The University of Southampton

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MSc Optical Fibre and Photonic Engineering (1 year full-time)

The UK’s largest and longest-established optical fibre and photonics research group, Southampton’s Optoelectronics Research Centre (ORC) is driving innovations in fields such as silicon photonics, optical fibre communications and optical materials. On this one-year masters degree you’ll learn about the latest advances in photonics from leading experts in the ORC, and have the opportunity to conduct your own research using cleanroom facilities that are among the best in the country. You’ll be prepared for research and product development roles in the fast-growing photonics sector, or for PhD-level study.

Introducing your degree

On the MSc Optical Fibre and Photonic Engineering degree you’ll gain specialist knowledge of technologies that harness the power of light, such as lasers and optical fibres. You’ll also learn how to design and create optical components and materials in the lab, and gain insights into today’s photonics industry. It’s an exciting field of engineering with numerous applications, from telecommunications to precision tools used in industry and medicine, and huge potential for innovation in areas such as silicon photonics and quantum technologies.

You’ll be studying at a university with exceptional photonics research credentials and a global reputation. Our academics’ world-changing inventions include the fibre amplifiers that make today’s internet possible, and the high-power fibre laser, which has revolutionised manufacturing techniques.

Overview

In compulsory modules you’ll study lasers, optical fibres, optical fibre sensors and fibre telecommunication systems. You can also pursue your own interests by choosing from a range of specialist optional modules. These are drawn from photonics, physics and electronic engineering, and include both fundamental and applied photonics topics. You could explore microsensor technologies, nanoscience or silicon photonics, for example, or learn about microfabrication techniques.

With small class sizes and plenty of support from your personal academic tutor and PhD student mentor, we’ll help you to settle in and make the transition to masters-level study.

View the programme specification for this course for 2020/21 entrants

View the programme specification addendum for this course for 2020/21 entrants

View the programme specification for this course for 2021/22 entrants

Hands-on research experience

In the Photonics Laboratory and Study Skills module you’ll undertake experiments in the photonics lab – for example, you’ll build and characterise a small laser, and examine the properties of optical fibres. These experiments will teach you fundamental photonic engineering concepts, while giving you experience of using optical fibre and laser equipment.

This practical training will help prepare you for your research project, which is an opportunity to investigate an aspect of optical fibre or photonic engineering that interests you. Many projects involve working in the cleanrooms, for example to fabricate an optical fibre or a silicon photonic optical circuit. You’ll work within one of the ORC’s research groups alongside PhD, postdoctoral students and academics, giving you a taste of life as a researcher. For some of our masters students, the research project has led to the publication of their first scientific paper.

Previous project titles include:

  • Integrated photonics at the tip of a fibre
  • Silicon thermal spectrometers for on-chip sensing

Real-world industry insights

You’ll take part in our Industry Showcase week, which is just for our MSc Optical Fibre and Photonic Engineering students. During the week you’ll visit photonics companies and meet entrepreneurs and company executives. As well as gaining an insight into current trends in this fast-moving industry, you’ll see the role of both research and business in making new technologies a reality. In a follow-up exercise you’ll examine the strategic and commercial considerations facing these companies, such as which technologies they should invest in for the future.

Throughout the course you’ll also benefit from your lecturers’ extensive industry knowledge, which enables them to keep students up to date with the latest sector trends. Academics have close ties to industry through research collaborations and their own enterprise activities – ORC researchers have formed 11 spin-out companies, creating a ‘Light Valley’ of successful photonics companies in the Southampton area.

Outstanding facilities

You’ll undertake project work in the ORC’s advanced optical fibre and laser research laboratories and in our £120m cleanroom complex – the largest multidisciplinary cleanroom of its type in the UK. We are one of a handful of universities with optical fibre production facilities, giving you a rare opportunity to see first hand how fibres are made.

Programme Structure

You’ll take eight taught modules across semesters one and two – six compulsory modules and two optional modules. In the third semester you’ll work on your research project and take part in the Industry Showcase.

To Apply

You can apply for the programme through the University of Southampton's online postgraduate application system. Visit our how to apply pages for more information. Please note that we belong to the Faculty of Physical Sciences and Engineering (FPSE).

The deadline for new applications to this course is 31 July each year.

Entry Requirements

Typical entry requirements

Selection process:
All individuals are selected and treated on their relative merits and abilities in line with the University's Equal Opportunities Policy. 
 
Disabled applicants will be treated according to the same procedures as any other applicant with the added involvement of the Disability Office to assess their needs. The programme may require adaptation for students with disabilities (eg hearing impairment, visual impairment, mobility difficulties, dyslexia), particularly the practical laboratory sessions, and we will attempt to accommodate students wherever possible.

Fees & funding

Tuition fees

Fees for postgraduate taught courses vary across the University. All fees are listed for UK, EU and international full-time and part-time students alphabetically by course name.

View the full list of course fees

Funding

Scholarships, bursaries, sponsorships or grants may be available to support you through your course. Funding opportunities available to you are linked to your subject area and/or your country of origin. These can be from the University of Southampton or other sources.

Explore funding opportunities

Costs associated with this course

Students are responsible for meeting the cost of essential textbooks, and of producing such essays, assignments, laboratory reports and dissertations as are required to fulfil the academic requirements for each programme of study.

There will also be further costs for the following, not purchasable from the University:

TypeDescription
Approved CalculatorsCandidates may use calculators in the examination room only as specified by the University and as permitted by the rubric of individual examination papers. The University approved models are Casio FX-570 and Casio FX-85GT Plus. These may be purchased from any source and no longer need to carry the University logo.
StationeryYou will be expected to provide your own day-to-day stationery items, e.g. pens, pencils, notebooks, etc). Any specialist stationery items will be specified under the Additional Costs tab of the relevant module profile.
TextbooksWhere a module specifies core texts these should generally be available on the reserve list in the library. However due to demand, students may prefer to buy their own copies. These can be purchased from any source.

Some modules suggest reading texts as optional background reading. The library may hold copies of such texts, or alternatively you may wish to purchase your own copies. Although not essential reading, you may benefit from the additional reading materials for the module.
Printing and Photocopying CostsIn the majority of cases, coursework such as essays; projects; dissertations is likely to be submitted on line. However, there are some items where it is not possible to submit on line and students will be asked to provide a printed copy. A list of the University printing costs can be found here: http://www.southampton.ac.uk/isolutions/students/printing-for-students.page.

In some cases you'll be able to choose modules (which may have different costs associated with that module) which will change the overall cost of a programme to you. Please also ensure you read the section on additional costs in the University’s Fees, Charges and Expenses Regulations in the University Calendar available at www.calendar.soton.ac.uk.

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Whether you have already applied or you are just curious about your options, our Postgraduate Visit Afternoons are a perfect opportunity to get the answers you need.

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Project image
Date:
2014-2018
Themes:
High Voltage Engineering, Space and surface charge, Solid dielectrics
Funding:
EPSRC

This project aims to investigate the impact of inherent defects, space charge dynamics, partial discharges, electrical trees and power quality on the electrical performance of lapped cable insulation under high DC stress. Mass impregnated insulation constructed from lapped PolyPropylene Laminated Paper (PPLP) tapes is of current topical interest in this field. Fundamental understanding of the performance of this insulation and development of novel operating methodologies are urgently required in order to meet the challenges faced in HVDC connection of offshore wind farms and in the creation of HVDC super-grids.

Primary investigators

Secondary investigators

Associated research group

  • Electronics and Computer Science
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Vacuum chamber and hollow cathode
Themes:
Applied Electromagnetism, Plasma and Space Science
Funding:
QinetiQ

This project aims to investigate the performance of hollow cathode emitters which are used primarily in space propulsion applications. High pumping rate turbo pumps allow the vacuum chamber to simulate the space environment even when significant propellant gas flow rates are used. The current investigation encompasses the following elements:

  • The use of alternative propellant gasses.
  • Novel methods of lowering effective work function.
  • Spot to plume transition.
  • Analysis of optical emission spectra.
  • Development of probe measurement techniques.
The vacuum facilities and measurement capabilities developed in this work are now offered for commercial testing of third party devices at the Tony Davies High Voltage Laboratory.

Primary investigators

Secondary investigators

Associated research group

  • Electronics and Computer Science
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Test cell design
Date:
2015-2018
Themes:
Nanomaterials and Dielectrics, Solid dielectrics
Funding:
Omicron Lab

The aim of this project is to design and evaluate the performance of a prototype test-cell for dielectric spectroscopy of materials. The test-cell has a novel design featuring replaceable PCB electrodes. This helps to reduce manufacturing costs and makes single use viable (for example to enable measurements of epoxy during curing). It also makes it possible to offer alternative electrode sets, for example, PCB electrodes of different size, with enhanced dielectric response or with higher temperature capability. A range of calibration spacers and a force sensor are also under development as potential accessories. Although still in the prototype stage; several of these test-cells have already been sold.

Primary investigator

Secondary investigator

Associated research group

  • Electronics and Computer Science
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Date:
2018-2020
Themes:
High Voltage Engineering, Space and surface charge, Solid dielectrics
Funding:
State Grid Shaanxi Electric Power Company, EPRI (Electric Power Research Institute)

The overall aim of the project is to develop a methodology for the evaluation the status of the operating power cables, and the estimation of the life time of these cables. The objectives of the work are: 1. Establish the corresponding relationship between the aging state of cable insulation and the characteristics of space charge under different operating conditions. 2. Obtain the aging characteristics and life of the space charge of the aging cable samples, and establish and verify the evaluation model of the cable aging based on the space charge characteristics. 3. Establish the relationship between the important parameters of space charge characteristics and the physical theory of on-line monitoring parameters. 4. Establish the cable state evaluation model based on space charge characteristics and on-line monitoring parameters.

Primary investigators

Secondary investigator

  • yz10n16

Associated research group

  • Electronics and Computer Science
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