800G OSFP fiber transceiver is engineered for 800 Gigabit Ethernet connections, the flat top design 800G OSFP fiber transceiver is suitable for liquid-cooled swithches. 800G OSFP fiber transceiver integrates eight data lanes in each direction with 8×53.125GBd. Also, each lane can operate at 106.25 Gbps using PAM4 modulation, with distances of 70m via OM3 or 100m via OM4 fiber. 800G OSFP SR8 fiber transceiver features dual MTP/MPO-12 APC connectors and supports 850nm wavelength. 800G OSFP fiber transceiver can link to a single port 400G OSFP or QSFP112 transceiver. Compliant with OSFP MSA, IEEE 802.3db and IEEE 802.3ck standards.
Built for 800Gbps cabling system, below solution combines an 800G OSFP SR8 fiber transceiver with MTP|MPO cable. 800G fiber transceiver works seamlessly with NVIDIA Spectrum-4 switches and similar equipment, delivering reliable 800G high speed data connectivity.
800G OSFP fiber optic transceiver features a flat top design, which is specifically optimized for liquid cooled environments, a key advantage for modern high density data centers and high power computing systems. Come with excellent thermal performance, 800G OSFP fiber transceiver ensures stable operation even in high temperature, closed liquid-cooled cabinets, perfectly matching the operating requirements of high end computing equipment. In addition, UnitekFiber also offer OSFP fiber transceiver module with finned tops to meet your fiber optic project required.
800G OSFP fiber transceiver is fully compatible with Mellanox/NVIDIA devices, enabling seamless interconnection and plug and play functionality with Mellanox/NVIDIA's high speed switches and servers, greatly reducing deployment costs and compatibility risks for users.
At UnitekFiber, we are committed to providing high quality optical transceiver that undergo stringent testing procedures. All of 800G fiber transceivers will 100% tested before shpping. Through comprehensive and strict testing, the stability and consistency of the quality of the optical module can be ensured, thereby effectively improving the performance and reliability of the optical transceiver module.
It uses dual 12cores MPO/APC connectors, which are designed for high density, high speed optical connections in data center environments.
It is specifically designed for use with multimode fiber (MMF), as indicated by the 850nm wavelength and 50m transmission distance specification.
It primarily supports 800G Ethernet protocols, including those compliant with IEEE 802.3 standards for high speed Ethernet, making it suitable for data center interconnects and high-performance computing (HPC) networks.
Typically, it supports a commercial temperature range of 0°C to 70°C, which is standard for most data center environments.
Yes, as an OSFP form factor transceiver, it supports hot plugging, allowing for easy installation and replacement without powering down the network equipment, minimizing downtime.
We upgraded our data center's high speed links with UnitekFiber's 800G OSFP transceiver. The NVIDIA compatibility ensured seamless integration with our existing GPU accelerated systems, no compatibility hiccups at all.
The 100m transmission distance covers all our short-reach interconnect needs, and the finned top design keeps temperatures in check even under heavy load. Highly recommended for data centers needing reliable 800G connectivity.
The PAM4 modulation delivers stable 800Gbps throughput, and the DOM function lets us monitor key parameters in real time, super helpful for proactive maintenance. Installation was a breeze thanks to hot-plug support.
We chose this 800G transceiver for its balance of performance and value. Being NVIDIA compatible was a none negotiable for us, and it checks that box perfectly. The dual 12Cores MPO/APC connectors are high quality, and we haven’t had any issues with signal integrity so far.
In our high performance computing environment, speed and stability are critical. This 800G OSFP transceiver delivers on both. It integrates flawlessly with our NVIDIA networking gear, supporting the high bandwidth demands of our HPC workloads.
