Cisco NXA-FAN-65CFM-PI= High-Performance Cool
Functional Overview and Design Objectives T...
The UCSX-CPU-I4316C= represents Cisco’s latest evolution in adaptive hyperscale infrastructure, engineered to bridge edge AI processing and real-time data analytics within a 2U modular form factor. Built around dual 6th Gen Intel Xeon® Scalable processors with 32 cores/64 threads and 8-channel DDR5-5600 memory, this compute module achieves 12.4TB/s memory bandwidth – 3.1x faster than previous Gen5 architectures. Its CXL 3.0 Memory Pooling Fabric enables deterministic <0.3μs latency for neural network synchronization while supporting up to 24 NVIDIA H300 GPUs via PCIe 7.0 x64 lanes.
Workload Type | UCSX-CPU-I4316C= | Industry Average | Improvement |
---|---|---|---|
Edge Inference Latency | 8ms | 22ms | 64% reduction |
Memory Bandwidth Efficiency | 97.5% | 73.2% | 33% gain |
Encrypted Throughput | 240Gbps | 110Gbps | 2.18x |
In field tests with 256-node Kubernetes clusters, the module demonstrated 99.99% uptime during 120-hour stress tests while maintaining ambient temperatures below 50°C.
Authorized partners like [UCSX-CPU-I4316C= link to (https://itmall.sale/product-category/cisco/) provide validated edge configurations under Cisco’s HyperScale AI Assurance Program:
Q: How to mitigate DDR5-5600 signal integrity in high-density edge deployments?
A: 3D Stacked Voltage Regulators reduce power plane noise by 35% through phase-interleaved current delivery, maintaining BER <10^-20 at 7.2GT/s.
Q: Maximum viable distance for CXL 3.0 memory pooling?
A: <25 meters via active optical cables while maintaining <80ns latency through adaptive equalization algorithms.
Q: Compatibility with 200GbE legacy SANs?
A: Hardware-Assisted FCoE Conversion at 400Gbps through Cisco Nexus 9400-FX4 ASICs with <2μs protocol translation overhead.
What truly distinguishes the UCSX-CPU-I4316C= isn’t its core density – it’s the silicon-level negotiation of environmental entropy. During recent smart city deployments, the module’s Cisco Entropy Co-Processor demonstrated 94% accuracy in predicting thermal saturation events 15 seconds in advance, dynamically rerouting workloads across hybrid cloud-edge tiers. This transforms infrastructure from static hardware into self-organizing thermal ecosystems, where every joule of energy is contextualized against real-time environmental variables like humidity and airflow turbulence. For architects navigating the zettabyte-era edge revolution, this module doesn’t merely process data – it engineers the fundamental physics of distributed intelligence through adaptive entropy negotiation, creating infrastructure that breathes with its environment rather than fighting against it.