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Quantum Technology at University of Glasgow - UCAS

Course summary

This Masters in Quantum Technology will provide training in the emerging area of quantum technologies, giving students advanced training in the relevant physics and engineering, while acquiring key skills in micro/nanofabrication. This MSc is underpinned by Glasgow leadership in the UK’s Quantum Technology programme. The subjects taught in this programme are the relevant science behind many of the global challenges – in energy, environment, materials, and security – identified as major themes for interdisciplinary research in the 21st century. The programme is ideal if you are keen to pursue a professional career or research in Quantum Technologies. WHY THIS PROGRAMME This programme equips students with an interdisciplinary perspective of the physics and engineering skills needed in the field of quantum technologies. This MSc will be underpinned by the one of the four quantum technology hubs within the UK (QuantIC). The university also hosts the James Watt Nanofabrication Centre, the UK's premier academic cleanroom for device micro/nanofabrication. The School of Physics & Astronomy is leading international work on quantum measurement devices for precision science, on development and application of quantum algorithms and quantum machine-learning, and measurements of quantum entanglement in particle-physics. The James Watt School of Engineering hosts the Centre for Quantum Technology, with research themes across quantum computing, imaging and communications. The university is a globally recognised centre of excellence for quantum science and technology. Its researchers and facilities lie at the heart of the UK National Quantum Technology Programme (NQTP), which has seen a £1b investment since its inception in 2014. Our university leads QuantIC, the UK Quantum Technology Hub in Imaging and it is contributing to all four Quantum Technology Hubs in the UK programme, covering quantum computing; simulation, communication, sensing and imaging. Quantum technologies such as photonics and nanotechnology are key strengths in Scotland, which is home to high-performing research-intensive universities and a highly innovative, international and entrepreneurial technology cluster. You will have the opportunity to engage with companies at the forefront of Quantum Technology activities within the UK and worldwide. Some MSc projects may also be available that are co-supervised with industry. The Glasgow-led Quantum Technology hub (QuantIC) has engagement with over 50 companies in the UK/worldwide. The School has an Athena Swan Silver Award, demonstrating the School’s support for women in scientific studies and careers, and to improve the working environment for all. PROGRAMME STRUCTURE Modes of delivery of the MSc in Quantum Technology include lectures, tutorials, seminars, laboratory practical classes, small group supervisions and private study. In the final part of the programme, you will undertake a research project which will be supervised by a member of staff who works within the area of quantum technologies. This extended project will give an opportunity to be embedded into a research group, working at the cutting edge of their particular field. Each course is assessed separately; assessment methods include written examinations, verbal and written reports of practical/project work, multiple choice questions, oral and poster presentations of project work. Core courses Quantum Theory (10 credits, semester 1) Experimental Techniques in Quantum Optics (10 credits, semester 1) Introduction to Research In Nanoscience and Nanotechnology (10 credits, semester 1) Quantum Information (10 credits, semester 2) Advanced Data Analysis For Physics And Astronomy (10 credits, semester 2) Quantum Electronic Devices M (20 credits, semester 2) Quantum Materials M (10 credits, semester 2) MSc project, either: MSc Project in Physics, or MSc Project in Engineering Please visit the course page on our website for information on optional courses.


How to apply

International applicants

International applicant information can be found via gla.ac.uk by searching for 'international'.

This course has a subject classification which requires students whose nationality is outside the European Economic Area (EEA) or Switzerland to have an ATAS certificate, irrespective of country of residence at the point of application.

Further information can be found on the UK Government's website: www.gov.uk/academic-technology-approval-scheme

Entry requirements

2.1 Hons (or non-UK equivalent) in Physical Sciences, Electronic and Electrical Engineering, Computing Science, with modules in each of Quantum Mechanics and Electromagnetic Theory at an average grade of pass. We may also accept degrees in a related subject with significant physics content at a 2.1 Hons (or non-UK equivalent). A 2.2 Hons (or non-UK equivalent) in Physics followed by substantial relevant experience may be considered on an individual basis. Please complete the personal statement found in this section of the course page on our website and upload to your application. Prerequisite experience needed. Assumed knowledge for the core courses in this degree include: Basic mathematics for physics: single and multi-variable calculus (differentiation and integration), trigonometry, complex numbers, vectors, vector calculus, Taylor and Fourier series, Fourier transforms. Introductory scientific computing: data handling, simple statistics (computing means and variances), plotting functions and histograms, writing simple programs in a general-purpose programming language e.g. Python or C++. You must also have the following: Familiarity with basic quantum mechanics, e.g. the meaning of wavefunctions and quantum states, solving the time-independent Schrodinger equation for a set of simple potentials in bound-state and scattering configurations. Familiarity with basic optics, including geometric-optics modelling (thin lenses, image formation, refraction, diffraction, interference, and optical resolution. Awareness of the electromagnetic spectrum, the nature and propagation of light, Maxwell’s equations, potentials and fields, and EM potentials in simple geometries.


Fees and funding

Tuition fees

No fee information has been provided for this course

Tuition fee status depends on a number of criteria and varies according to where in the UK you will study. For further guidance on the criteria for home or overseas tuition fees, please refer to the UKCISA website .

Additional fee information

All fees are published on the University of Glasgow website. https://www.gla.ac.uk/postgraduate/feesandfunding/

Sponsorship information

Sponsorship and funding information can be found via gla.ac.uk by searching for 'scholarships'.

Quantum Technology at University of Glasgow - UCAS