Lizard Photonics develops a nanoelectromechanical integrated photonics platform that combines photonic circuits with nanoscale mechanical motion for tunable, compact, and low-power light-based systems. The company offers full-stack services spanning custom photonic circuit design, wafer-scale nanofabrication with sub-10 nm resolution, and optical testing and packaging. Their technology targets applications in data centers, quantum technologies, and advanced sensing.
Funding
Funding not disclosed
Founders
Product
Problem
Conventional photonic integrated circuits (PICs) offer limited tunability and precision, constraining performance in advanced applications such as quantum technologies, optical interconnects, and high-fidelity sensing. Scaling these systems to meet next-generation demands requires compact device footprints with ultra-low power consumption, which standard fabrication and design approaches struggle to deliver.
Solution
Lizard Photonics provides a nanoelectromechanical integrated photonics platform that merges high-performance photonic circuits with nanoscale mechanical motion, enabling unprecedented levels of tunability, precision, and integration. The company delivers full-stack development services, from custom circuit design and state-of-the-art nanofabrication through wafer-scale characterization and optical-fiber packaging. Leveraging fabrication processes honed for high yield and reliability, the platform achieves waveguide losses below 0.2 dB/cm and supports sub-10 nm resolution structures. This application-driven engineering approach creates scalable, compact photonic solutions for quantum systems, data centers, and advanced sensing technologies.
Target Audience
The primary customers are R&D labs, industry partners, and academia developing optical interconnects, quantum technologies, and advanced sensing systems that require high-performance, scalable integrated photonics.
Features
- Novel nanoelectromechanical photonics platform enabling strong light–matter interactions, compact device footprints, and ultra-low power consumption
- Custom photonic circuit design using advanced simulation tools and multi-physics modeling with fabrication constraints incorporated for scalability
- State-of-the-art nanofabrication with sub-10 nm resolution structures, wafer-scale production, and waveguide losses below 0.2 dB/cm
- Wafer-scale optical and electrical characterization using high-precision measurement systems, plus packaging designed for robustness and system-level compatibility
- Patented proprietary platform with novel proximity-error-correction software for high-fidelity nanostructures