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CASE STUDY
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High-Performance Virtualization with Native-Class GPU Execution

Delivered near-native compute and graphics performance within virtualized environments, enabling advanced workloads traditionally restricted to physical systems.

Situation

The client required virtualization infrastructure capable of supporting compute- and graphics-intensive workloads without performance degradation. Existing solutions introduced latency, limited GPU utilization, or degraded user experience, making them unsuitable for high-performance applications.

Solution

A hardware-integrated virtualization platform was developed with full GPU passthrough and performance optimization. The architecture allowed virtual machines to utilize physical GPUs as if running on bare metal systems.

OUTCOMES

4x more
real-time workloads/host
92% retained
GPU throughput in-guest
Matched parity
with direct display

Challenges

Performance

  • GPU utilization limits
  • Virtualization latency
  • Rendering pipeline bottlenecks

Experience

  • Degraded graphics responsiveness
  • Inconsistent application behavior

Solutions

01

Direct GPU Passthrough

Direct GPU passthrough enabling native rendering pipelines.

  • Enabled direct access to physical GPU hardware
  • Preserved native rendering pipeline behavior
  • Eliminated virtualization translation overhead
02

Hardware-Level Optimization

Hardware-level tuning to ensure minimal overhead between guest and host.

  • Tuned host-guest interaction at hardware boundaries
  • Reduced scheduling and transfer latency
03

Peripheral Integration

Support for full peripheral integration, with direct display output.

  • Supported integrated peripheral device workflows
  • Preserved native operator interaction experiences
04

Memory/CPU Scheduling

Optimization of memory and CPU scheduling to reduce virtualization latency.

  • Optimized CPU allocation for compute-intensive tasks
  • Reduced memory access overhead across layers
  • Improved responsiveness for real-time workloads