2D Photonics develops graphene-integrated photonic circuits for optical transceivers, enabling higher bandwidth density and lower energy consumption for GPU-to-memory interconnects. Their technology overcomes signal loss limitations of copper links, providing efficient optical solutions for AI, data centers, and telecommunications.
Funding
Funding not disclosed
Founders
Product
Problem
The increasing demand for data traffic, particularly for high-performance AI workloads, is constrained by inefficient interconnects between GPUs and memory. Traditional copper links suffer from signal loss over distance, necessitating complex and costly modulation formats that increase energy consumption.
Solution
2D Photonics addresses this challenge by developing graphene-integrated photonic circuits (GIP) for next-generation optical transceivers. Their technology leverages the unique electro-optical properties of graphene to create devices with reduced electronic complexity, lower energy consumption, and higher channel density. This enables more efficient optical interconnections between GPUs and High Bandwidth Memory (HBM), overcoming the limitations of current interconnect solutions. The company's proprietary manufacturing and integration process allows for high-yield production of photonic integrated circuits (PICs) featuring single-crystal graphene in both modulator and detector elements. This results in superior bandwidth density, reduced capital and operational expenditures for customers, and enhanced scalability for future data traffic demands.
Target Audience
Primary customers include manufacturers of telecommunications and datacom components, particularly those developing high-performance optical transceivers for AI, data centers, and advanced communication systems.
Features
- Graphene Integrated Photonics (GIP) technology for optical transceivers.
- Integration of single-crystal graphene into modulator and detector elements of PICs.
- Achieves high bandwidth density and high traffic capacity.
- Offers reduced energy consumption and lower insertion loss compared to traditional solutions.
- Operates across O, C, and L wavelength bands, providing wavelength independence.
- Compatible with silicon foundry manufacturing processes for scalable production.
- Enables uncooled operation, reducing CapEx and OpEx.
- Facilitates streamlined optical interconnections for AI, data centers, and telecommunications.