Electronic and Electrical Engineering

MSc

Full-Time

Course overview

This course is designed to address the challenges of the modern industrial world. It focuses on power electronics, renewable systems, signal processing, holistic modelling of electronic systems and image processing. The main aims of the course are to:
    • Meet a local, national and international demand for skilled electronic and electrical engineers.
    • Provide an opportunity for students to gain in-depth relevant specialist knowledge in electronics systems design.
    • Synthesise formal solutions through the application of specialist knowledge to design and create innovative electronic and electrical circuits.
    • Perform and develop objective and critical analysis skills necessary to synthesis effective solutions when presented with a set of specifications.
    • Equip you with the appropriate depth in understanding of electronic engineering development tools and techniques.

Additional course information

Upon completion of the course you will be able to:
    • Exercise an in-depth understanding of the design mechanisms which can be used to create electronic and electrical designs and critically evaluate their effectiveness.
    • Demonstrate an ability to deal with complex and interdependent design issues both systematically and creatively in a sustainability context.
    • Analyse and devise strategies to design, evaluate and optimise microelectronics based systems.
    • Critically evaluate the tools and techniques required to create microelectronics circuits which satisfy specifications.
    • Analyse current research and technical problems within the discipline for further reflection for evaluation and critique.
    • Recognise your obligations to function in a professional, moral and ethical way.
    • Synthesise original circuit design from a knowledge of current tools, methodologies and strategies.
    • Critically survey current and recent practice in the field of electronic and electrical engineering, in a sustainability context, in order to identify examples of best practice and to propose new hypotheses.
    • Develop the ability to act autonomously to plan and manage a project through its life cycle, and to reflect on the outcomes.
    • Define the goals, parameters and methodology of a research and development activity.

Module guide

Core modules
  • Image Processing (15 credits)

    This module exposes the student to the theory and implementation of digital image processing algorithms. Topics addressed include image acquisition and representation, human perception and understanding, image statistics and histogram operations, enhancement, transformations, filter design, compression, segmentation, morphological operations, and pattern recognition.

  • DSP Applications and ARM® Technology (30 credits)

    DSP is an integral part of electronics system design and ARM is a major player in the design and manufacture of microelectronic components. The module uses ARM Software and development tools and covers topics such as, algorithms, fixed gained and adaptive filters, spectral analysis, application, ARM Processors, Cortex Processors, CoreLink Controllers, Mali Graphics Processors.

  • Sustainable Technologies (15 credits)

    The module provides a conceptual foundation across several disciplines, including energy systems, sustainable development, behavioural changes or policies. The module also addresses topics unique to energy technologies, such as Smart Grid, interfacing and design issues. This module introduces basic Sustainable Technologies, ranging from traditional topologies to modern renewable energy based systems, including energy storage systems such as fuel cells. Hybrid electrical vehicle principles are also briefly introduced. The module builds a smooth transition from background material to more complex systems and applications, in the modern context of sustainability.

  • Research Methods and Preparation (15 credits)

    This module helps to prepare a postgraduate student for undertaking research. Its purpose is to introduce students to the discipline of research and, at the same time, to help lay the essential foundations for a dissertation of MSc quality.

  • VHDL Design and Programming with FPGA Applications (30 credits)

    The module provides a review of Digital Systems as well as their design philosophy in light of using modern Electronic Computer Aided Design tools for design, simulation and implementation of complex electronic circuits. Students are introduced to advanced topics in VLSI circuit analysis, design and implementation techniques, VHDL modelling associated with practical design examples based on FPGA implementation.

  • Power Conversion Systems (15 credits)

    The module introduces basic power technologies, ranging from traditional topologies to modern renewable energy based systems, including modern storage systems such as fuel cells. Hybrid electrical vehicle principles are also briefly introduced. The modules build a smooth transition from background material to more complex topologies and applications, in the context of global sustainability.

Assessment

Assessment techniques will include examinations and assignments based on case-studies and scenarios.

Modern Electronic Computer Aided Design labs loaded with the latest software that includes Integrated Synthesis Environment Design Suite, Matlab, Simulink and other relevant software.

Our laboratories are equipped with wind and solar energy systems, power electronics modules, development boards with FPGA circuits and more.

Links with industry and professional recognition

Accreditation by the IET will be sought.

Links with industry include:
  • ARM Ltd
  • British Computer Society
  • Cambridge Network
  • Cambridge Silicon Radio
  • E2V
  • Ford Motor Company
  • Selex Sensors and Airborne Systems
  • South East Essex PCT

Associated careers

In every industrialised nation, there is a great need for electronic engineers and the career opportunities are wide ranging from product design, research and development to higher education and teaching.

On completion of this course, you will be well placed to apply your newly acquired skills to enter a research degree (PhD) at either Anglia Ruskin University or another university of your choice.
Entry Requirements: Minimum Lower Second degree in Electronics or Electrical Engineering. First degree (Honours) in appropriate subject or Foundation Degree with appropriate industrial experience in the electronics industry.
Our published entry requirements are a guide only and our decision will be based on your overall suitability for the course as well as whether you meet the minimum entry requirements.

We welcome applications from International and EU students. Please select one of the links below for English language and country-specific entry requirement information.

How to apply

Location

Duration

1 year

Teaching times*

Semester 1:
Mon 10.00am-11.00am, Tues 9.00am-11.00am and 12.00pm-4.00pm, Fri 9.00am-10.00am
and 1.00pm-5.00pm

Semester 2:
Mon 10.00am-12.00am and 1.00pm-3.00pm,
Thurs 4.00pm-6.00pm

Available starts

September, January

Student finance

Faculty

Science & Technology

Department

Computing & Technology

Contact us

UK and EU applicants:International applicants:

 

*Teaching days and times are for guidance only and are subject to change each academic year. We advise all applicants to wait until they are in receipt of their timetable before making arrangements around their course times.

Bookmark this page with: