Cisco NCS1K4-AC-PSU-CBL= Power Supply Cable:
Introduction to the NCS1K4-AC-PSU-CBL= The ...
The UCSX-210C-M7-NEW represents Cisco’s latest evolution in modular server architecture, optimized for GPU-accelerated AI workloads and cloud-native virtualization. Built around dual 4th Gen Intel® Xeon® Scalable processors with 60 cores/120 threads and 2.25MB L3 cache per core, this 1U compute node achieves 9.6TB/s memory bandwidth through DDR5-5600 RDIMMs – 2.4x faster than previous DDR4 implementations. Its Adaptive PCIe 6.0 Fabric dynamically allocates x16 lanes to eight NVIDIA H100 GPUs while maintaining <0.8μs latency for NVMe-oF storage traffic.
The node’s Liquid-Assisted Conduction Cooling sustains 350W TDP processors at <85°C junction temperature through predictive phase-change material algorithms.
Workload Type | UCSX-210C-M7-NEW | Previous Gen | Improvement |
---|---|---|---|
VM Density (EPYC 9754 equiv) | 1,024 | 512 | 2x |
vMotion Latency | 18ms | 42ms | 57% reduction |
NVMe-oF Throughput | 28GB/s | 12GB/s | 233% |
In VMware vSphere 8.0 deployments, 32 nodes demonstrated 99.999% availability during 1,500 concurrent vMotions while maintaining <5% performance variance.
Authorized partners like [UCSX-210C-M7-NEW link to (https://itmall.sale/product-category/cisco/) provide validated configurations under Cisco’s AI HyperCluster Program:
Q: How to mitigate NUMA imbalance in multi-GPU configurations?
A: Adaptive Memory Interleaving dynamically maps GPU VRAM to nearest DDR5 bank using PCIe 6.0 FLIT monitoring.
Q: Maximum VDI user density per node?
A: 2,048 concurrent 1080p sessions at 30fps using NVIDIA vGPU 15.0 and AV1 hardware encoding.
Q: Backward compatibility with UCS X9508 chassis?
A: Full integration with Cisco UCS X-Fabric 5.0 using 200Gbps CX7 LPC connectors.
What truly differentiates the UCSX-210C-M7-NEW isn’t its raw compute metrics – it’s the silicon-level symbiosis between x86 architecture and quantum-inspired algorithms. During recent LLM training trials, the embedded Cisco Quantum Tensor Accelerator demonstrated 98.7% accurate prediction of GPU memory bottlenecks 500μs before occurrence through real-time analysis of CUDA kernel patterns. This transforms hyperscale infrastructure from passive compute clusters to self-orchestrating neural substrates – where every transistor understands its role in the computational continuum. For enterprises navigating the zettabyte-era AI revolution, this node doesn’t merely process data – it engineers the thermodynamics of intelligence itself.