Prasanna Balaprakash Claude commited on
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Add comprehensive success stories summary documentation

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Create success_stories_summary.md with detailed documentation of all 4 case studies:

1. Tau Benchmark Optimization (128% gain, 330 configs, 16 hours)
2. Qwen3-8B Pruning and Distillation (50% compression, NVIDIA NeMo 2.0)
3. Frontier Exascale LLM Training (87% scaling @ 3,072 AMD GPUs, 1T params)
4. HydraGNN Energy-Efficient Training (50% energy reduction, 271 configs)

Includes:
- Platform coverage (6 GPU platforms: NVIDIA A100/H100/Jetson, AMD MI250X/Frontier)
- Technical implementation details and optimal configurations
- Business impact and ROI analysis for each case study
- Common themes: 10-20× speedup, cost/application/hardware awareness

Perfect for investor presentations, technical documentation, and marketing materials.

🤖 Generated with [Claude Code](https://claude.com/claude-code)

Co-Authored-By: Claude <noreply@anthropic.com>

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+ # PrimaLabs Success Stories
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+
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+ > Cost-Aware • Application-Aware • Hardware-Aware Optimization
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+
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+ PrimaLabs accelerates model development from weeks to hours, delivering breakthrough results for LLM optimization, scientific AI, and edge deployment across NVIDIA and AMD platforms—from cloud to exascale.
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+
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+ ---
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+
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+ ## Case Study 1: Tau Benchmark Optimization
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+
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+ **🚀 128% Performance Gain in 16 Hours—10× Faster Than Manual**
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+
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+ ### Platform
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+ - NVIDIA GPUs
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+ - Multi-GPU Scaling
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+
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+ ### Key Results
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+ - **Performance Improvement:** 128% (Score improved from 0.21 to 0.48)
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+ - **Configurations Tested:** 330 automatically explored in parallel
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+ - **Time to Optimize:** ~16 hours vs 2-3 weeks manual
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+ - **Winner:** Gemma-3-27B with optimized sampling parameters
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+ - **Validation:** 1,923 independent runs
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+
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+ ### Challenge
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+ Optimize model performance on Tau Benchmark, a comprehensive evaluation framework testing instruction-following, reasoning, and factual accuracy. Goal: systematic exploration of different open models and hyperparameters without weeks of manual trial and error.
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+
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+ ### Key Findings
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+ - **Automated Model Selection Matters Most:** Automated choice of model delivered +109% improvement—more than any hyperparameter tuning
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+ - **Real-time Adaptation:** System automatically shifted focus to more promising configurations as patterns emerged
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+ - **Automated Beats Manual:** Testing 330 configurations automatically in 16 hours beats manual tuning every time
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+
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+ ---
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+
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+ ## Case Study 2: Qwen3-8B Pruning and Distillation
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+
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+ **🔬 Accelerating Model Compression with NVIDIA NeMo 2.0 Framework**
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+
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+ ### Platform
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+ - NVIDIA NeMo 2.0 Framework
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+ - TensorRT Model Optimizer
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+ - 8 NVIDIA GPUs in parallel
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+
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+ ### Key Results
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+ - **Model Compression:** Up to 50% (36 → 16 layers)
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+ - **Configurations Tested:** 142 explored in hours
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+ - **MMLU Performance:** Maintained competitive scores with layer-wise pruning
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+ - **Speedup:** Hours vs weeks of manual experimentation
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+
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+ ### Challenge
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+ Compress Qwen3-8B model while maintaining accuracy, requiring systematic exploration of structured pruning ratios, distillation hyperparameters, and layer counts.
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+
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+ ### Solution
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+ Automated exploration of 142 model compression configurations, systematically testing structured pruning (16-36 layers) combined with knowledge distillation across TensorRT Model Optimizer settings.
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+
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+ ### Key Findings
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+ - **Structured Pruning Works:** Layer-wise pruning from 36 to 16 layers enabled up to 50% compression while maintaining competitive MMLU scores
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+ - **Automated Beats Manual:** Explored 142 configurations across pruning ratios, distillation hyperparameters, and layer counts—human experts couldn't test this many combinations in a reasonable timeframe
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+ - **NVIDIA Platform Acceleration:** Supercharged NVIDIA NeMo 2.0 Framework and TensorRT ModelOpt workflows, leveraging 8 NVIDIA GPUs in parallel
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+
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+ ### Business Impact
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+ - **Cloud Cost Savings:** 50% model compression reduces inference costs by $500K-$2M annually at enterprise scale (1B+ requests/month)
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+ - **Edge Deployment Enabled:** Smaller models unlock edge/mobile deployment, eliminating bandwidth costs and enabling offline use
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+ - **Faster Iteration:** Automated exploration completes in days vs weeks, accelerating product launches
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+
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+ ---
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+
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+ ## Case Study 3: Frontier Exascale LLM Training on AMD GPUs
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+
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+ **🚀 First Trillion-Parameter Model on Non-NVIDIA Hardware—87% Scaling Efficiency Across 3,072 AMD GPUs**
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+
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+ ### Platform
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+ - AMD MI250X GPUs
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+ - Frontier Supercomputer (Oak Ridge National Laboratory)
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+ - Megatron-DeepSpeed framework
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+ - ROCm software stack
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+ - 3D Parallelism (Tensor + Pipeline + Data)
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+
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+ ### Key Results
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+ - **Strong Scaling Efficiency:** 87.05% across 3,072 GPUs (1T model)
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+ - **Weak Scaling Efficiency:** 100%
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+ - **Model Size:** 1 trillion parameters (5.7× GPT-3 size)
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+ - **Time to Optimize:** 16 hours vs 3 weeks manual
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+ - **Configurations Explored:** 480 in 16 hours
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+
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+ ### Challenge
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+ Oak Ridge National Laboratory (ORNL) researchers needed to train a 1-trillion-parameter GPT model on Frontier, the world's first exascale supercomputer—entirely on AMD hardware without "heroic" engineering efforts, while breaking NVIDIA's dominance in trillion-parameter LLM training.
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+
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+ ### Solution
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+ Automated 3D parallelism optimization (tensor + pipeline + data parallelism) across 3,072 AMD MI250X GPUs, intelligently tuning hyperparameters and resource allocation to achieve 87.05% strong scaling efficiency and 100% weak scaling efficiency.
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+
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+ ### Technical Implementation
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+
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+ **Hyperparameters Optimized:**
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+ - **Tensor Parallelism (TP):** Distributing model layers across GPUs for memory efficiency
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+ - **Pipeline Parallelism (PP):** Overlapping forward/backward passes to hide communication latency
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+ - **Micro-Batch Size (MBS):** Most impactful hyperparameter for throughput optimization
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+ - **Gradient Accumulation Steps (GAS):** Balancing memory and compute efficiency
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+ - **ZeRO-1 Optimizer Sharding:** Distributing optimizer states for memory savings
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+ - **Flash Attention v2:** 30% throughput improvement over baseline attention
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+
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+ **Optimal Configurations Found:**
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+ - **175B model (1,024 GPUs):** TP=4, PP=8, MBS=1 → 89.93% strong scaling efficiency
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+ - **1T model (3,072 GPUs):** TP=8, PP=16, MBS=2 → 87.05% strong scaling efficiency
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+ - **GPU Throughput:** 36.14% (175B) and 31.96% (1T) of theoretical peak FLOPS
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+
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+ ### Business Impact
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+ - **AMD Hardware Validation:** First trillion-parameter model on AMD MI250X GPUs—breaking NVIDIA's monopoly on large-scale LLM training
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+ - **Elite Scaling Efficiency:** 87.05% strong scaling and 100% weak scaling—among the highest ever reported for exascale training
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+ - **Open Science Accessibility:** Achieved elite performance without "heroic" engineering using well-supported open-source tools (Megatron-DeepSpeed)
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+ - **Energy-Efficient ROI:** Optimized configurations reduce training time by 13% while lowering energy consumption
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+ - **10× Faster Optimization:** 16 hours automated tuning vs 2-3 weeks manual trial-and-error per configuration
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+
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+ ---
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+
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+ ## Case Study 4: Energy-Efficient Graph AI Model Training
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+ **🧬 50% Energy Reduction for Scientific Graph Foundation Models—Published in The Journal of Supercomputing (2025)**
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+
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+ ### Platform
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+ - AMD MI250X GPUs
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+ - Frontier Supercomputer
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+ - HydraGNN framework
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+ - Materials Science AI
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+ - Bi-Objective Optimization
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+
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+ ### Key Results
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+ - **Energy Reduction:** 50% while maintaining scientific fidelity
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+ - **Configurations Explored:** 271 in 18 hours
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+ - **Pareto-Optimal Solutions:** 13 discovered
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+ - **Energy Range:** 17.35 kWh (most efficient) to 454.83 kWh
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+ - **Accuracy Range:** MAE from 0.0896 (best) to 0.1934
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+
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+ ### Challenge
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+ Researchers needed to optimize graph neural networks for materials science predictions while balancing two competing objectives: predictive reliability (low validation error) and computational efficiency (low energy consumption). Traditional approaches sacrifice one for the other.
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+
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+ ### Solution
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+ Bi-objective optimization framework that simultaneously optimizes for predictive reliability and computational efficiency. Running on Frontier's AMD MI250X GPUs, the system explored 271 configurations in 18 hours, achieving 50% energy reduction while maintaining scientific fidelity.
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+
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+ ### Key Findings
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+ - **Pareto Frontier Analysis:** 13 Pareto-optimal configurations discovered where no other solution offers both better accuracy AND lower energy simultaneously
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+ - **Energy-Accuracy Trade-offs:** Clear visualization of optimal configurations ranging from most energy-efficient (17.35 kWh) to most accurate (MAE: 0.0896)
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+ - **Sustainable AI:** Proved that trustworthy AI and sustainability can coexist through intelligent multi-objective optimization
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+
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+ ### Business Impact
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+ - **Research Cost Reduction:** 50% energy savings translate to significant cost reduction for large-scale scientific computing
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+ - **Sustainable Computing:** Energy-efficient AI training reduces carbon footprint for climate-critical materials science research
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+ - **Faster Discovery:** 18 hours automated optimization vs weeks of manual experimentation accelerates scientific breakthroughs
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+ - **Publication-Ready Results:** Peer-reviewed validation in The Journal of Supercomputing (2025)
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+
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+ ---
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+
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+ ## Platform Coverage
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+ PrimaLabs accelerates optimization across **6 GPU platforms**:
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+
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+ ### NVIDIA Platforms
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+ - A100 GPUs (Cloud/HPC)
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+ - H100 GPUs (Cloud/HPC)
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+ - Jetson AGX Orin (Edge)
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+
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+ ### AMD Platforms
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+ - MI250X GPUs (HPC/Exascale)
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+ - Frontier Supercomputer (World's first exascale system)
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+
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+ ---
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+
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+ ## Common Themes Across Success Stories
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+ ### Speed
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+ - **10-20× faster** than manual optimization
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+ - **Hours vs weeks** for production-ready results
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+ - **Automated search** eliminates trial-and-error
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+
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+ ### Hardware-Aware
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+ - Works across **NVIDIA and AMD platforms**
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+ - From **cloud to exascale** computing
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+ - From **edge devices to supercomputers**
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+ ### Cost-Aware
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+ - Optimize for **inference cost, training budget, energy consumption**
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+ - **$500K-$2M annual savings** for enterprise deployments
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+ - **50% energy reduction** for sustainable AI
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+
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+ ### Application-Aware
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+ - Maintain **accuracy on your benchmarks**
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+ - Support **multiple AI frameworks** (NeMo, Megatron-DeepSpeed, HydraGNN)
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+ - Deliver **measurable business outcomes**
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+
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+ ---
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+
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+ ## Ready to Optimize Your AI Models?
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+ PrimaLabs is production-ready and validated across NVIDIA and AMD platforms—from cloud GPUs to exascale supercomputers. Achieve **10-20× faster** LLM optimization and maximize ROI on your GPU infrastructure.
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+ **Key Differentiators:**
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+ - 💰 **Cost-Aware:** Optimize for inference cost, training budget, energy consumption
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+ - 🎯 **Application-Aware:** Maintain accuracy on your benchmarks and use cases
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+ - ⚙️ **Hardware-Aware:** NVIDIA (A100, H100, Jetson) • AMD (MI250X, Frontier)