Optoelectronic Design Engineer
QuiX Quantum
Optoelectronic Design Engineer
QuiX Quantum
Photonic quantum processors for room-temperature computing
Optoelectronic Design Engineer
at QuiX Quantum BV/GmbH
Netherlands/Germany
Optoelectronic Design Engineer
QuiX Quantum is pioneering advancements in photonic quantum computing, a dynamic and rapidly evolving field. Since our founding in 2019, we have achieved world records in quantum photonic processing. As we continue to expand, we're excited to add a Optoelectronic Design Engineer to our team. This flexible, hybrid position requires a minimum of one day in the office each week and offers work locations in Germany or the Netherlands.
Key Responsibilities:
Required Qualifications:
Preferred Qualifications:
Personal Attributes:
What to expect from us:
Join a fast-paced, innovative start-up where your work directly impacts our growth and direction. You’ll be part of a diverse, dynamic team, each member bringing unique expertise to challenging, high-tech projects. This hybrid position offers flexibility, with a minimum of one day per week in the office and options to work in Germany or the Netherlands. Our working language is English, fostering a collaborative international environment.
Employment Conditions:
This is a full-time position with a competitive salary based on your education and experience. We offer generous vacation time, extensive educational opportunities, a pension plan, and start-up benefits. Participation in our equity plan is available after the first year.
Thank you for considering a career with us. We look forward to your application!
Photonic quantum processors for room-temperature computing
QuiX Quantum develops quantum photonic processors and complete quantum computing systems that operate at room temperature using photons in reconfigurable silicon nitride waveguides (TriPleX) to form universal, tunable interferometers. A fabless model means they design the chips and IP in-house but contract fabrication to specialized foundries; their processors route photons through low-loss on-chip circuits to realize quantum interference. Compared with others, they emphasize room-temperature photonics, high qumode counts on compact chips, and a proven track record with large-scale processors and a DLR sale, plus cloud-based remote access. Their goal is to deliver a first-generation universal photonic quantum computer by 2026 and enable broader access through cloud services and collaborations.
Explore more opportunities at QuiX Quantum