Samba Photonics Lab supplies silicon‑photonic edge couplers, polarization‑maintaining modules, and integrated DSP ASICs that achieve sub‑0.5 dB insertion loss and real‑time link monitoring for 400 G and 800 G transceiver form factors. The AI‑assisted design and turnkey packaging enable telecom operators, data‑center interconnect vendors, and AI‑accelerator OEMs to integrate low‑loss, stable optical interfaces without extensive redesign.
Funding
Funding not disclosed
Founders
Product
Problem
Fiber-optic links increasingly demand higher bandwidth, lower latency, and tighter integration with AI accelerators, but conventional chip‑to‑fiber interfaces suffer from alignment tolerances, insertion loss, and limited polarization control, leading to performance bottlenecks in data‑center and telecom networks.
Solution
Samba Photonics Lab develops precision optoelectronic components that improve the electrical‑optical interface for high‑speed fiber links. The company leverages AI‑assisted design and advanced silicon photonics to produce low‑loss chip‑to‑fiber couplers, polarization‑maintaining modules, and signal‑processing ASICs that together reduce insertion loss and enhance link stability. Their solutions are delivered as turnkey modules that can be integrated into transceiver boards or AI accelerator packages, enabling customers to meet emerging data‑rate standards without extensive re‑engineering. By providing both hardware and accompanying firmware for real‑time link monitoring, Samba helps network operators and equipment manufacturers maintain performance margins as traffic loads grow.
Target Audience
Primary customers are telecom operators, data‑center interconnect vendors, and AI‑accelerator OEMs that require high‑performance, low‑loss optical interfaces for next‑generation networking equipment.
Features
- Silicon‑photonic edge couplers with sub‑micron alignment tolerance and <0.5 dB insertion loss across 1310 nm–1550 nm bands
- Polarization‑maintaining waveguide structures that preserve state of polarization for coherent detection schemes
- AI‑driven layout optimization engine that reduces design cycles and predicts thermal‑optical effects
- Integrated DSP ASICs for adaptive equalization and real‑time bit‑error‑rate monitoring
- Modular packaging compatible with standard 400 G and 800 G transceiver form factors
- Automated test‑and‑characterization platform supporting high‑volume manufacturing and statistical process control
- Compliance with ITU‑T and IEEE optical‑interface specifications, including OIF and MSA standards