National AI Awards 2025Discover AI's trailblazers! Join us to celebrate innovation and nominate industry leaders.

Nominate & Attend

PhD Vacancy – Thermal effects in cryogenic electronics for quantum computing

Le Lab Quantique
London
1 week ago
Applications closed

Related Jobs

View all jobs

PhD Vacancy - Rydberg Quantum Sensing Technologies for Resilient Communications

Research Fellow in Quantum Optics

Physics Graduate - Sales

Physics Graduate - Sales

Opto-Mechanical Engineer

Graduate Opto-Mechanical Engineer

PhD Vacancy – Thermal effects in cryogenic electronics for quantum computing Quantum computing (QC) research and development have reached an extremely exciting point. Decades of research by academia worldwide has brought us to the point where the commercial world is widely engaged. Despite this progress, there still exist major challenges for the development of practical and useful quantum computers. One of these challenges is the necessity of operating quantum processors at deep cryogenic temperatures. In fact, it is not trivial to generate the sophisticated control sequences made of multiple-channel high-frequency signals at room temperature and timely deliver them to a quantum system which is located in a fairly inaccessible and vacuum-tight cryostat.
A promising solution is based on the realisation of reliable cryogenic electronics that could leverage the vast existing manufacturing infrastructure currently dedicated to conventional integrated circuits (IC), i.e. the Complementary Metal Oxide Semiconductor (CMOS) technology. Cryo-CMOS could be a key enabler for the scaling of the main QC platforms because it would make it possible to tightly integrate control, readout and quantum protocols by avoiding the so-called interconnect bottleneck with the room temperature control instrumentation. However, the operation of CMOS electronics at deep cryogenic temperatures requires stringent power management considerations, as well as a knowledge of the local environmental conditions of operation. In fact, each sub-component in a complex chip architecture may experience different local temperatures (even on the same chip) depending on the performed function and the amount of self-heating generated.
This PhD will focus on the development of experimental techniques for accurate on-chip thermal assessment and management. The student will address the following critical challenges:
Development of novel on-die thermometry techniques using diodes, transistor gate electrodes and CMOS-compatible superconductors.
Chip-scale thermal mapping based on local heat sources and sensors under realistic operational conditions for quantum computing.
Thermally accurate circuit modelling aimed at both quantum and classical chip designs.
This project is part of a long-standing collaboration among three key players of the UK quantum landscape: the Quantum Technology Department at the National Physical Laboratory (London), Quantum Motion Technologies (London), a rapidly growing start-up enterprise which develops silicon-based quantum systems, and the Physics Department at the University of Strathclyde. This 4-year PhD project is part of the EPSRC-funded Centre for Doctoral Training in Applied Quantum Technologies. As well as completing a PhD project in an aligned topic, CDT students will also benefit from technical and skills-based training in all aspects of quantum technologies.

#J-18808-Ljbffr

National AI Awards 2025

Subscribe to Future Tech Insights for the latest jobs & insights, direct to your inbox.

By subscribing, you agree to our privacy policy and terms of service.

Industry Insights

Discover insightful articles, industry insights, expert tips, and curated resources.

How to Find Hidden Quantum Computing Jobs in the UK Using Professional Bodies like BCS, IOP & More

Quantum computing is one of the most exciting and disruptive fields in science and technology. As the UK invests in a national quantum strategy—with funding for hardware, software, cryptography, and applications—demand for quantum talent is growing rapidly. But here’s what most job seekers miss: many quantum computing roles are never posted on public job boards. Instead, opportunities are shared quietly through research partnerships, industry working groups, spinout collaborations, and professional bodies. In this guide, we’ll show you how to access hidden quantum computing jobs in the UK by leveraging organisations like the Institute of Physics (IOP), BCS, Quantum Technology Hubs, UKRI, and other key communities. We’ll explore how to use membership directories, SIGs (Special Interest Groups), CPD events, and project funding announcements to gain visibility, build relationships, and find roles long before they’re advertised.

How to Get a Better Quantum Computing Job After a Lay-Off or Redundancy

Redundancy in the emerging field of quantum computing can feel particularly discouraging, especially after years of specialised training and research. But as the UK continues to invest in quantum technologies across academia, defence, computing and cryptography, new roles are opening in both startups and national programmes. Whether you're a physicist, quantum software engineer, hardware specialist, or quantum algorithm researcher, this guide will help you turn redundancy into an opportunity for career growth.

Quantum Computing Jobs Salary Calculator 2025: Work Out Your True Worth in Seconds

Why yesterday’s pay survey is meaningless in today’s quantum landscape Ask a Quantum Software Engineer debugging Qiskit kernels at midnight, a Cryogenic Hardware Engineer coaxing qubits below 10 mK, or a Quantum Algorithm Researcher squeezing decoherence budgets: “Am I earning what I deserve?” The honest answer shifts faster than a Rabi oscillation. Since early 2024, the UK Government funded £2.5 billion across its National Quantum Strategy, Amazon Braket and Azure Quantum slashed circuit prices, & post‑quantum cryptography mandates yanked quantum literacy into cyber road‑maps. Each shock nudges salary bands. Any PDF salary guide printed last year looks like an outdated calibration curve—blind to the silicon spin‑qubit breakthroughs in Cambridge, the Oxford ion‑trap scale‑ups, or the London quantum‑software unicorn that closed a £200 million Series C. To swap guesswork for evidence, QuantumComputingJobs.co.uk has distilled a transparent, three‑factor formula. Feed in your discipline, region, & seniority & you’ll instantly see a realistic 2025 salary benchmark—no stale averages, no vague “competitive” claims. This article unpacks that formula, highlights the forces pushing quantum‑computing pay skywards, & gives five practical moves to lift your market value inside ninety days.