of major mechatronic engineering themes such as:
-Mechatronics
-Robotics
-Industrial automation
-Embedded systems
-Instrumentation and drives

You have the opportunity to undertake in-depth studies through research projects. Your project is chosen from an extensive range of subjects. Project work can range from fundamental studies in areas of mechatronics to practical design, make and test investigations.

General areas for project work include:
-Mechatronics
-Mobile robotics
-Industrial robotics
-Microelectronic-mechanical systems
-Computational engineering modelling

Some research may be undertaken in collaboration with industry.

The course is delivered by the School of Mechanical and Systems Engineering. The School has an established programme of research seminars. These are delivered by guest speakers from academia and industry (both national and international), providing excellent insights into a wide variety of engineering research.

Effective communication is an important skill for the modern professional engineer. This course includes sessions to help develop your ability, both through formal guidance sessions dedicated to good practice in report writing, and through oral/poster presentations of project work.

Graduates of this course who pass with merit are normally offered the opportunity to progress to PhD study either on a self-funded project or on a funded PhD studentship.

Delivery

The taught component of the course makes use of a combination of lectures, tutorials/labs and seminars. Assessment is by written examination and submitted in-course assignments.

The research project (worth 60 credits) is undertaken throughout the duration of the Master's level course. Project work is assessed by dissertation and oral/poster presentations. You will be allocated, and meet regularly with, project supervisors.

Accreditation

The courses have been accredited by the Institute of Mechanical Engineers (IMechE) and Institution of Engineering and Technology (IET) under licence from the UK regulator, the Engineering Council.

Accreditation is a mark of assurance that the degree meets the standards set by the Engineering Council in the UK Standard for Professional Engineering Competence (UK-SPEC).

An accredited degree will provide you with some or all of the underpinning knowledge, understanding and skills for eventual registration as a Chartered Engineer (CEng).

Some employers recruit preferentially from accredited degrees, and an accredited degree is likely to be recognised by other countries that are signatories to international accords.

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The Mechanical Engineering MSc develops your knowledge and skills in mechanical engineering. You have the opportunity to undertake in-depth studies through your research projects. Read more
The Mechanical Engineering MSc develops your knowledge and skills in mechanical engineering. You have the opportunity to undertake in-depth studies through your research projects.

This one year course is intended for honours graduates (or an international equivalent) in mechanical or mechanical-related engineering (eg automotive, aeronautical or design), maths, physics or a related discipline.

A two year MSc is also available for non-native speakers of English that includes a Preliminary Year.

The taught part of the course consists of major engineering themes such as:
-Energy sources and storage
-Manufacturing
-Vehicle drives and dynamics
-Computational methods
-Engineering software

You will develop skills in:
-Mechanical engineering principles, practices, materials, components and systems
-Research and information retrieval
-Data collection
-Critical evaluation and effective application
-Current and developing practices in the field

Your project is chosen from an extensive range of subjects. Project work can range from fundamental studies in areas of basic engineering science to practical design, make and test investigations.

General areas for project work include:
-Design and manufacture
-Thermo-fluid dynamics
-Composite materials
-Bioengineering and biomaterials
-Microelectronic-Mechanical Systems
-Mathematical and computational engineering modelling

Some research may be undertaken in collaboration with industry.

The course is delivered by the School of Mechanical and Systems Engineering. The School has an established programme of research seminars. These are delivered by guest speakers from academia and industry (both national and international), providing excellent insights into a wide variety of engineering research.

Effective communication is an important skill for the modern professional engineer. This course includes sessions to help develop your ability, both through formal guidance sessions dedicated to good practice in report writing, and through oral/poster presentations of project work.

Graduates of this course, who pass with merit are normally offered the opportunity to progress to PhD study either on a self-funded project or on a funded PhD studentship.

Delivery

The taught component of the course makes use of a combination of lectures, tutorials/labs and seminars. Assessment is by written examination and submitted in-course assignments.

The research project (worth 60 credits) is undertaken throughout the duration of the Master's level course. Project work is assessed by dissertation and oral/poster presentations. You will be allocated, and meet regularly with, project supervisors.

Accreditation

The courses have been accredited by the Institution of Mechanical Engineers (IMechE) and the Institution of Engineering and Technology (IET) under licence from the UK regulator, the Engineering Council.

The accreditations are a mark of assurance that the course meets the standards set by the Engineering Council in the UK Standard for Professional Engineering Competence (UK-SPEC). This will give you some or all of the underpinning knowledge, understanding and skills for eventual registration as a Chartered Engineer (CEng). Some employers recruit preferentially from accredited degrees, and an accredited degree is likely to be recognised by other countries that are signatories to international accords.

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This course covers all aspects relevant to the modern microelectronics industry, including semiconductor theory, fabrication technology, digital techniques, VLSI design and reconfigurable hardware design. Read more
This course covers all aspects relevant to the modern microelectronics industry, including semiconductor theory, fabrication technology, digital techniques, VLSI design and reconfigurable hardware design.

The course covers the main areas of microelectronics:
-Semiconductor theory and fabrication
-Digital and VSLI design
-Application areas

Our graduates are equipped for a career in any area of the industry, while having an appreciation of other aspects of the subject.

You have access to an advanced range of facilities including clean rooms and a characterisation laboratory. Work in more application-related areas involves the use of modern design software. This includes the industry-standard CADENCE suite and a full range of FPGA design facilities.

Academic staff in the School of Electrical and Electronic Engineering have an international reputation for their research work. The School carries out world-leading research in microelectronic technologies. You will have the opportunity to interact with this work, particularly during your individual project. After graduation there may be opportunities for you to work towards a PhD by joining one of our research groups.

Delivery

This course consists of compulsory and optional modules, and an individual project. Assessment is by written examination at the end of each semester, coursework, and a project and dissertation conducted in association with one of the School's research groups.

Employability

We collect information from our graduates six months after they leave University. This is part of the Destination of Leavers from Higher Education (DLHE) survey that every UK higher education institution takes part in.

Accreditation

The course is accredited by the Institution of Engineering and Technology (IET) and Engineering Council, and therefore provides a good foundation for professional registration.

Facilities

Facilities include two clean rooms of class 100-1000 and 100-10000, with capabilities in:
-Lithography
-Deposition
-Thermal and plasma processing
-Packaging

There is a characterisation lab with comprehensive device test facilities. Leading CAD software for modelling and device design is available, some of which originates from researchers at Newcastle.

For VLSI design, you have access to the industry-standard CADENCE suite, and a variety of novel tools developed at Newcastle. There is also a comprehensive range of design tools for FPGA-based systems.

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Are you interested in working in the electrical power engineering and renewable energy sectors? This course will give you a thorough understanding of power electronics, electric drive systems, smart grids, wind power, photovoltaic and other distributed generation systems. Read more
Are you interested in working in the electrical power engineering and renewable energy sectors? This course will give you a thorough understanding of power electronics, electric drive systems, smart grids, wind power, photovoltaic and other distributed generation systems.

The course, which enjoys very high student satisfaction rates, has been carefully designed to meet the needs of industry. It also meets the academic requirements of the Institution of Engineering and Technology (IET), by whom it is fully accredited.

Electrical power engineers need to be able to work in multidisciplinary teams and to show organisational and commercial skills alongside technical knowledge. The course therefore has a strong focus on project management, self-development and employability.

You’ll benefit from the University’s excellent facilities that include specialist electrical and electronics laboratory resources. Northumbria has a well-established reputation for producing graduates who can apply their knowledge to generate creative solutions for sustainable electrical power systems.

In the second year, for one semester, you’ll undertake an internship, study in another country or join a research group. This valuable experience will enhance your employability and further develop your theoretical and practical skills.

This course can also be started in January - for more information, please view this web-page: https://www.northumbria.ac.uk/study-at-northumbria/courses/electrical-power-engineering-msc-ft-dtfepz6/

Learn From The Best

Our teaching team includes experts from the Northumbria Photovoltaics Application Centre (NPAC) and Power and Wind Energy Research (PaWER) group. Their experience, combined with their on-going active research, will provide an excellent foundation for your learning.

The quality of their research has put Northumbria University among the UK’s top 25% of universities for the percentage of research outputs in engineering that are ranked as world-leading or internationally excellent (Research Excellence Framework 2014).

Our reputation for quality is reflected by the range and depth of our collaborations with industry partners. Our industrial links help inform our curriculums and ensure a variety of site visits and input from practitioners via guest lectures.

Teaching And Assessment

Our teaching methods include lectures, seminars, laboratory sessions, computer workshops, individual tutorials, and group projects. As this is a master’s course there is a significant element of independent learning and self-motivated reflection.

You’ll undertake a practical or theoretical master’s dissertation that will hone your skills in evaluating and applying research techniques and methodologies.

Assessments are designed to give feedback as well as to monitor your level of achievement. The assessed projects will enable you to test your skills in ways that relate to current industrial practice. Specific assessment methods include assignments, exams, technical reports and presentations.

The Advanced Practice semester will be assessed via a report and presentation about your internship, study abroad or research group activities.

Learning Environment

Northumbria University provides outstanding facilities for electrical power engineering. Our laboratories have equipment that includes oscilloscopes, signal generators and Labview software as well as National Instruments Educational Laboratory Virtual Instrumentation Suite (NI ELVIS) to measure and control signal voltages.

Our New and Renewable Energy Laboratory is an excellent resource for research into power networks, wind energy, photovoltaics and battery testing for electric vehicles. All our facilities are backed up by a team of technicians who will give support and advice when you need it.

Technology Enhanced Learning (TEL) is embedded throughout the course with tools such as the ‘Blackboard’ eLearning Portal and electronic reading lists that will guide your preparation for seminars and independent research. Our use of lecture capture software will help you revise challenging material.

To facilitate group projects there is a working space called The Hub that’s well equipped for meetings and working with IT. The Zone is another area that’s popular with students undertaking group work or individual study.

Research-Rich Learning

Northumbria’s strong research ethos is an essential aspect of how you will develop as a critical, reflective and independent thinker. With our problem-solving approach you’ll acquire a wide range of research and analytical skills as you progress through the course. These skills will come together in the practical/theoretical dissertation that you’ll undertake, which will require independent research and appropriate techniques of inquiry, critical evaluation and synthesis.

Throughout the course your learning will be directly impacted by the teaching team’s active research. Our specialist interests include electrical and electronic engineering, mobile communication, microelectronic, renewable and sustainable energy technologies, and advanced materials.

Give Your Career An Edge

The course will equip you with the knowledge and skills you’ll need to work in the electrical power engineering and renewable energy sectors. At the same time you’ll develop transferable key skills and personal attributes that promote employability and lifelong learning.

The group projects will provide experience of working with others while also raising your awareness of commercial considerations and how industry operates. One project involves the development of an innovative product that must satisfy pre-determined criteria including a realistic business model.

Your dissertation can be linked to the University’s on-going research, giving you experience of being incorporated into a pre-existing working team and environment. Alternatively you can undertake a practice-based dissertation that’s linked to a project that you’ve chosen for its relevance to your interests, self-development and career prospects.

The Advanced Practice semester will help you develop a track record of achievement that will help you stand out from other job applicants.

A two-year master’s course, like this one, will carry particular weight with employers. They’ll understand that you’ll have a deeper understanding of topics as well as more hands-on practical experience.

When it comes to applying for jobs our Careers and Employment Service offers resources and support that will help you find roles matching your interests and skills. You will be able to access a range of workshops, one-to-one advice, and networking opportunities.

Your Future

By the end of this course you’ll be in an excellent position to start or continue a career in electrical power engineering and/or the renewable energy industry. Roles could include designing, developing and maintaining electrical control systems and components.

You could also undertake a postgraduate research degree such as an MPhil, PhD and Professional Doctorate. If you decide to start up your own business, it’s good to know that the combined turnover of our graduates’ start-up companies is higher than that of any other UK university.

Whatever you decide to do, you will have the transferable skills that employers expect from a master’s graduate from Northumbria University. These include the ability to tackle complex issues through conceptualisation and undertaking research, the ability to contribute to new processes and knowledge, and the ability to formulate balanced judgements when considering incomplete or ambiguous data.

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This programme is designed as a specialised extension to the study of electronics at undergraduate level. The programme provides students with specialist expertise across a wide range of electronic subjects including microelectronics, hardware design, communications, computer design and digital hardware. Read more

Aim

This programme is designed as a specialised extension to the study of electronics at undergraduate level. The programme provides students with specialist expertise across a wide range of electronic subjects including microelectronics, hardware design, communications, computer design and digital hardware. The programme is normally full-time, starts at the end of September and lasts for 12 months. Electronics with Professional Internship students have the opportunity to complete an industrial placement of up to six months as part of their studies.

Programme Content

The MSc programme consists of a practical project of a research nature (60 CATS points) plus six modules (120 CATS points)
The Postgraduate Diploma programme consists of six modules (120 CATS points).

Modules for both programmes are selected from the list below:

Digital Signal Processing
Intelligent Systems and Control
High Frequency Technology and Design
Microelectronic Devices & Technology
MEMS Devices & Technology
Wireless Communications Systems
Wireless Sensor Systems

In any given year further specialist topics may be available for selection or listed topics may not be offered.

Assessment

Assessment for MSc in Electronics: Coursework and written examination in six modules, dissertation on project.
Postgraduate Diploma: Coursework and written examination in six modules.

Career Opportunities

Our graduates have found that holding a prestigious MSc qualification from one of the UK's top engineering schools has significantly enhanced their job opportunities and employment prospects.

Graduates typically find employment in a wide range of fields including with semiconductor companies, electronic equipment manufacturers, design and service providers, software houses and in other electronic engineering-based industries.

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NOTE Are you a student from outside the EU? If you are an International student we have designed a version of this award especially for you! It is called the Extended International Master in Electronic Engineering. Read more
NOTE Are you a student from outside the EU? If you are an International student we have designed a version of this award especially for you! It is called the Extended International Master in Electronic Engineering. It includes an extra semester of preliminary study to prepare you for postgraduate learning in the UK. We strongly recommend that all international students take this option as it is proven to improve your chances of success. Take a look at this alternative course here.

About this course:
The course provides coherent and up to date coverage of Electronic Engineering with modules in Microelectronic Systems, VLSI, Digital Signal Processing,Research Methods, Embedded Systems,Analogue and Digital Electronics and Telecommunications. The approach spans specification and design to realisation, with particular emphasis on the application of industry standard CAD tools and DSP devices to develop solutions to practical engineering problems.

Course content

The course consists of a taught programme followed by an individual project. The taught programme is based on eight modules. Normally these modules are taken over two semesters for the full time route. The individual project is then studied over a further semester to complete the Masters Award.

Core modules are:
-Research Methods & Project Management
-Photovoltaic Technology
-Digital Electronic Systems
-Digital Signal Processing
-MSc Project
-Embedded Real Time Systems
-Telecommunications

Option Modules are:
-Technical Paper Authoring
-Optical Fibre Communication Systems
-Control Systems
-Wireless Navigation Systems

Semester 1 runs from September to January and Semester 2 from February to June. Study of the MSc normally commences in September. The possibility of an optional industrial placement either between the taught programme and the individual project is also available which may involve working in another European country.

Employment opportunities

Future option for graduates include employment in local, national and international industries normally initially in Research and Development roles although many progress to management positions. Alternatively graduates may choose to pursue further academic qualifications and register for a PhD programme.

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Programme description. This programme offers distinct specialisation areas in electronics. analogue VLSI design, bioelectronics and analogue and digital systems. Read more

Programme description

This programme offers distinct specialisation areas in electronics: analogue VLSI design, bioelectronics and analogue and digital systems.

In analogue VLSI design, our facilities include a unique custom designed analogue integrated circuit specifically designed to support laboratory based teaching. Our advanced design and prototyping laboratories, advanced micro and nano fabrication facilities and state-of-the-art digital system laboratories use the latest industry standard software tools.

Alternatively, students may specialise in the emergent discipline of bioelectronics where our research and teaching interests include access to the fabrication facilities at the Scottish Microelectronics Centre. For students who wish to study a more general electronics course including digital systems, a prescribed course selection is available.

Programme structure

This programme is run over 12 months, with two semesters of taught courses, with a number of options, followed by a research project, leading to a masters thesis.

Semester 1 courses:

Analogue IC Design

Analogue VLSI A

Discrete-Time Signal Analysis

Power Electronics

Principles of Microelectronic Devices

Digital Systems Laboratory A

Introduction to Bioelectronics

Biosensors

Semester 2 courses:

Digital System Design

Digital Systems Laboratory

Research Project Preparation

Electronic/Electrical Engineering System Design

Analogue VLSI B

Sigma Delta Converters

Analogue Circuit Design

Microfabrication Techniques

Biosensors and Instrumentation

Lab-on-Chip Technologies

Biomedical Imaging Techniques

Embedded Mobile and Wireless Systems

Modern Economic Issues in Industry

Technology and Innovation Management

Career opportunities

You will gain significant practical experience in analogue and digital laboratories and become familiar with the latest industry standard design software and environments. Having been exposed to concepts such as design re-use and systems on chip technology, you will be able to cooperate with others in electronic system design. Recent graduates are now working as applications, design, field, test and validation engineering for employers such as BMW, Guangzhou Hangxin Avionics and Kongsberg Maritime



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