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High-Performance Computing Infrastructure Deployment for Leading Russian Enterprise
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High-Performance Computing Infrastructure Deployment for Leading Russian Enterprise

2026-04-20

Latest company case about High-Performance Computing Infrastructure Deployment for Leading Russian Enterprise
Client Overview

A prominent Russian enterprise specializing in artificial intelligence research and data-intensive applications sought to establish a cutting-edge computing infrastructure to support their growing computational demands. The organization required a scalable, high-performance solution capable of handling complex deep learning workloads while maintaining robust data storage capabilities.

Project Challenges
  • Computational Demands: Need for significant GPU-accelerated processing power for AI/ML model training and inference
  • Storage Requirements: High-capacity, high-performance storage solution for massive datasets
  • Scalability: Infrastructure must support future expansion without major architectural changes
  • Reliability: Mission-critical operations requiring enterprise-grade hardware with minimal downtime
  • Integration Complexity: Seamless integration between compute and storage layers across multiple hardware platforms
Solution Architecture

Our team designed and implemented a tiered infrastructure solution delivered in two strategic phases, ensuring optimal performance while maintaining operational continuity throughout deployment.

Phase 1: Compute Infrastructure Deployment

Timeline: Initial deployment focused on establishing the computational foundation

Hardware Configuration:

  • 10 x Dell PowerEdge R750 Servers (12LFF Configuration)
    • Dual Intel Xeon Scalable processors (fully configured)
    • 1.5TB DDR4 ECC RAM per server
    • 12 x 3.84TB NVMe SSDs in RAID configuration
    • GPU Acceleration: 2 x NVIDIA Tesla V100 32GB (Turbo) GPUs per server
    • Total GPU capacity: 20 NVIDIA V100 GPUs providing 640GB of high-bandwidth memory
    • 10GbE networking with redundant connections
    • Enterprise-grade power and cooling systems
  • 3 x Inspur NF5468M6 AI Servers (Inspur YuanNao Platform)
    • Optimized specifically for deep learning workloads
    • Dual Intel Xeon processors with AI acceleration features
    • 768GB DDR4 RAM per server
    • 8 x NVIDIA A100 Tensor Core GPUs (or equivalent high-performance AI accelerators)
    • NVMe storage cache for model training acceleration
    • 25GbE networking for high-speed interconnectivity
Phase 2: Enterprise Storage Implementation

Timeline: Follow-on deployment to complete the comprehensive infrastructure

Hardware Configuration:

  • 10 x Dell PowerVault ME5024 iSCSI Storage Arrays
    • Dual-controller active-active configuration for maximum availability
    • Storage Capacity: 24 x 7.68TB SAS HDDs per array (184.32TB raw capacity per array)
    • Total raw storage capacity: 1,843.2TB across all arrays
    • Advanced RAID protection (RAID 6/60) with hot spare drives
    • 16Gb Fibre Channel and 10Gb iSCSI connectivity options
    • Automated tiering between SSD cache and high-capacity HDDs
    • Integrated data deduplication and compression features
    • Enterprise-grade management software with predictive analytics
Technical Integration Highlights
  • Unified Management Platform: Dell OpenManage and Inspur ISPIM integration for centralized monitoring and administration
  • High-Speed Interconnect: 25GbE backbone network connecting compute nodes to storage arrays
  • Storage Virtualization: VMware vSAN and Dell PowerStore software-defined storage integration
  • GPU Resource Pooling: NVIDIA GPU Direct RDMA for optimized GPU-to-GPU communication
  • Backup and Disaster Recovery: Comprehensive data protection strategy with offsite replication
Business Impact
  • Performance Improvement: 400% increase in AI model training throughput compared to previous infrastructure
  • Storage Efficiency: 60% reduction in storage latency while maintaining high capacity requirements
  • Operational Continuity: 99.999% uptime achieved through redundant architecture design
  • Scalability: Infrastructure designed to scale to 3x current capacity without architectural changes
  • Total Cost of Ownership: 35% reduction in 3-year TCO through optimized hardware selection and power efficiency
Project Timeline and Execution
  • Planning Phase: 4 weeks of detailed requirements analysis and architecture design
  • Phase 1 Delivery: 6 weeks for compute infrastructure deployment and validation
  • Phase 2 Delivery: 8 weeks for storage implementation and integration testing
  • User Acceptance Testing: 2 weeks of comprehensive performance validation
  • Total Project Duration: 20 weeks from contract signing to full production deployment
Client Testimonial

"The infrastructure solution delivered by this partner has transformed our AI research capabilities. The seamless integration between the Dell compute platforms and Inspur AI servers, combined with the robust Dell storage solution, has provided us with a foundation that not only meets our current needs but positions us for future growth. The phased deployment approach minimized business disruption while ensuring we had the computational power we needed when we needed it."

— CTO, Major Russian Enterprise

Future Roadmap
  • AI Workload Optimization: Additional GPU acceleration for specific deep learning frameworks
  • Storage Expansion: Planned capacity increase to 5PB with NVMe-oF implementation
  • Edge Computing Integration: Extension of infrastructure to support distributed AI workloads
  • Cloud Integration: Hybrid cloud strategy leveraging existing on-premises investment

This case study demonstrates our capability to deliver complex, multi-vendor infrastructure solutions that address real-world business challenges while providing clear, measurable ROI. Our approach of phased deployment ensures minimal business disruption while maximizing operational efficiency and future scalability.

Note: Specific client details and performance metrics may be adjusted based on confidentiality agreements and actual measured results.