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NVIDIA H100 80GB PCIe Tensor Core GPU

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NVIDIA H100 80GB PCIe Tensor Core GPU: Complete Technical Guide & Performance Analysis

Introduction: The Revolutionary AI Accelerator

The NVIDIA H100 80GB PCIe Tensor Core GPU represents a quantum leap in artificial intelligence and high-performance computing acceleration. Built on the groundbreaking Hopper architecture, this enterprise-grade GPU delivers unprecedented computational power for AI training, inference, large language models (LLMs), and scientific computing workloads.

Released in October 2022, the H100 PCIe variant combines 80GB of HBM2e memory with PCIe Gen 5 connectivity, making it the ideal choice for organizations seeking to deploy cutting-edge AI infrastructure without requiring specialized SXM5 server configurations.

H100 PCIe 80GB: Key Specifications at a Glance

Specification NVIDIA H100 80GB PCIe
GPU Architecture NVIDIA Hopper (GH100)
Manufacturing Process TSMC 4N (5nm)
Transistor Count 80 billion
Die Size 814 mm²
CUDA Cores 14,592
Streaming Multiprocessors (SMs) 114
Tensor Cores (4th Gen) 456
Memory Capacity 80GB HBM2e
Memory Interface 5120-bit
Memory Bandwidth 2.0 TB/s
Base Clock 1095 MHz
Boost Clock 1755 MHz
FP64 Performance 24 TFLOPS
FP32 Performance 48 TFLOPS
TF32 Tensor Core 400 TFLOPS (800 TFLOPS with Sparsity)
FP16/BF16 Tensor Core 800 TFLOPS (1600 TFLOPS with Sparsity)
FP8 Tensor Core 1600 TFLOPS (3200 TFLOPS with Sparsity)
TDP (Thermal Design Power) 350W (configurable 300-350W)
Form Factor Dual-slot, PCIe Gen 5 x16
Power Connector 1x 16-pin PCIe
Dimensions 268mm (L) x 111mm (H)
NVLink Support Fourth-generation NVLink
Display Outputs None (compute-only GPU)

Hopper Architecture: Engineering Excellence

What Makes the Hopper Architecture Revolutionary?

The NVIDIA Hopper architecture introduces five groundbreaking innovations:

1. Fourth-Generation Tensor Cores

  • 6x faster performance compared to A100 on equivalent workloads
  • 4x throughput increase using the new FP8 precision format
  • Support for FP64, FP32, TF32, FP16, BF16, FP8, and INT8 data types
  • Hardware-accelerated sparsity for 2x performance boost on sparse neural networks

2. Transformer Engine with FP8 Precision

The revolutionary Transformer Engine combines custom Hopper Tensor Core technology with intelligent software to:

  • Deliver up to 9x faster AI training for large language models (GPT-3, BERT, T5)
  • Provide up to 30x faster inference on trillion-parameter models
  • Automatically manage precision scaling between FP8 and FP16
  • Reduce memory footprint by 50% compared to FP16

3. Enhanced Streaming Multiprocessor (SM)

Each of the 114 SMs features:

  • 128 FP32 CUDA cores (14,592 total)
  • 64 FP64 cores per SM (7,296 total)
  • 64 INT32 cores per SM
  • 4 fourth-generation Tensor Cores per SM
  • 256 KB combined L1/shared memory (1.33x larger than A100)

4. Advanced Memory Subsystem

  • 80GB HBM2e memory with 2.0 TB/s bandwidth
  • 50MB L2 cache for improved data locality
  • Advanced compression and decompression technology
  • Optimized memory access patterns for tensor operations

5. Thread Block Clusters

A new programming hierarchy that enables:

  • Cooperative execution across multiple SMs
  • Distributed Shared Memory (DSMEM) for direct SM-to-SM communication
  • 7x faster data exchange between thread blocks compared to global memory

Performance Benchmarks: H100 vs A100

AI Training Performance

Workload NVIDIA A100 NVIDIA H100 80GB PCIe Speedup
GPT-3 175B Training Baseline 2.4x faster 2.4x
BERT-Large Training Baseline 2.2x faster 2.2x
ResNet-50 Training Baseline 1.8x faster 1.8x
Mixture of Experts (395B params) Baseline Up to 4x faster 4x

AI Inference Performance

Model NVIDIA A100 NVIDIA H100 80GB PCIe Speedup
Llama 2 70B Inference Baseline 1.5-2x faster 1.5-2x
GPT-3 530B Chatbot Baseline Up to 30x faster 30x
Stable Diffusion XL Baseline 1.6 images/sec Significant improvement

High-Performance Computing (HPC)

Application Performance Improvement
3D FFT (4K³) 7x faster than A100
Genome Sequencing (Smith-Waterman) 7x faster with DPX instructions
Molecular Dynamics 3x faster
Weather Simulation Up to 3x faster

Key Features and Technologies

1. DPX Instructions for Dynamic Programming

The H100 introduces specialized DPX instructions that accelerate dynamic programming algorithms:

  • Smith-Waterman algorithm for DNA/protein sequencing: 7x faster
  • Floyd-Warshall algorithm for robotics path optimization: 7x faster
  • Critical for genomics, logistics, and graph analytics

2. PCIe Gen 5 Interface

  • 128 GB/s bidirectional bandwidth (64 GB/s each direction)
  • 2x faster than PCIe Gen 4
  • Seamless integration with latest x86 CPUs and SmartNICs/DPUs
  • Wide server compatibility without specialized motherboards
  • 900 GB/s total bandwidth per GPU
  • 3x bandwidth increase for all-reduce operations
  • 7x faster than PCIe Gen 5
  • Multi-GPU scaling for distributed training

4. Confidential Computing

  • World’s first GPU with built-in Confidential Computing
  • Hardware-based Trusted Execution Environment (TEE)
  • Protects data and models during computation
  • Essential for sensitive healthcare, financial, and government workloads

5. Second-Generation Multi-Instance GPU (MIG)

  • Partition single GPU into up to 7 isolated instances
  • 3x more compute capacity per instance vs A100
  • 2x memory bandwidth per instance
  • Each instance includes dedicated NVDEC and NVJPG units
  • Confidential Computing support at MIG level

H100 PCIe vs H100 SXM5: Key Differences

Feature H100 PCIe 80GB H100 SXM5 80GB
Form Factor PCIe Gen 5 Dual-slot SXM5 Module
TDP 350W 700W
Streaming Multiprocessors 114 SMs 132 SMs
CUDA Cores 14,592 16,896
Tensor Cores 456 528
Memory Type HBM2e HBM3
Memory Bandwidth 2.0 TB/s 3.35 TB/s
Boost Clock 1755 MHz ~1755 MHz
FP8 Tensor Performance 1600 TFLOPS 2000 TFLOPS
Server Compatibility Standard PCIe servers Specialized SXM5 servers
Price $25,000-$30,000 $35,000-$40,000
Use Case Flexible deployment, existing infrastructure Maximum performance, large-scale clusters

H100 80GB

When to Choose H100 PCIe:

  •  Existing PCIe-based server infrastructure
  •  Budget-conscious deployments
  •  Single-node or small multi-GPU configurations
  •  Standard data center environments

When to Choose H100 SXM5:

  •  Maximum performance requirements
  •  Large-scale multi-GPU clusters (8+ GPUs)
  •  NVLink Switch System deployments
  •  Highest memory bandwidth workloads

Real-World Applications and Use Cases

1. Large Language Model (LLM) Training

  • GPT-3, GPT-4, LLaMA family models
  • BERT, T5, RoBERTa transformer models
  • Training models with hundreds of billions of parameters
  • Reduced training time from weeks to days

2. Generative AI and Content Creation

  • Stable Diffusion, DALL-E, Midjourney-style image generation
  • Text-to-video synthesis
  • Real-time image and video editing
  • AI-powered design tools

3. AI Inference at Scale

  • Chatbots and conversational AI (ChatGPT-like applications)
  • Recommendation engines for e-commerce and streaming
  • Real-time translation and speech recognition
  • Computer vision for autonomous vehicles and surveillance

4. Scientific Computing and HPC

  • Computational Fluid Dynamics (CFD)
  • Climate modeling and weather forecasting
  • Quantum chemistry simulations
  • Astrophysics and cosmological simulations

5. Genomics and Life Sciences

  • DNA sequencing and protein folding (AlphaFold)
  • Drug discovery and molecular docking
  • Medical imaging analysis (CT, MRI, PET scans)
  • Cancer research and personalized medicine

6. Financial Services

  • Risk modeling and fraud detection
  • High-frequency trading algorithms
  • Portfolio optimization
  • Credit scoring with deep learning

7. Autonomous Systems

  • Self-driving vehicle perception and planning
  • Robotics navigation and manipulation
  • Drone autonomous flight systems
  • Industrial automation

Cloud and On-Premises Pricing

Purchase Pricing (Direct)

  • Retail Price: $25,000 – $30,000 per GPU
  • 8-GPU Server: $300,000 – $500,000 (including infrastructure)
  • Availability: Through NVIDIA partners and authorized distributors

Cloud GPU Rental Pricing

Cloud Provider Hourly Rate Monthly Rate (24/7)
GMI Cloud $2.10/hour ~$1,500/month
AWS (estimated) $3.50-$5.00/hour ~$2,500-$3,600/month
Google Cloud $3.00-$4.50/hour ~$2,200-$3,200/month
Microsoft Azure $3.50-$5.00/hour ~$2,500-$3,600/month

Total Cost of Ownership (TCO) Considerations

  • Power consumption: 350W x 8 GPUs = 2.8 kW (add cooling overhead)
  • Cooling infrastructure: $1,000-$2,000 per kW annually
  • Networking: InfiniBand or high-speed Ethernet for multi-GPU setups
  • Storage: High-performance NVMe for dataset access

Software Ecosystem and Framework Support

AI Frameworks

  •  PyTorch (with CUDA 9.0+ support)
  •  TensorFlow (optimized for Hopper)
  •  JAX (Google’s ML framework)
  •  MXNet
  •  ONNX Runtime

NVIDIA AI Software Stack

  • NVIDIA AI Enterprise: Production-ready AI platform with 5-year subscription
  • NVIDIA NIM: Microservices for generative AI deployment
  • RAPIDS: GPU-accelerated data science libraries
  • cuDNN: Deep neural network library
  • TensorRT: High-performance inference optimizer
  • Triton Inference Server: Multi-framework inference serving

HPC and Scientific Computing

  •  CUDA Toolkit 11.8+
  •  OpenACC for directive-based programming
  •  OpenMP offloading
  •  HPC-X (high-performance MPI)
  •  Quantum ESPRESSO, GROMACS, LAMMPS (accelerated)

System Requirements and Integration

Minimum Server Requirements

  • CPU: Intel Xeon Scalable (Ice Lake or newer) or AMD EPYC (Milan or newer)
  • Motherboard: PCIe Gen 5 support (PCIe Gen 4 compatible but reduced bandwidth)
  • RAM: 256GB+ system memory (recommended 512GB for large workloads)
  • PSU: 1200W+ (80 Plus Titanium recommended)
  • Cooling: Enterprise-grade air cooling (dual-slot clearance required)

Multi-GPU Configuration

  • Supports NVLink bridges for 2-GPU configurations
  • NVSwitch for 8-GPU full connectivity (requires specialized server)
  • PCIe Gen 5 x16 lanes per GPU (avoid lane sharing)

Operating System Support

  •  Ubuntu 20.04/22.04 LTS
  •  Red Hat Enterprise Linux (RHEL) 8.x/9.x
  •  CentOS 8 Stream
  •  Windows Server 2019/2022 (with NVIDIA drivers)

Competitive Comparison

H100 vs AMD MI300X

Feature NVIDIA H100 PCIe AMD MI300X
Memory 80GB HBM2e 192GB HBM3
Memory Bandwidth 2.0 TB/s 5.3 TB/s
FP8 Performance 1600 TFLOPS ~2600 TFLOPS
Ecosystem Mature (CUDA, cuDNN) Developing (ROCm)
Software Support Excellent Good (improving)
Price $25,000-$30,000 ~$30,000-$35,000

Verdict: H100 offers superior software ecosystem and proven reliability; MI300X provides more memory for very large models.

H100 vs Google TPU v5

Feature NVIDIA H100 PCIe Google TPU v5
Availability Widely available Google Cloud only
Flexibility General-purpose compute Optimized for specific workloads
Programming CUDA (universal) TensorFlow/JAX (limited)
Use Case Broad AI/HPC TensorFlow-heavy workloads

Frequently Asked Questions (FAQ)

1. What is the difference between H100 PCIe and H100 SXM5?

The H100 PCIe uses standard PCIe Gen 5 interface (350W TDP), making it compatible with existing server infrastructure. The H100 SXM5 offers higher performance (700W TDP, 132 SMs, HBM3 memory) but requires specialized SXM5 servers. PCIe is more flexible and affordable; SXM5 delivers maximum performance for large-scale deployments.

2. Can the H100 80GB PCIe be used for gaming?

No. The H100 is a compute-only GPU with no display outputs and no DirectX/Vulkan support. It’s designed exclusively for AI training, inference, and scientific computing. For gaming, consider consumer GPUs like RTX 4090 or professional workstation GPUs like RTX 6000 Ada.

3. How much faster is H100 compared to A100 for AI training?

The H100 delivers 2-4x faster training depending on the workload:

  • GPT-3 175B: 2.4x faster
  • Large transformers with FP8: Up to 4x faster
  • ResNet-50: 1.8x faster
  • Performance gains are highest on transformer-based models leveraging the Transformer Engine.

4. Does H100 support ray tracing?

No. The H100 has no RT Cores and is not designed for graphics rendering or ray tracing. It’s purely a compute accelerator for AI and HPC workloads.

5. What is the power consumption and cooling requirement?

  • TDP: 350W (configurable 300-350W)
  • Cooling: Dual-slot passive or active cooling (enterprise-grade required)
  • PSU recommendation: 750W+ for single GPU systems; 1200W+ for multi-GPU
  • Ensure adequate data center airflow and consider liquid cooling for dense deployments.

6. Can I use H100 for LLM inference like ChatGPT?

Absolutely. The H100 excels at LLM inference:

  • Llama 2 70B: Real-time inference with low latency
  • GPT-3 530B: Up to 30x faster inference than A100
  • Transformer Engine optimizes memory usage and throughput
  • Ideal for deploying production chatbots, RAG systems, and conversational AI

7. What is the warranty and support?

  • Standard warranty: 3 years (varies by seller)
  • NVIDIA AI Enterprise: 5-year subscription included with H100 NVL; optional for PCIe
  • Support: Enterprise-grade support through NVIDIA partners and cloud providers

8. Is H100 compatible with existing CUDA code?

Yes. H100 supports CUDA 9.0+ and is backward compatible with existing CUDA applications. However, to leverage new features (Transformer Engine, DPX instructions, Thread Block Clusters), code updates are recommended using the latest CUDA Toolkit.

9. How does MIG (Multi-Instance GPU) work on H100?

MIG allows partitioning the H100 into up to 7 isolated GPU instances, each with dedicated:

  • Compute resources (SMs, Tensor Cores)
  • Memory bandwidth
  • NVDEC/NVJPG units
  • Confidential Computing TEE Ideal for multi-tenant environments, Kubernetes deployments, and maximizing GPU utilization.

10. Where can I buy or rent NVIDIA H100 80GB PCIe?

  • Direct purchase: NVIDIA authorized partners (Dell, HPE, Lenovo, Supermicro)
  • Cloud rental: AWS, Google Cloud, Microsoft Azure, Oracle Cloud, GMI Cloud, Lambda Labs
  • Availability: Limited due to high demand; expect lead times of 2-6 months for direct purchase

Conclusion: Is the H100 Worth the Investment?

The NVIDIA H100 80GB PCIe Tensor Core GPU represents the pinnacle of AI and HPC acceleration technology. Its revolutionary Hopper architecture, combined with 80GB of high-bandwidth memory and fourth-generation Tensor Cores, delivers:

  •  Up to 6x performance improvement over A100
  • Industry-leading AI training and inference capabilities
  • Flexible PCIe Gen 5 deployment in existing infrastructure
  • Comprehensive software ecosystem (CUDA, PyTorch, TensorFlow)
  • Enterprise-grade reliability and security features

Who Should Invest in H100?

  • AI research labs training large language models
  • Cloud service providers offering GPU-as-a-Service
  • Enterprises deploying production generative AI
  • HPC centers running large-scale simulations
  • Genomics and pharmaceutical companies accelerating research

ROI Considerations:

While the $25,000-$30,000 price tag is significant, the H100 can:

  • Reduce AI training time by 50-75%, accelerating time-to-market
  • Lower operational costs through improved energy efficiency (performance per watt)
  • Enable new revenue streams via faster model development and deployment
  • Future-proof infrastructure for next 3-5 years of AI advancement

For organizations serious about AI leadership and computational excellence, the NVIDIA H100 80GB PCIe is an essential investment.

Brand

Brand

Nvidia

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Additional Information

Additional information

FP64

34 teraFLOPS

FP64 Tensor Core

67 teraFLOPS

FP32

67 teraFLOPS

TF32 Tensor Core*

989 teraFLOPS

BFLOAT16 Tensor Core*

1,979 teraFLOPS

FP16 Tensor Core*

1,979 teraFLOPS

FP8 Tensor Core*

3,958 teraFLOPS

INT8 Tensor Core*

3,958 TOPS

GPU Memory

80GB HBM2e

GPU Memory Bandwidth

3.35TB/s

Decoders

7 NVDEC, 7 JPEG

Max Thermal Design Power (TDP)

Up to 700W (configurable)

Multi-Instance GPUs (MIGs)

Up to 7 MIGs @ 10GB each

Form Factor

SXM (direct motherboard mount for servers)

Interconnect

NVIDIA NVLink: 900GB/s PCIe Gen5: 128GB/s

Server Options

Compatible with NVIDIA HGX H100 and DGX H100 systems (4 or 8 GPUs)

NVIDIA AI Enterprise

Add-on (sold separately)

Use Cases

Deep Learning Training

,

High Performance Computing (HPC)

,

Large Language Models (LLM)

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