GigaIO Fabric Card

The GigaIO™ Fabric Card is a high-performance network adapter designed to facilitate non-blocking, low-latency composable fabric computing at rack scale. It enables users in AI/ML, HPC, and data analytics to construct tailored systems that optimize performance while reducing total cost of ownership. By supporting a high-speed, cabled interface to cluster subsystems across GigaIO's AI fabric network, the Fabric Card allows for the creation of shared pools of vendor-agnostic PCIe devices, including GPUs, FPGAs, storage, and memory. This flexibility ensures seamless integration and management of disaggregated resource pools. Key Features and Functionality: - High Performance: Delivers up to 512Gb/s speed and 128GB/s bandwidth, ensuring rapid data transfer and processing capabilities. - Low Latency: Achieves latency of less than 10 nanoseconds, facilitating real-time data access and communication. - Versatile Connectivity: Equipped with dual QSFP-DD connections, supporting both copper and optical cabling options for flexible deployment. - Compact Design: Features a low-profile form factor compatible with both full-height and half-height PCIe slots, allowing for easy integration into various server configurations. - Dual Operational Modes: Offers Host Mode for installation into host or head-node servers and Target Mode for integration into Accelerator Pooling Appliances or resource boxes, enhancing adaptability across different system architectures. Primary Value and User Solutions: The GigaIO Fabric Card addresses the growing need for scalable and flexible computing infrastructures by enabling the dynamic composition of hardware resources. It allows organizations to disaggregate and recompose their computing resources on demand, leading to improved resource utilization, enhanced system performance, and reduced operational costs. By supporting a wide range of PCIe-compliant devices, the Fabric Card empowers users to build customized, high-performance computing environments tailored to their specific workload requirements.