At Universal Quantum, we aim to make the world a better place by engineering the future of computing. Together, we are creating truly impactful quantum computers. Our machines will be capable of solving problems until now considered impossible, with applications across healthcare, advanced materials, aerospace and beyond.
As we expand our engineering presence in Japan, we are looking for an Electronics Engineer – Device Testing to help enable next-generation quantum technologies. Passionate about helping create technologies that can change the world? We may be the right place for you, so get in touch!
What You’ll Accomplish:
- Design and build advanced test rigs for electrical and mechanical characterization of quantum microfabricated devices (trap chip)
- Develop meticulous test plans and protocols for validating chip performance
- Conduct experimental validation and characterization of electronics systems to meet stringent performance requirements for quantum hardware
- Collaborate with chip designers and electronics engineers to improve test coverage and ensure compatibility with emerging quantum chip architectures
- Critically evaluate testing methodologies and propose improvements for efficiency and accuracy
- Document test procedures, results, and findings for reproducibility and knowledge sharing
Requirements
The 3 Most Critical Attributes We’ll Use to Compare Candidates
- Strong electronics engineering capabilities for device/chip testing
- Electromechanical engineering knowledge to create precision test rigs
- Excellent communication skills to coordinate with multidisciplinary teams and ensure testing needs are met and improved
Must-have Skills
- PCB layout and schematic design using ECAD tools (e.g., Altium)
- Strong technical writing and documentation skills
- Familiarity with test/electronics equipment (VNA, Spectrum Analysers, TDR, oscilloscopes)
- Experience measuring high-frequency electrical signals and ensuring signal integrity
- Knowledge of embedded systems and FPGA-based control for automated testing
- Master/BSc Degree in electronics engineering or a related discipline
Nice-to-have Skills
- Experience cryogenic temperatures and testing sensitive quantum devices
- Mechanical CAD proficiency for fixture and rig design
- Background in RF engineering, metrology, or instrumentation
- Experience developing automated testing frameworks using scripting languages (Python, MATLAB)
- Understanding EMC and high-speed digital design constraints in quantum systems
Skills Required
- Strong electronics engineering capabilities for device and chip testing
- Electromechanical engineering knowledge for creating precision test rigs
- Excellent communication skills for multidisciplinary coordination
- PCB layout and schematic design using ECAD tools such as Altium
- Strong technical writing and documentation skills
- Familiarity with VNA, spectrum analyzers, TDRs, and oscilloscopes
- Experience measuring high-frequency electrical signals and ensuring signal integrity
- Knowledge of embedded systems and FPGA-based control for automated testing
- Master's or bachelor's degree in electronics engineering or a related discipline
- Experience with cryogenic temperatures and testing sensitive quantum devices
- Mechanical CAD proficiency for fixture and test-rig design
- Background in RF engineering, metrology, or instrumentation
- Experience developing automated testing frameworks using Python or MATLAB
- Understanding of EMC and high-speed digital design constraints in quantum systems
What We Do
A quantum computer harnesses the fundamental forces that govern the physical world. It can efficiently model complex systems in ways that would take the best classical computer millions of years, and so help revolutionise drug design, climate modelling, battery chemistry, and many other vital processes. But to achieve all this, we need to make quantum computers work reliably at scale. We started Universal Quantum to meet this challenge - because we believe that by doing so, we can help solve the most difficult problems faced by humanity. We’re following a pragmatic, engineering-based roadmap to build a device that is useful in the real world: a quantum computer that has utility. Every approach we take, every solution we devise, is geared towards this goal
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