Red Blue Quantum provides a turnkey service that converts theoretical superconducting circuit designs into fabrication‑ready layouts, manufactures custom Nb/Al multi‑layer chips in a Class‑1000 cleanroom, and offers remote access to dilution refrigerators for low‑temperature testing. The platform includes high‑frequency simulation, sub‑100 nm lithography, automated packaging, and cloud‑based data acquisition to accelerate experimental cycles for academic and corporate quantum research.
Funding
Funding not disclosed
Founders
Product
Problem
Researchers in quantum computing, quantum simulation, and superconducting materials often have theoretical concepts that cannot be directly realized because they lack expertise in translating those ideas into viable superconducting circuit layouts, access to precision cleanroom fabrication, and the ability to perform low‑temperature characterization on dilution refrigerators.
Solution
Red Blue Quantum offers a turnkey platform that bridges the gap between theory and experiment for superconducting circuits. The service begins with a collaborative design phase where theoretical specifications are converted into fabrication‑ready schematics using industry‑standard EDA tools and microwave engineering practices. Custom chips are then manufactured in a Class‑1000 cleanroom equipped with multi‑layer Nb/Al thin‑film deposition, electron‑beam lithography, and plasma etching, ensuring sub‑micron feature control and low‑loss resonator performance. After fabrication, clients gain on‑demand remote access to a dilution refrigerator system for cryogenic testing, with real‑time data acquisition and analysis support. Throughout the workflow, Red Blue Quantum provides technical guidance to optimize device parameters, streamline integration, and accelerate experimental cycles for both academic and commercial projects.
Target Audience
Primary customers are university quantum physics labs, corporate R&D groups developing superconducting quantum processors, and materials‑science teams requiring custom superconducting circuit prototypes for experimental validation.
Features
- End‑to‑end design translation from theoretical models to GDSII layout using high‑frequency simulation and parametric optimization
- Multi‑layer superconducting thin‑film deposition (Nb/Al) with sub‑10 nm thickness control and low‑dielectric loss processes
- Electron‑beam and deep‑UV lithography for sub‑100 nm feature definition, enabling high‑Q resonators and complex qubit geometries
- Wafer‑scale processing with automated dicing, wire‑bonding, and package assembly in a certified quantum‑grade cleanroom
- Remote, on‑demand access to a dilution refrigerator (≤ 10 mK) with programmable pulse sequencing, vector network analysis, and time‑domain measurements
- Integrated data acquisition pipeline delivering calibrated S‑parameter and time‑trace datasets via secure cloud storage
- Technical support for device tuning, coherence optimization, and integration with existing quantum control stacks (e.g., Qiskit‑Pulse, LabOne)