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Imec seeks a Principal DTCO/STCO leader to drive cross-layer co-optimization for quantum systems, spanning qubit devices, cryogenic CMOS control, interconnect and system architecture. You will translate device physics and wiring constraints into scalable architectures, lead multi-disciplinary teams, and shape roadmaps for fault-tolerant quantum compute across industrial and academic collaborations.
Strong emphasis on model-based design, software-friendly validation, and long-term industry
As Principal DTCO/STCO Lead, you will drive cross-layer co-optimization across qubit devices, cryogenic CMOS control, interconnect, and system architecture. You will translate technology limits into system-level insights and help define scalable architectures for future quantum systems.
Your responsibilities include:
At imec, you will be part of an international research environment where advanced semiconductor technology is used to address some of the world’s most complex technical challenges.
We offer you the opportunity to work at the intersection of quantum devices, cryogenic electronics, system architecture, and semiconductor scaling. You will help define how integrated quantum systems can move from promising concepts toward scalable, fault-tolerant architectures.
You will collaborate with world-class researchers, technical experts, and industrial partners in a pre-competitive setting, while contributing to imec’s broader quantum compute roadmap.
For this position, the expected salary range is $145,000 - $180,000 annually, depending on experience, qualifications, internal equity, and location.
You are a principal-level DTCO/STCO leader with deep experience across quantum devices, cryo-electronics, digital and mixed-signal architecture, and system-level modeling.
You understand how device physics, interconnect limitations, thermal constraints, and control requirements propagate into firmware, architecture, error correction, and overall system performance.
You combine architectural thinking with hands-on technical rigor. You are fluent in system abstraction, modeling, validation, and trade-off analysis, especially in cryogenic, quantum, or otherwise unconventional operating environments.
You are comfortable leading multi-domain teams in a pre-competitive industrial research setting and translating complex research into clear roadmap impact.
You are motivated by the challenge of turning integrated technology concepts into scalable, fault-tolerant quantum systems through DTCO/STCO research.
You have: