AI computing workloads are characterized by massive data exchange and instantaneous traffic bursts, demanding extremely low latency and ultra-high throughput from links, which must support stable high-speed transmission of 10G and above to reduce data latency and packet loss in model training and compute scheduling. MPO pre-terminated 10G optical fiber uses precision factory pre-termination technology, featuring low insertion loss and stable transmission performance that perfectly suits high-speed compute-cluster links. Its high-density multi-fiber structure streamlines cabling, reduces link failure points, and optimizes data center cooling, while supporting modular rapid expansion to efficiently meet the ever-escalating transmission demands of AI computing.
AI computing room services iterate rapidly and equipment is expanded frequently. Traditional fusion-spliced cabling is difficult and time-consuming to rework and prone to damaging links. MPO pre-terminated fiber adopts a modular pre-fabricated architecture that requires no on-site fusion splicing, so subsequent rework, commissioning, and migration involve no changes to the backbone trunk cable. Bandwidth upgrades and port expansion can be completed simply by replacing branch patch cords — zero destructive work and short construction periods, greatly reducing retrofit risks and O&M costs. Standardized interfaces provide strong compatibility, allowing smooth upgrades to 100G/400G/800G high-speed links and perfectly matching the continuous iteration and dynamic expansion requirements of AI compute clusters.
AI computing rooms are densely packed with equipment and enormous numbers of optical paths, making traditional LC single-fiber cabling bulky and space-consuming. With its integrated multi-fiber, high-density structure, MPO pre-terminated fiber greatly reduces cabling footprint, effectively saving space in cabinets, cable trays, and routing channels. The streamlined cabling system reduces cable stacking, improves ventilation and heat dissipation in the data center, and lowers link failures caused by high temperatures. Meanwhile, well-organized cabling reduces line interference and failure points, enhancing link stability, supporting dense deployment of large-scale server and storage clusters in intelligent computing centers, and enabling high-density expansion of compute equipment.