AddOn ADD-QAVQMU-PDAC3M
3M Avaya to Various SFP+ DAC Passive 40GBASE-CU TAA Twinax Cable
The AddOn ADD-QAVQMU-PDAC3M is a top-quality 3-meter Direct Attach Copper (DAC) Twinax cable engineered to support 40 Gigabit Ethernet connections. This passive cable enables efficient short-range interconnects between networking devices such as switches, servers, and storage systems, without requiring separate optical transceivers. Optimized for performance and cost-efficiency, it is an ideal solution for high-performance data centers.
As a genuine AddOn product, it guarantees maximum compatibility and long-term reliability in Avaya and multi-vendor environments. With TAA compliance, this DAC cable meets strict government and enterprise procurement requirements.
Features :
Designed for robust enterprise networking, this DAC cable provides low-latency, energy-efficient connectivity. Its 3-meter length makes it perfect for intra-rack or adjacent-rack deployments, while durable shielding reduces electromagnetic interference (EMI). The passive construction keeps power consumption near zero and ensures easy maintenance with hot-swappable readiness.
Advanced Options :
Supporting the 40GBASE-CU Ethernet standard, the ADD-QAVQMU-PDAC3M ensures smooth, reliable, and high-speed transmission over a copper medium. It’s ideal for cost-conscious organizations aiming to scale their network capacity while avoiding the expense of optical transceivers. Its TAA-certified build further makes it suitable for compliance-intensive deployments.
Product Key Features
- 40 Gigabit Ethernet (40GbE) DAC interconnect
- 3-meter passive Twinax copper cable
- Cost-effective alternative to optical modules
- TAA compliant for government and enterprise requirements
- Durable shielding for reduced EMI
- Low-latency and near-zero power consumption
- 100% compatibility with AddOn certified equipment
Reliability & Performance :
The AddOn ADD-QAVQMU-PDAC3M is built to deliver consistent throughput and dependable performance for high-bandwidth environments. Its copper-based design ensures minimal latency compared to optical modules, making it perfect for applications like virtualization clusters, storage networking, and high-speed computing workloads that require stable, low-latency data transmission.
