Quantum Logic designs fabless active electronic components that perform nonlinear frequency conversion and cryogenic‑optimized multiplexing to turn densely encoded signals into precise control outputs at deep‑cryogenic temperatures.
Funding
Funding not disclosed
Founders
Product
Problem
Designing active electronic components that operate reliably at deep cryogenic temperatures is challenging because most semiconductor processes and standard wiring solutions are not optimized for such environments, limiting the ability to process densely encoded signals for emerging cryogenic systems.
Solution
Quantum Logic develops fabless active components that perform nonlinear frequency conversion and cryogenic‑optimized multiplexing to transform densely encoded inputs into precise control outputs at deep cryogenic temperatures. The circuits are designed with industry‑standard process design kits (PDKs) and fabricated in commercial foundries, ensuring compatibility with existing semiconductor manufacturing flows. Because the components are compatible with any commercial cryogenic wiring or interconnect solution, customers can integrate them into their preferred hardware stacks without custom packaging. This approach enables scalable signal‑processing architectures for next‑generation cryogenic electronic systems such as quantum computers, superconducting sensors, and low‑temperature communication networks.
Target Audience
Primary customers are developers of quantum computing hardware, superconducting sensor arrays, and other cryogenic electronic systems that require high‑performance signal processing at millikelvin temperatures.
Features
- Nonlinear frequency conversion circuits tailored for deep‑cryogenic operation
- Cryogenic‑optimized multiplexing to handle high‑density signal streams
- Design using standard PDKs for seamless integration with commercial foundry processes
- Compatibility with any commercial cryogenic wiring or interconnect solution
- Fabless model that leverages existing semiconductor manufacturing ecosystems