BlueOptics BlueLAN 10GBASE-CR SFP+ a SFP+ Direct Attach pasivo, 5 m, AWG24, compatible con Lenovo 81Y8297

The BlueOptics BlueLAN 10GBASE-CR Passive SFP+ to SFP+ Direct Attach Cable (DAC) is a high-performance, cost-effective solution for short-range 10 Gigabit Ethernet connectivity. Designed to be fully compatible with Lenovo 81Y8297 networking equipment, this passive copper cable delivers reliable, low-latency data transmission over distances up to 5 meters. Ideal for data centers, server rooms, and enterprise networks, it provides a simple plug-and-play alternative to fiber optic transceivers and cabling.

Advantages

This DAC cable offers several key benefits: it is hot-swappable, requires no external power (consuming less than 0.1W), and features ultra-low latency for high-performance computing environments. The passive design ensures zero power consumption from the host device, while the AWG24 copper construction provides excellent signal integrity and low EMI/RFI interference. Compliance with SFF-8431 and SFF-8432 standards guarantees interoperability and reliability.

Suitable for

• Data centers requiring high-density 10GbE connections
• Server and storage area network (SAN) deployments
• Enterprise network switches and routers
• Short-range backbone links within racks or adjacent racks

Key specifications

• Product Type: Direct Attach Cable (DAC)
• Cable Type: SFP+ to SFP+
• Data Transfer Rate: 10 Gbps
• Ethernet Standard: 10GBASE-CR
• Cable Length: 5 meters
• Wire Gauge: AWG24
• Cable Design: Passive
• Connector Type: SFP+ (both ends)
• Compatibility: Lenovo 81Y8297
• Hot-Swappable: Yes
• Compliance Standards: SFF-8431, SFF-8432
• Impedance: 100 Ohm
• Operating Temperature: 0°C to 70°C
• RoHS Compliant: Yes
• Cable Material: Copper

Recommendations

For optimal performance, ensure that both connected devices support SFP+ 10GBASE-CR modules. This cable is a direct replacement for Lenovo 81Y8297 and is fully tested for compatibility. It is recommended for use in environments where low power consumption and minimal latency are critical.