Research Intern
NanoQT
Research Intern
NanoQT
Fiber-connected quantum processor and repeater
Description
NanoQT is offering internship for both Master's and PhD candidates. Gain in-depth experience in quantum optics, ultracold atoms, and their applications to quantum computing. Join Japan's first startup, pioneering hardware for quantum computing and quantum networking, and the world's first commercialization attempt using optical cavity QED for quantum computing and quantum networking.
Available topics
Analog/digital electronic development
Optical setups for laser cooling, probing atoms
Programming of control system
Nanofiber cavity development
and more
Benefits
Opportunity to work closely with leading experts in the fields of in quantum optics, ultracold atoms
Hands-on experience in cutting-edge research and development projects
Possibility of co-authoring scientific publications or presenting research findings at conferences
Education, Experience, Requirements
You must be a Master's or PhD student to be eligible for the program.
Qualifications / Skills
Highly organized with excellent attention to detail
Effective oral and written communication abilities
Ability to work well both independently and collaboratively
Japanese fluency is NOT mandatory
Compensation
Competitive stipend based on qualifications and experience.
Please note that compensation details may vary depending on the specific internship program.
Candidates will be provided with more specific information during the interview process.
Other details
Duration: 3-6 months to 1 year (Flexible based on candidate's requirements)
Hours: 20-40 hours per week (Flexible schedule)
Location: Shinjuku, Tokyo, Japan
NanoQT builds quantum hardware using nanofiber cavity QED to connect atoms and photons in an all-fiber system. Its core product is a fiber-connectable Quantum Processing Unit that acts as both a quantum processor and a quantum repeater/interconnect, enabling long-distance, high-fidelity quantum links over existing fiber networks. It uses neutral atoms as qubits and photons as information carriers, enabling distributed quantum computing and a quantum internet with telecom compatibility. The goal is to enable ultra-long-distance quantum communications and scalable quantum networks by connecting quantum processors across global telecommunications infrastructure.
Explore more opportunities at NanoQT