![[Silicon photonics integration]](img/silicon-photonics.png)
Silicon photonics integrates optical and electronic devices on silicon to enable efficient transmission and processing of signals in the optical domain. Compared with traditional electrical interconnects, it offers ultra-high bandwidth, ultra-low power, and compact footprint—a key technology for removing data-transfer bottlenecks in data centers, high-performance computing, and AI clusters.
![[OCS optical switching overview]](img/ocs-overview.png)
Beeplux's in-house Optical Circuit Switching (OCS) technology enables high-speed, low-latency data transport with all-optical paths and supports dynamic topology reconfiguration. Optimized for large "elephant flows," it is well suited for AI training and other high-performance workloads. We have mass-produced 8×8 OCS chips and are scaling toward 128×128 to build next-generation, high-port-count, low-power optical interconnect architectures.
![[Optical I/O (OIO) chiplet]](img/optical-io-chiplet.png)
Beeplux provides leading high-speed optical interconnect technologies spanning 400G to 1.6T optical engines, with advanced Co-Packaged Optics (CPO) capabilities and ongoing development of Optical I/O (OIO) chiplets. Our interconnect solutions enable high-bandwidth, low-power communication between switching silicon and compute silicon, compatible with PCIe, Ethernet, and various proprietary protocols—significantly increasing bandwidth between chips and boards to accelerate data centers, AI clusters, and cloud-scale systems.
Packaging options: Supports Near-Packaged Optics (NPO) and Co-Packaged Optics (CPO) advanced packaging.
![[Core process and IP]](img/core-process-ip.png)
We own key processes and proprietary IP spanning design through manufacturing:
We deliver a portfolio of products built on leading silicon photonics, designed to overcome conventional interconnect bottlenecks and meet next-generation data communication needs—helping customers build efficient and reliable optical interconnect infrastructure.
![[OCS switch product]](img/ocs-switch-product.png)
We offer OCS products from board-level 8×8 up to 128×128 optical cross-connects to enable high-speed GPU-to-GPU interconnects, with a roadmap toward 1024×1024 architectures. Key advantages include temperature insensitivity, polarization insensitivity, low insertion loss, and fast switching. Built on a non-blocking architecture and supporting hot-swap, our systems are designed for stable operation in complex data-center environments and meet the stringent bandwidth and reliability requirements of hyperscale AI clusters.
![[Optical interconnect module overview]](img/optical-transceiver-module.png)
We provide 400G, 800G, 1.6T, and higher-rate optical engines and modules, compatible with mainstream interfaces such as PCIe and Ethernet. Core offerings include multi-protocol, high-density, low-power optical I/O chiplets supporting NPO/CPO advanced packaging—delivering flexible and efficient optical interfaces for compute and networking equipment.
![[Silicon photonics FMCW LiDAR]](img/fmcw-lidar.png)
Built on silicon photonics, this product replaces the complex fiber structures found in traditional FMCW systems to achieve high integration and significant cost reduction. It supports high-precision ranging within 100 meters and can be customized for scanning methods (e.g., semi-solid-state scanning), ranging accuracy (down to sub-millimeter), and target statistics.
![[Optical switching network architecture]](img/optical-switching-architecture.png)
By introducing a hybrid optical-electrical switching architecture, OCS handles sustained high-bandwidth "elephant flows" while traditional electrical switching handles bursty, small "mice flows." This approach can significantly reduce data-center hardware counts (e.g., Spine switches and optical modules), lowering overall power consumption and latency and improving total cost of ownership.
Benefits: Compared with all-electrical architectures, it can reduce electrical switch counts by up to 87%, cut power by ~40%, and reduce latency by ~10% (based on Google Apollo OCS case study).
![[AI/HPC optical interconnect illustration]](img/ai-hpc-interconnect.png)
To address communication bottlenecks in large-scale GPU/accelerator clusters for AI training and HPC, our OCS solutions provide a dynamically reconfigurable, high-speed direct-connect network. Across tensor parallel (TP), pipeline parallel (PP), and data parallel (DP) training, OCS optimizes communication paths, reduces cross-node latency, and significantly improves training efficiency and compute utilization.
Use cases: Parallel training optimization for GPT-3, BERT, Switch Transformer, long-context models, and more.
![[Modular high-performance sensing]](img/modular-sensing.png)
For sensing in complex environments, we provide modular, high-precision sensor solutions covering wide-range wind measurement, millimeter-level ranging beyond 100 meters, in-field speed measurement, and MHz-level picometer vibration detection. Our products emphasize high reliability and customization for a broad range of intelligent systems and industrial applications.
Applications: Smart manufacturing, unmanned systems, smart cities, environmental monitoring, structural health monitoring, and more.
Beeplux Semiconductor was founded in 2022 as a high-tech company focused on silicon photonics R&D and productization, aiming to become a global leader in optical interconnect solutions. We are among a small group of companies building a mass-production-ready, end-to-end silicon photonics capability, addressing compute interconnect bottlenecks in the era of big data and AI.
![[Beeplux core strengths]](img/core-strengths.png)
![[Core team]](img/core-team.png)
We collaborate with leading companies and research institutions worldwide to advance the silicon photonics ecosystem:
Enflame Sitrus H3C Inspur SITRI ICRD Qingxin SemiconductorThe Shanghai Science and Technology Commission's Strategic Frontier Program includes three silicon photonics directions: optical switching, optical interconnect, and optical computing. The optical switching track—focused on scalable optical switching chips and systems—is undertaken by Beeplux Semiconductor. >>Read more
We look forward to connecting with you and exploring the potential of silicon photonics in data centers, AI, and high-performance computing. Please reach out for inquiries and collaboration.
