UNIVERSITY OF SUSSEX
School of Mathematical and Physical Sciences
Department of Physics & Astronomy
Electronics Engineer in Quantum Device Engineering (Full time, fixed term initially 18 months, with possibility of becoming a permanent role)
Salary range:Starting at £32,548 and rising to £38,833 per annum
Closing date:4 January 2018. Applications must be received by midnight of the closing date.
Expected start date: As soon as possible
Applications are invited for an Electronics Engineer in the which is part ofthe at the University of Sussex. The position is part of the UK National Quantum Technologies programme.The Ion Quantum Technology Group is one of the world’s leading centres for the implementation of trapped-ion quantum technologies such as quantum computing, quantum simulation and quantum sensing. The group has collaborations with multiple leading industry players as well as with universities and other research facilities around the world.
The successful development of quantum technologies is set to revolutionise the world we live in. Specially developed electronic sub-systems are a core part of these technologies and are currently being developed at the Ion Quantum Technology group as part of their major effort to construct a prototype quantum computer. The successful applicant will work as part of a team and in collaboration with external industry partners to design, build and test core sub-systems which will be used to control various parts of the quantum computer. Furthermore, the successful applicant will work with our industry partners to transform these systems into marketable products.
- Formulate and analyse high level requirements to develop engineering solutions.
- Prepare system level designs for new product developments.
- Create detailed engineering work plans and requirements/specifications.
- Provide detailed electrical & electronic engineering designs to meet project requirements directly, or, via others, and meet project timescales.
- Ensure that designs are properly verified according to engineering procedures and comply with relevant regulatory standards.
- Build and test prototypes and assist in the development of marketable products.
Key relevant skills and knowledge:
- Normally educated in Electronics Engineering or equivalent. A PhD is not required.
- Experience in electronic/electrical engineering.
- Experience developing rf based electronic circuits.
- Experience in the development of ultra-stable electronic circuits.
- Experience indesigning IC’s.
- Experience in the designing and making of PCB’s.
- Able to develop prototypes and concepts.
- Good understanding of general engineering, design and assessment practices.
- Competent with test equipment.
- A hands-on and highly motivated engineer.
- Works effectively as part of a team.
- Ability to engage and network with a wide range of stakeholders.
Please refer to the more detailed job description and person specification document for more details. The salary offered will be appropriate to the qualifications, standing and experience of the successful candidate.
The position is located on the beautiful University of Sussex campus just outside of Brighton. The city of Brighton & Hove has everything - sun, sea, brilliant clubs, great places to eat, fabulous shops, a truly cosmopolitan vibe and is located only 50min from central London. Located on the beach, Brighton boasts beautiful seaside views and beaches, boating, sports and beach activities. The South Downs provide breath-taking views, tranquil walks and plenty of opportunities for mountain biking, hiking or picnics.
A popular science lecture given by Prof. Hensinger explaining the principles of quantum computing at the US Department of Energy can be found .
Some recent media coverage about the group’s work can be found here:
The supercomputer of the future?
Quantum computing breakthrough: UK scientists develop technique to greatly simplify trapped ions
You can find out more about the group at:
For more information about this post, please email
Dr Sebastian Weidt
About the University of Sussex
The University of Sussex was the first of the new wave of universities founded in the 1960s, receiving its Royal Charter in August 1961. Nearly 50 years on, the University has become a leading teaching and research institution. In the 2008 Times Higher Education University World Rankings, Sussex was ranked in the top 20 in the UK, the top 50 in Europe, and the top 150 worldwide.
Innovative research and scholarship
Sussex is a leading research university, as reflected in the 2008 Research Assessment Exercise. Over 90 per cent of Sussex research activity was rated as world leading, internationally excellent or internationally recognised, confirming the University among the leading 30 research universities in the UK, on a simple average across all scores. 18 subjects rank in the top 20 for research in the UK, across the arts, sciences and social sciences, with American studies ranked number 1 in the UK, Politics number 2, and Art history number 3.
Teaching and learning
The University of Sussex has over 10,000 students, of which almost 3,000 are postgraduates. Creative thinking, pedagogic diversity, intellectual challenge and interdisciplinarity have always been fundamental to a Sussex education.
Our goal is to deliver teaching and learning programmes that are informed by current research, are attractive to students from all socioeconomic and cultural backgrounds, and which deliver skills for life.
We are currently expanding our degree programmes in popular areas such as biomedical science, business and management, digital media, international security, modern languages, and science and enterprise.
Sussex has developed a reputation for innovation and inspiration, and attracts leading thinkers and researchers. We have counted three Nobel Prize winners, 13 Fellows of the Royal Society, six Fellows of the BritishAcademy and a winner of the prestigious Crafoord Prize on our faculty.
From its foundation, Sussex has had an international perspective to its academic activities and its outlook. The University attracts staff and students to its campus from over 120 different countries across the world. Nearly a third of staff come from outside the UK.
Our research tackles major world issues, with leading areas of expertise such as climate change and development studies. The University has extensive links with many institutions worldwide, such as PekingUniversity, NationalTaiwanUniversity and the Harvard-Sussex programme.
Sussex has one of the most beautiful campus locations in Britain. Situated in rolling parkland on the edge of Brighton, the campus combines award-winning architecture with green open spaces. The campus is surrounded by the South DownsNational Park, but just a few minutes away from the lively city of Brighton & Hove.
Designed by Sir Basil Spence, the buildings that make up the heart of the campus were given listed building status in 1993. Falmer House is one of only two educational buildings in the UK to be Grade I listed in recognition of its exceptional interest.
Business and the community
Sussex has a long tradition of engaging with business and the community, which continues today through activities such as the Sussex Innovation Centre, public lectures and service to the community. Our goal is to help businesses and organizations in the region develop higher staff skill levels through training, and to stimulate innovation through partnership with other institutions outside Sussex to benefit the wider society.
The Sussex Innovation Centre provides support for the creation and growth of technology- and knowledge-based companies in Sussex. The Centre is now a thriving business environment for nearly 80 high-growth companies. Since its creation over 160 companies have been based at the Centre; their cumulative revenue is now over £250 million and the companies currently employ many hundreds of people in the local area.
3.Senior leadership and management
The Vice-Chancellor (Professor Adam Tickell) is the senior academic officer and, as Chief Executive, is responsible to the University Council for management of the University. He is supported by an executive group which includes the Deputy Vice-Chancellor, the two Pro-Vice-Chancellors, the Registrar and Secretary, the Director of Finance and the Director of Human Resources. The Heads of the Schools of Studies at Sussex report to the Pro-Vice-Chancellors.
The Registrar and Secretary heads the Professional Services of the University. In addition, under the University Statutes, the Registrar and Secretary is Secretary to the University Council. The Director of Finance reports to the Vice-Chancellor. The Director of ITS and the Librarian report to the Deputy Vice-Chancellor.
4.The School of Mathematical and Physical Sciences
The School of Mathematical and Physical Sciences was created in 2009 as part of a University wide restructuring. It brings together two outstanding and progressive departments – Mathematics, and Physics and Astronomy. The School aims to capitalise on the synergy between these subjects to deliver new and challenging opportunities for faculty and students.
The School of Mathematical and Physical Sciences combines pioneering research and stimulating teaching in an interdisciplinary academic setting. The faculty work at the frontiers of their fields, as is reflected in the recent growth of both subjects. Each department has a number of thriving research groups and links with outside agencies.
The Department of Physics and Astronomy
The Physics & Astronomy Department currently has 39 faculty divided into four research groups: Astronomy; Theoretical Particle Physics; Experimental Particle Physics; and Atomic, Molecular & Optical Physics.
In the highly acclaimed Thomson Scientific 2006 ranking of the research impact of all departments in UK universities, the University of Sussex came top in Physics and in Space Science/Astronomy. It was ranked 8th in the UK in the Research Assessment Exercise of 2008. It was ranked 5th in Great Britain and 37th in the world according to the Times Higher Education World University Rankings (2010). Sussex is ranked 5th in UK for Physics in the Times Good University Guide (2013), and scored 100% for overall satisfaction in the 2013 National Student Survey.
We are part of the South East Physics Network (SEPNet) - a consortium of nine physics departments of the University of Sussex, University of Kent, Queen Mary University of London, Royal Holloway University of London, Southampton University, University of Surrey, University of Portsmouth, University of Hertfordshire, and the Open University. This has been awarded substantial government funding (from HEFCE) to support vital UK science research, teaching and development.
4.1. The Astronomy Centre
Current research interests are: physics of the early Universe; constraining cosmological models; numerical simulations of structure formation; extragalactic survey science; and galaxy formation and evolution. The first of these has strong overlaps with the Theoretical Particle Physics group.
The Centre consists of 12 permanent faculty members: Chris Byrnes (Royal Society URF), Ilian Iliev, Antony Lewis, Jon Loveday, Seb Oliver (Director of Research & KE for the School), Kathy Romer, Mark Sargent, David Seery, Robert Smith, Peter Thomas (Director of the Astronomy Centre), Stephen Wilkins; there are currently 8 postdoctoral researchers and 22 PhD students. The group’s main source of funding comes from a consolidated grant Science and Technology Facilities Council (STFC) and EU funding in the form of Starting, Consolidator and Cooperation grants.
The Centre’s activity is focussed around three themes: Theoretical cosmology, with focus on inflationary cosmology, the cosmic microwave background, dark energy, and statistical methods; Simulations/modelling of reionization, large-scale structure, galaxy and cluster formation; Observations; surveys of galaxies and clusters from the infra-red through to X-ray.
We have major roles in extra-galactic surveys: Seb Oliver coordinates the Herschel Multi-tiered Extra-galactic Survey (HerMES) and EU funded Herschel Extra-galactic Legacy Project (HELP); Kathy Romer leads the XMM Cluster Survey (XCS); Jon Loveday leads the Galaxy Mass Assembly (GAMA) spectra working group. We are partners in various supercomputing collaborations including COSMOS and VIRGO. We have key roles in Cosmology and Dark Energy studies including Planck and the Dark Energy Survey.
The Centre has access to substantial computing resources, including locally and various supercomputing consortia.
The Astronomy Centre’s web site is
4.2. The Atomic, Molecular & Optical (AMO) Physics Group
Research in the AMO group at Sussex is devoted to the study of fundamental physics and quantum effects and technologies using the techniques of atomic and laser physics. The research covers both experimental and theoretical AMO physics.
There are six experimental faculty in the AMO group. Winfried Hensinger is developing new quantum technologies using trapped ions. His group is developing a quantum simulation engine and they are in the process of constructing a large-scale trapped-ion quantum computer. Another research area is the development of portable quantum sensors. Peter Kruger, is starting a major activity in Quantum Systems and Technologies. This will involve a range of experiments and device development at the interface of cold atomic and condensed matter physics. Matthias Keller is investigating the interaction of single photons and ions assisted by optical cavities with the aim of generating large scale entangled states and developing quantum networks. His work also includes the physics of trapped molecular ions. Alessia Pasquazi is working on ultra-fast photonics and also on optical sources for quantum technologies. Marco Peccianti's research is focussed on Tera-Hertz Imaging and applications of Tera-Hertz radiation. Jose Verdu's team is developing a novel Penning trap technology based upon superconducting microwave transmission-lines. This work has applications to circuit-QED with trapped electrons, quantum metrology and mass spectrometry.
There are four theorists in the AMO group. Jacob Dunningham (AMO group leader)is investigating Bose-Einstein condensates and quantum technologies with a particular emphasis on quantum metrology, sensing, and imaging. Claudia Eberlein works on quantum field theory applied to atomic, optical, and nano-physics. Barry Garrawayis developing new kinds of atom traps with applications to quantum information and quantum metrology and in addition works on cavity QED and non-Markovian dynamics. Diego Porras applies the techniques of quantum optics to condensed matter systems.
Along with the faculty there are currently 14 research fellows and 40 PhD students in the AMO group. Sources of funding include the European Union, EPSRC and European and national research networks on quantum information processing. The Atomic, Molecular & Optical Physics group web site is
4.3. The Experimental Particle Physics (EPP) Group
The Sussex EPP group counts ten permanent faculty members, plus one Emeritus Professor. The group’s main source of funding is the Science and Technology Facilities Council (STFC), with additional support from the European Research Council (ERC) and the Royal Society.
Antonella De Santo, who is also the EPP Group Leader, together with Fabrizio Salvatore has established and leads a fast-growing team working on the ATLAS experiment at the CERN Large Hadron Collider (LHC). The other ATLAS faculty members are Lily Asquith, Alessandro Cerri and IacopoVivarelli. The group has a long-standing leadership in the search for supersymmetry at ATLAS, and also leads in the areas of jet physics, Higgs physics, flavour physics, and top physics. Sussex also holds key responsibilities in the ATLAS High-Level Trigger (HLT) system, including in view of future LHC and ATLAS upgrades. It also has a major role in the proposed Level-1 tracking trigger project, for use by ATLAS at the High-Luminosity LHC.
Historically, the Sussex EPP is world-renowned for its high-precision measurement of the neutron electric dipole moment (EDM). The EDM is uniquely sensitive to physics beyond the Standard Model, and the group is currently involved in the nEDM experiment at the PSI. Philip Harris leads this effort at Sussex together with Clark Griffith and Visiting Senior Lecturer Mike Hardiman.
Sussex EPP also boasts a vibrant and expanding programme of neutrino physics. Sussex is one of the leading UK institutes involved in the SNO+ experiment, which seeks to determine whether the neutrino is its own antiparticle by searching for neutrino-less double-beta decays. Simon Peeters leads the SNO+ effort at Sussex, together with Lisa Falk and Jeff Hartnell. Additionally, Jeff Hartnell was recently awarded substantial ERC funding to work on the Fermilab-based NOvA neutrino oscillation experiment and the future long-baseline programme (LBNE/LBNF). Peeters and Falk are also involved in LBNE/LBNF.
Sussex EPP currently has ten postdoctoral level researchers, eleven PhD students, three engineer/technician posts directly involved in EPP research, and a Linux system administrator. We have a number of well-equipped laboratories, and we enjoy good access to the University’s technical facilities, including shared technicians. Sussex EPP researchers have uncontended access to a dedicated Grid Tier-3 cluster, and Sussex is a member of the SouthGrid Tier-2 grouping of Grid-enabled research institutions in the South of England.
Sussex EPP has close links with colleagues in the Sussex Theoretical Particle Physics group and with other partners in the SEPnet consortium.
The Experimental Particle Physics group web site is
4.4. The Materials Physics Group
This is a new research group set up by Professor Alan Dalton who joined the Department from Surrey University in February 2016.
A number of new appointments are underway.
The group will focus on understanding the fundamental structure-property relationships in materials containing one- and two-dimensional structures such as carbon nanotubes, graphene and other layered nanomaterials. Prof Dalton is particularly interested in developing viable applications for nano-structured organic composites (mechanical, electrical and thermal). He is also interested in the directed-assembly and self-assembly of nanostructures into functional macrostructures and more recently interfacing biological materials with synthetic inorganic and organic materials and associated applications.
The Materials Physics group webpage is
4.5. Sussex Centre for Quantum Technologies
The Sussex Centre for Quantum Technologies is focused on the exploitation and development of disruptive quantum technologies. The Centre hosts ten research groups covering the broad spectrum of quantum technologies as well as hosting a number of associate member groups that share significant overlap with our mission.
Our research groups are involved in the UK Quantum Technology Hub on Networked Quantum Information Technologies and the UK Quantum Technology Hub for Sensors and Metrology as well as DSTL initiatives, Centres for Doctoral Training and numerous national and international collaborations. The centre is integrated within the UK National Quantum Technology Programme. The centre leadership consists of Prof. Winfried Hensinger (director) and Prof. Jacob Dunningham (deputy director).
The Centre’s five experimental research groups are led by Prof Winfried Hensinger (Ion Quantum Technology), Dr Matthias Keller (Ion Trap Cavity-QEG and Molecular Physics), Prof Peter Krueger (Quantum Systems and Technologies), Dr Alessia Pasquazi (Ultrafast Photonics), Dr Marco Peccianti (Tera-Hertz Imaging), and Dr Jose Verdu (Electrons in Quantum Circuits). The centre also hosts ground breaking theory groups led by Prof Claudia Eberlein (Quantum Field Theory in AMO), Prof. Jacob Dunningham (Quantum metrology, Bose-Einstein condensates and Entanglement), Prof Barry Garraway (Trapped Ultracold Atoms &Theoretical Quantum Optics) and Dr Diego Porras (Quantum optics and condensed matter systems).
The Sussex Centre for Quantum Technologies features numerous state-of-the-art quantum technology laboratories along with key infrastructure. In addition to the high quality research environment, training plays an integral role and the centre hosts the pioneering MSc in Frontiers of Quantum Technology as well as carrying out specialized quantum technology training for doctoral and postdoctoral researchers.
The Sussex Centre for Quantum Technologies web page is
4.6. The Theoretical Particle Physics (TPP) Group
The current research activities in the group are: particle astrophysics and cosmology, including cosmological phase transitions, baryogenesis, topological defects, inflation, dark matter, and dark energy; collider and low-energy phenomenology, including Higgs and BSM physics, flavour, QCD, supersymmetry and extra dimensions; and quantum field theory, including quantum gravity, tests the asymptotic safety conjecture, the renormalisation group, effective theory and strong coupling phenomena,
The group consists of Andrea Banfi, Xavier Calmet, Mark Hindmarsh, Stephan Huber (group leader), Sebastian Jaeger, Daniel Litim, Veronica Sanz, Emeritus Professors David Bailin and Norman Dombey, two Postdoctoral Research Fellows, and about 20 PhD and MSc students. The group maintains a research consortium with Royal Holloway (Nikolas Kauer) and University College London (Frank Deppisch). The group's research funding comes mainly from the UK Science and Technology Facilities Council (STFC), and is also supported by the European Science Foundation and the Higher Education Funding Council for England.
The group has close links with both the Experimental Particle Physics and Astronomy research groups, and is a member of the NExT Institute, a regional collaboration for particle physics phenomenology. It benefits from excellent computing resources including a Linux-based system of workstations and servers and access to the University’s High Performance Computing cluster.
The Theoretical Particle Physics group web page is
The Ion Quantum Technology group is headed by Prof. Winfried Hensinger. Their aim is to develop new quantum technologies, in particular, the trapped ion quantum computer as well as trapped ion quantum simulators and trapped ion quantum sensors. For this purpose, research focuses on applied experimental quantum information science, quantum devices engineering, quantum control and large scale entanglement generation. We also develop a new generation of quantum microchips based on Silicon manufacturing technology that provide the core for the quantum technology devices we develop. We are in the process of constructing a quantum simulation engine and a large-scale trapped-ion quantum computer. We also develop portable quantum sensors. The group is part of the UK Quantum Technology Hub on Networked Quantum Technologies and the UK Quantum Technology Hub for Sensors and Metrology.
Further details of the IQT group can be found on the web page:
5 Job Description
Job Title:Electronics Engineer in Quantum Device Engineering
Grade:Technical Staff, Grade 7
School:Mathematical and Physical Sciences
Responsible to:Prof Winfried Hensinger through to Head of School
Key contacts:Prof Winfried Hensinger
Role description:Electronics Engineer in Quantum Device Engineeringis an early career-grade position. Post-holders will work as part of a team and in collaboration with external industry partners to design, build and test core sub-systems which will be used to control various parts of a quantum computer. Furthermore, the successful applicant will work with industry partners to transform these systems into marketable products.
To engage in individual and/or collaborative development activities resulting in marketable products; and to knowledge exchange income individually or in collaboration with others, as appropriate.
- Carry out technical development tasks as needed for the timely advancement of projects. Prepare, collate, analyse and interpret analysis data, drawing conclusions on the outcomes and contribute to collaborative decisions with colleagues in areas of development.
- Conduct technical development individually and in collaboration with others.
- Responsible for the preparation/development of special (i.e. not generally commercially available) materials, compounds or equipment (electrical, electronic or mechanical).
- Analyse and interpret technical development findings and draw conclusions on the outcomes.
- Individually or with colleagues, explore opportunities for enterprise activity, knowledge exchange income and/or consultancy, where permissible.
- Order non-routine apparatus and materials to maintain adequate stock levels within policies laid down. Carry out budgeting exercises and cost control measures to ensure that all expenditure is within the agreed budget, making decision on purchases to ensure that the budget is maintained. Provide budgetary advice.
- Ensure that adequate records of methods, sample details and results are prepared and maintained within the associated specific project/s.
- Attend group meetings and communicate with other group members ongroup-wide and project specific issues.
- Build internal contacts and participate in internal networks and relevant external networks in order to form relationships and collaborations.
- Continually update knowledge and understanding in field or specialism, and engage in continuous professional development.
- Support advancement of student technical skills and supervision of student projects if required.
- Assist in the development of relevant student skills.
- Carry out any other reasonable request of management.
- Development, construction and operation of specialized electronics for the operation of quantum technology devices
- Formulate and analyse high level requirements to develop engineering solutions
- Prepare system level designs for new product developments
- Create detailed engineering work plans and requirements/specifications
- Provide detailed electrical & electronic engineering design to meet project requirements directly, or, via others, and meet project timescales
- Ensure that designs are properly verified according to engineering procedures and comply with relevant regulatory standards
- Build and test prototypes and assist in the development of marketable products
- Assistance in the operation of quantum technology devices to characterise and optimize relevant electronic sub systems.
- Support of undergraduate and postgraduate students
- Provideguidance for other project members such as undergraduate and postgraduate students regarding technical related matters.
This Job Description sets out current duties of the post that may vary from time to time without changing the general character of the post or the level of responsibility entailed.
6 Person Specification
- Normally educated in electronics engineering, or other equivalent qualification, or appropriate level of experience, as appropriate to the discipline (see role-specific criteria below).
- Evidence of engagement in the development of advanced electronics.
- Basic knowledge of integrated circuit design.
- Ability to work individually on own initiative and without close supervision, and as part of a team.
- Experience in rf-based circuit design.
- Evidence of initial experience in prototype development.
- Good understanding of general engineering, design and assessment practices.
- Ability to operate test equipment such as a network analyzer, impedance analyser and LCR meter.
- Ability to exercise a degree of innovation and creative problem-solving.
- Excellent organisational and administrative skills.
- Ability to prioritise and meet deadlines.
- Excellent IT skills.
- Experience in developing marketable electronics products.
- Advanced experience in designing IC’s
SKILLS / ABILITIES Essential Desirable
Ability to work as part of a team and also to take on the role of team leader with the aptitude to motivate others when required.
Proven ability to work independently and use initiative where appropriate.
Ability to develop advanced electronics
Good numerate and literate skills, written and oral (English)
Clear leadership potential in the specific area
KNOWLEDGE Essential Desirable
Understanding of the principles/fundamentals to perform engineering calculation/design of load matching networks
Good level of knowledge in electronics manufacturing processes
The successful applicant is required to have sufficient knowledge and/or expertise to work on day to day issues in own area without direct or continuous reference to others.
Basic knowledge of integrated circuit design
EXPERIENCE Essential Desirable
Possession of a breadth and/or depth of experience showing full working knowledge and proficiency of own area of expertise and the ability to discharge the role effectively and efficiently.
Experience in the development of rf-based electronics
Advanced experience in designing IC’s
Advanced testing and characterisation experience of complex circuits
Experience in developing low noise circuits
QUALIFICATIONS Essential Desirable
Normally expected to have a degree in a relevant field
Educated in electronics engineering
A proven track record of experience in the development of advanced electronics
PERSONAL ATTRIBUTES AND CIRCUMSTANCES Essential Desirable
Willing to act as a point of reference to others and demonstrate continuous specialist development, acquiring and refining skills and expertise in new or related areas.
Flexibility to work outside normal hours if required
Dependable and reliable
Ability to work independently
Active commitment to team work
Demonstrated leadership abilities
Closing Date: 4 January 2018