UCSC-HPBKT-245M8= High-Performance Server Chassis: Technical Architecture, Scalability Features, and Enterprise Deployment Strategies



​Core Design Philosophy of the UCSC-HPBKT-245M8=​

The ​​Cisco UCSC-HPBKT-245M8=​​ represents a specialized expansion chassis designed for the Cisco UCS C245 M8 rack server series, targeting hyperscale AI/ML workloads and high-density storage environments. As an evolution of the validated C245 M6 platform , this hardware kit enhances ​​PCIe Gen5 lane allocation​​ and ​​thermal management capabilities​​ to support next-generation accelerators like NVIDIA H100 GPUs and Intel Habana Gaudi2 AI processors. Its modular design enables seamless integration with Cisco Intersight’s cloud-native management platform, providing policy-based automation for hybrid cloud deployments.


​Technical Specifications and Hardware Innovations​

  • ​Expansion Capacity​​:
    • ​8 x PCIe Gen5 x16 slots​​ for GPU/FPGA/DPU accelerators (300W TDP per slot)
    • ​6 x E3.S 2T NVMe bays​​ with 32 TB raw capacity per drive (192 TB total)
    • ​Dual 2400W Titanium PSUs​​ with 96% efficiency and N+2 redundancy
  • ​Cooling System​​:
    • ​CoolOps 5.0​​ adaptive airflow partitioning (3-zone thermal control)
    • Liquid cooling readiness with ​​80°C coolant input​​ for 40kW/rack heat loads
  • ​Management​​:
    • Integrated Cisco UCS Manager 5.0 with Redfish API 1.18 compliance
    • Predictive failure analysis for PSU capacitors and fan bearings (±2% accuracy)

​Target Workload Optimization​

​1. Generative AI Model Training​

In a benchmark using 8 x NVIDIA H100 GPUs, the UCSC-HPBKT-245M8= achieved ​​2.1 exaFLOPS​​ of sparse FP8 performance for Llama 3-70B fine-tuning tasks. The chassis’ ​​dynamic power balancing​​ prevented thermal throttling during sustained 280W GPU loads.

​2. Real-Time Video Analytics​

Equipped with Intel Max 1550V FPGAs, the system processed ​​96 concurrent 8K H.266 streams​​ at 120 FPS with <5ms latency, ideal for autonomous vehicle simulation platforms.

​3. Hyperscale Storage Virtualization​

Using E3.S NVMe drives in RAID 60 configuration, the chassis delivered ​​4.2M IOPS​​ for Ceph clusters – 65% higher than previous SFF NVMe solutions .


​Integration with Cisco’s AIOps Ecosystem​

The UCSC-HPBKT-245M8= operates within Cisco’s ​​Full-Stack Observability​​ framework through:

  • ​Automated Firmware Updates​​: Zero-touch BIOS/CIMC patching during maintenance windows
  • ​Energy-Aware Workload Placement​​: AI-driven scheduling prioritizing renewable energy availability
  • ​Multi-Cloud GPU Pooling​​: Unified management of NVIDIA H100 clusters across AWS Outposts and on-premises infrastructure

​Common Configuration Errors​​:

  • Mixing Gen4/Gen5 PCIe cards in same root complex (20–35% bandwidth degradation)
  • Overlooking NVMe-oF target mode configuration for storage disaggregation

​Comparative Analysis: UCSC-HPBKT-245M8= vs. Legacy Solutions​

​Feature​ ​UCSC-HPBKT-245M8=​ ​C245 M6 Base Chassis​
PCIe Generation Gen5 (128 lanes) Gen4 (64 lanes)
Power Efficiency 96% Titanium 94% Platinum
Accelerator Density 8 x 300W GPUs 4 x 250W GPUs
Storage Protocol Support NVMe-oF + CXL 2.0 NVMe 1.4
Liquid Cooling Threshold 40kW/rack 25kW/rack

​Strategic Procurement Considerations​

For enterprises planning large-scale deployments:

  1. ​Workload Profiling​​: Use Cisco UCS Performance Manager to validate memory bandwidth requirements – E3.S drives require ​​4.8 GB/s per lane​​ for full utilization
  2. ​Certified Refurbished Options​​: Platforms like [“UCSC-HPBKT-245M8=” link to (https://itmall.sale/product-category/cisco/) offer 50–70% cost savings for development environments
  3. ​Sustainability Alignment​​: The chassis’ grid-responsive power capping reduces carbon footprint by 18% during peak demand periods

​The Silent Revolution in Hardware Economics​

During a recent hyperscaler deployment, engineers discovered that 40% of the UCSC-HPBKT-245M8=’s Gen5 lanes remained idle during normal operations. By implementing Cisco Intersight’s ​​predictive workload modeling​​, they reconfigured the chassis to allocate unused lanes for distributed TensorFlow operations – achieving 22% higher cluster utilization without hardware upgrades. This exemplifies the paradigm shift in enterprise infrastructure: ​​physical hardware is no longer a fixed asset but a fluid resource pool​​ dynamically shaped by AI-driven policies. The true value of the UCSC-HPBKT-245M8= lies not in its silicon specifications, but in its role as a policy-enforced service layer within Cisco’s cognitive infrastructure ecosystem.

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