About The Role and Team
Quantum Motion is a fast-growing quantum computing scale-up based in London founded by internationally renowned researchers from UCL and Oxford University with over 40 years’ experience in developing qubits and quantum computing architectures. Bringing together state-of-the-art cryogenic facilities and an outstanding interdisciplinary team, we are developing quantum processors based on industrial-grade silicon chips, with the potential to radically transform computing power in areas such as materials modelling, medicine, artificial intelligence and more.
Our Team
Since 2021 our team has been listed every year in the “Top 100 Startups worth watching” in the EE Times in 2021 and 2022, and our technology breakthroughs have been featured in The Telegraph, BBC and the New Statesman. Our founders are internationally renowned researchers from UCL and Oxford University who have pioneered the development of qubits and quantum computing architectures. Our chairman is the co-founder of Cadence and Synopsys, the two leading companies in the area of Electronic Design Automation. We’re backed by a team of top-tier investors, and we have recently closed our Series C funding of $160 million.
We bring together the brightest quantum engineers, integrated circuit (IC) engineers, quantum computing theoreticians and software engineers to create a unique, world-leading team, working together closely to maximise our combined expertise. Our collaborative and interdisciplinary culture is an ideal fit for anyone who thrives in a cutting-edge research and development environment focused on tackling big challenges and contributing to the development of scalable quantum computers based on silicon technology.
Our team of 100+ is based across London, Oxford, San Sebastián and Sydney, with our primary hub in Islington (London).
Our Team
You will join the Cryogenic Engineering & Lab Development team, supervised by the Staff Cryogenic Engineer. This team ensures the smooth running of our UK operations, managing state-of-the-art facilities consisting of 7+ cryogenic fridges, whilst also overseeing off-site lab deployments and installations.
This position is ideal for a hands-on technical specialist who thrives on making things and solving practical engineering challenges. You will play a vital role in building a robust senior technical layer, managing specific workflows in electronics assembly, and providing essential supervision and mentorship to our growing group of apprentices.
This is a rare and exciting opportunity to be an early employee at a scale-up shaping the future of quantum computing. There are vast opportunities for professional growth and to make an impact within the company.
Our team of 100+ is based across London, Oxford, San Sebastián and Sydney, with our primary hub in Islington (London).
Functions of the Role
- Electronics & Mechanical Assembly: Lead the assembly of PCBs, mechanical components, and complex wiring (including high-quality soldering) for both laboratory and deployment use.
- Workflow Management: Take ownership of a dedicated section of the technical workflow, maintaining a clear list of maintenance, support tasks, and assembly requirements.
- Laboratory Operations: Support the day-to-day operation of our cryogenic facilities and vacuum systems, ensuring all equipment is maintained to the highest standard.
- Global Installations: Assist with the preparation, paperwork, and technical execution of off-site deployments and international laboratory installations.
- Supervision & Mentoring: Act as a senior technical reference point for our apprentices, ensuring they have a consistent, well-managed workflow and the guidance necessary to develop their skills.
Experience - Essentials
- Technical Background: At least 3+ years of experience in a production, laboratory, or university environment with a strong emphasis on "making things."
- Hands-on Assembly: Proven expertise in electronics assembly (PCB manufacturing/soldering), mechanical assembly, and basic machining.
- Testing Equipment: Familiarity with bench-level electronic test equipment such as multimeters, VNAs and oscilloscopes.
- Mentorship: Experience in training or supervising junior staff or apprentices, with a methodical approach to checking work and providing feedback.
- Problem Solving: A strong intuition for hardware debugging and a proactive approach to installation and site work.
Experience - Desirable
- Experience working with cryogenic systems or high-vacuum environments.
- Background in site installation or field engineering.
- Formal qualifications in engineering or a related technical discipline (though equivalent practical experience is highly valued).
- Experience with CAD software.
Application Process
- Facilities tour
- 5-10 minute presentation by applicant on a relevant project and 5 minute Q&A
- Group interview - Including: Snr. Lab Manager, Staff QI Engineer
- Practical assessment: Soldering test
Benefits
- Be part of a creative, world-leading team
- Competitive salary and share options scheme
- Contributory pension scheme
- Group private medical insurance scheme
- Life Assurance
- Cycle-to-work Scheme
- Central London location
EEO Statement
Quantum Motion is an equal opportunity employer. All qualified applicants will receive consideration for employment without regard to age, disability, gender reassignment, marital or civil partner status, pregnancy and maternity, race, colour, nationality, ethnic or national origin, religion or belief, sex, sexual orientation, or any other characteristic protected by applicable local laws (including the UK Equality Act 2010 and Spanish Employment Law).
TECHNICAL & MARKET ANALYSIS | Appended by Quantum.Jobs
The evolution of scalable solid-state quantum computing hardware demands a critical operational layer focused on high-precision physical and electronic implementation. Quantum Integration Technicians occupy a vital node within the hardware enablement layer, bridging the critical gap between abstract hardware architecture design and tangible lab-scale deployment. As the deep tech ecosystem transitions from theoretical proof-of-concept models toward industrial Technology Readiness Levels, the structural consistency of physical hardware setups determines experimental reproducibility and hardware uptime. Verifiable market indicators across the global quantum consortium landscape point to an acute requirement for specialized engineering support personnel who mitigate assembly bottlenecks and physical deployment vulnerabilities. By formalizing sub-system assembly workflows, this role directly facilitates the reliable execution of hardware scaling roadmaps within capital-intensive quantum technology sectors.
The international quantum hardware ecosystem is experiencing a profound transition from laboratory prototyping to structured systems engineering. While historical bottlenecks centered on fundamental qubit coherence and gate fidelities, current macro constraints focus extensively on system integration, multi-component packaging, and physical supply chain dependencies. As organizations scale up infrastructure to support complex solid-state architectures, the physical management of the software-hardware interface becomes a high-stakes operational priority. Sector-wide efforts continue to address talent and integration challenges in quantum systems, particularly at the technician and physical assembly layers.
This architectural shift highlights the critical importance of hardware stabilization and reproducible component manufacturing. The industry faces persistent fragmentation in test methodologies, requiring specialized personnel who can ensure exact physical fidelity across disparate laboratory environments. Moreover, as public-private investment frameworks demand verifiable progression toward practical fault tolerance, the efficiency of hardware iteration cycles serves as a primary determinant of commercial viability. Consequently, optimizing physical workflow management and sub-system maintenance protocols directly controls the operational throughput of deep tech hardware developers.
Furthermore, regional deep tech clusters are increasingly focused on long-term workforce development and localized knowledge retention. The emergence of structured internal apprenticeship pathways within the hardware sector acts as a vital mechanism for scaling specialized technical expertise. By embedding rigorous verification protocols within the daily lab environment, organizations can successfully insulate their core research timelines from macro talent shortages and hardware assembly defects.
The capability envelope for this engineering support function rests on the cross-functional convergence of physical assembly, micro-electronics manufacturing, and localized lab environment orchestration. Competence within this domain requires precise synchronization between physical printed circuit board assembly, high-fidelity wiring topologies, and physical test instrumentation. This structural knowledge is critical for maintaining signal integrity across the software-to-hardware compilation boundary, where small physical variances can introduce catastrophic environmental noise. - Accelerates the transition from abstract silicon chip designs to structurally verifiable laboratory hardware installations
- Minimizes component-level failure rates by introducing standardized assembly protocols within the hardware pipeline
- Enhances physical system optimization through the rigorous maintenance of critical high-vacuum and low-temperature experimental environments
- Lowers operational downtime across multi-site deployment hubs via predictive equipment care and systematic infrastructure support
- Facilitates knowledge transfer within deep tech clusters by anchoring internal apprentice development to structured technical workflows
- Secures physical supply chain integrity through the systematic handling and verification of custom micro-electronics components
- Reduces hardware verification timelines by optimizing the throughput of bench-level electronic testing procedures
- Decouples core physics research tasks from routine maintenance workflows to maximize overall research team efficiency
- Maximizes the data yield of hardware validation runs through the precise execution of physical signal routing configurations
- Mitigates physical integration bottlenecks during complex international laboratory expansions and off-site equipment deployments
- Cultivates systemic hardware reliability by enforcing strict quality assurance methods during internal manufacturing cycles
- Drives the standardisation of physical equipment benchmarking across highly fragmented quantum hardware platformsIndustry Tags: Quantum Hardware Integration, Silicon Qubits, Cryogenic Engineering, Electronics Assembly, Systems Engineering, Sub-System Maintenance, Laboratory Optimization, Deep Tech Infrastructure
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