
Subscribe To Our Newsletter!
Subscribe to the newsletter to stay up to date with the latest news and most useful
Newsletter
↑
Back to Top
| Product Overview |
|---|
The MCP4Y10-N001 NVIDIA Mellanox 1 Meter 800GbE OSFP to OSFP Passive Copper Cable offers a straightforward way to connect high-speed OSFP ports over short distances. It fits cleanly into data center environments, providing a reliable, low-latency link that supports the heavy data demands of modern servers and networking gear. |
| General Information | |
|---|---|
| Brand | Mellanox |
| Part Number | MCP4Y10-N001 |
| Technical Information | |
|---|---|
| Cable Family | DAC/AOC |
| Cable Type | Direct Attach Cable (DAC) |
| Data Rate | 800Gb/s |
| Cable Length | 1 m |
| Compatibility | OSFP ports on Mellanox / NVIDIA adapters and switches; OSFP-compliant equipment supporting 800GbE |
| product type | Passive Copper Cable (Direct Attach) |
| Product Category | Network Cables |
| Connectivity | |
|---|---|
| Connector A | OSFP |
| Connector B | OSFP |
| Cable Connector Gender | Male to Male |
| Connector Type | OSFP to OSFP |
| Physical Characteristics | |
|---|---|
| Form Factor | OSFP |
| Condition | Refurbished |
| Product Description |
|---|
The MCP4Y10-N001 is a 1-meter passive copper cable designed to connect devices using OSFP interfaces at speeds up to 800GbE. This cable is often found in data centers and high-performance computing environments where quick and reliable data transmission is critical. Built for use with NVIDIA Mellanox equipment, it suits network engineers and IT professionals who require robust connectivity for servers, switches, and storage arrays. Passive copper cables like this provide energy-efficient solutions without the need for additional power. Key Features
This cable is typically deployed in server racks and network closets where short-distance, high-bandwidth connections are necessary. It plays a pivotal role in maintaining smooth data flow across enterprise and cloud infrastructure setups, helping to keep systems running efficiently without unnecessary energy use. |