
Social networking, machine learning, and big data analytics demand ever-increasing network connectivity. RANOVUS, with operations in Ottawa, Canada, Nuremberg, Germany, and San Jose, USA, is a solution provider for the next generation data center infrastructures. We aim to deliver advanced technology that minimizes environmental impact through lower power dissipation. Working with world class fabrication partners, RANOVUS is the leader in the application of unique new technologies to fiber-optic communications products for data-centers.
We are seeking a highly skilled, independent, and detail-oriented Silicon Photonics Designer and Tester Engineer to join our team. The successful candidate will have a Master or PhD degree in Engineering Physics or Electrical engineering and at least 2 years of experience in silicon photonics design and testing, supporting various research and development projects in a collaborative laboratory environment.
Key Responsibilities:
Qualifications & Skills:
Preferred Qualifications:
Work Environment: You will be part of a friendly and welcoming team where colleagues are always willing to share knowledge and help solve challenges together. We value a balanced mix of independent problem-solving and teamwork, ensuring both personal growth and collective success.
If you are passionate about silicon photonics technology and enjoy working in a supportive, engaging, and dynamic lab setting, we encourage you to apply!

The world-class team of scientist and engineers at Ranovus is comprised of professionals with a unique combination of decades of expertise in product development of optoelectronics components and transceiver subsystems for the information technology industry.
Ranovus' disruptive innovation in Quantum Dot Multi-Wavelength Laser combined with advanced digital and photonics integrated circuit technologies is setting a new industry benchmark for the next generation of optical interconnect solutions.
Our technology delivers significant reduction in power dissipation, size and cost of interconnects, and enables a much higher degree of distortion tolerance compared to traditional solutions, thereby enabling a "freeway" architecture to reduce network latency.