Addon XXVAOCBL1M-AO

Compatible Active Optical Cable (10GBase SFP+ to SFP+, 1 Meter)

The AddonXXVAOCBL1M-AO is a high-quality 10GBase Active Optical Cable designed for ultra-short distance connections within high-speed data networks. With a 1-meter length, this cable is ideal for direct device-to-device communication inside server racks, switches, and storage arrays where compact cabling solutions are essential.Utilizing multi-mode fiber (MMF) technology and operating at an 850nm wavelength, this Active Optical Cable ensures reliable 10 Gigabit Ethernet transmission with minimal latency and excellent signal integrity. It supports a broad range of SFP+ enabled devices, making it perfect for enterprise data centers, cloud infrastructure, and telecommunications environments demanding consistent high-speed connectivity.

Features

The AddonXXVAOCBL1M-AO employs advanced active optical technology with multi-mode fiber optics to enable full-duplex 10Gbps data transmission over a 1-meter cable length. Its SFP+ to SFP+ form factor provides broad compatibility with various network devices compliant with MSA standards.Operating at an 850nm wavelength, this cable delivers superior optical signal performance, minimizing signal loss and electromagnetic interference common in copper cables. The ultra-short 1-meter length is perfect for connecting devices within a rack or equipment chassis, optimizing cable management, and maintaining high airflow for cooling.

Advanced Options

This plug-and-play cable supports hot-swapping, allowing IT professionals to quickly replace or upgrade connections without network interruptions. Factory testing and TAA compliance guarantee quality, making it a dependable choice for critical enterprise and government network deployments.The AddonXXVAOCBL1M-AO delivers dependable 10Gbps connectivity designed for demanding data center and enterprise applications requiring ultra-short distance links. Its Active Optical Cable design ensures consistent low-latency signal transmission with superior resistance to electromagnetic interference (EMI) and reduced heat generation compared to copper counterparts.