Nvidia H100 Tensor Core Pcie GPU 80GB HBM2e Pci-e 5.0 X16 Graphics Processing Unit
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Nvidia H100 PCIe GPU 80GB HBM2e PCIe 5.0 x16 Graphics Card
The Nvidia H100 Tensor Core PCIe GPU is an advanced computing powerhouse designed for AI workloads, deep learning, data analytics, and scientific simulations. Engineered with the Hopper architecture, this GPU delivers exceptional computational efficiency, groundbreaking memory bandwidth, and accelerated tensor performance. It represents Nvidia next-generation innovation built for demanding data centers and AI-driven enterprises that require top-tier parallel processing performance.
Products Specifications
- Brand: Nvidia
- Prat Number: H100
- Memory Type: HBM2e
- Bus Width: 5120-bit
- Bandwidth: 2 Terabits per second
- Effective Clock Speed: 1593 MHz
Technical at a Glance
- Architecture: Hopper (Next-Gen AI Framework)
- Precision Modes: FP64, FP32, FP16, BF16, FP8, INT8
- Compute Performance: Up to 3026 Teraflops (FP8 Tensor)
- Thermal Design: Efficient Passive Cooling
- Power Draw: 350W
Exceptional Performance and Processing Power
- GPU Architecture: Hopper (Grace Hopper Architecture)
- CUDA Cores: 14,592
- GPU Clock Speed: 1125 MHz base, 1755 MHz boost
- Transistor Count: 80 Billion
- Process Node: 4nm
- Die Size: 814 mm²
Breakthrough Tensor Core Capabilities
- FP64 Performance: 26 Teraflops
- FP64 Tensor Core: 51 Teraflops
- FP32 Tensor Core: 756 Teraflops
- FP16 Tensor Core: 1513 Teraflops
- FP8 Tensor Core: 3026 Teraflops
- INT8 Tensor Core: 3026 TOPS
Advanced Multi-GPU Scalability
- Supports NVLink for Multi-GPU Communication
- Optimized for Multi-GPU Configurations
- Enables Large-Scale AI and HPC Workloads
- Reduced Latency and Enhanced Bandwidth Across GPUs
Energy-Efficient Power Design
- Power Consumption: 350 Watts
- Optimized for Energy Efficiency
- High-Performance per Watt Ratio
Physical Characteristics
- Cooling Type: Passive Cooling
- Form Factor: Dual-Slot
- Interface: PCIe 5.0 x16
Ideal Use Cases
- AI Model Training and Inference Acceleration
- Data Analytics and Predictive Modeling
- Scientific Research and Simulation
- High-Performance Computing (HPC) Applications
- Cloud and Edge AI Deployments
Hopper Architecture Innovations
- Transformer Engine for Next-Generation AI Models
- Improved Parallelism and Computational Density
- Optimized Mixed-Precision Workflows
- Enhanced Memory Efficiency
Connectivity Highlights
- PCI Express 5.0 x16 Interface for Maximum Throughput
- Supports NVLink for Inter-GPU Communication
- Low Latency and High Bandwidth Data Transfers
Enterprise Reliability and Longevity
- Designed for 24/7 Data Center Operation
- High-Quality Build for Longevity
- Compatible with Leading Server Platforms
- Enhanced Security and Stability for Enterprise Use
Built for the Future of AI and Computing
- Industry-Leading AI and HPC Performance
- High Energy Efficiency and Scalability
- Unmatched Tensor Core Acceleration
- Ready for Cloud, Edge, and Data Center Deployments
- Future-Proof PCIe 5.0 Interface
Unleashing the Next Era of Accelerated Computing with the Nvidia H100 PCIe
The Nvidia H100 Tensor Core GPU represents a monumental leap in computational architecture, engineered specifically to meet the unprecedented demands of modern AI, data analytics, and high-performance computing (HPC). As the first GPU built upon the revolutionary Nvidia Hopper™ architecture, the H100 PCIe variant delivers transformative performance and scalability for data center servers, research institutions, and enterprise deployments. This 80GB HBM2e powerhouse is not merely an incremental update; it is the foundational engine powering the next generation of intelligent systems, complex simulations, and large-language models that are reshaping our world.
The Architectural Pillars of the Nvidia Hopper Platform
The H100's performance stems from its groundbreaking Hopper architecture, which introduces several key technologies designed to accelerate the most challenging workloads.
Revolutionary Transformer Engine
At the heart of the H100 is the transformative Transformer Engine, a technology purpose-built to accelerate the training and inference of transformer models, which form the backbone of modern natural language processing (NLP) and AI. This intelligent engine dynamically manages precision formats, automatically switching between FP8, FP16, and BF16 to double AI throughput compared to previous generations. For massive models like GPT-3 and beyond, this means cutting training times from weeks to days, dramatically accelerating the pace of innovation and deployment.
Second-Generation Multi-Instance GPU (MIG) Technology
Maximizing GPU utilization and QoS (Quality of Service) is critical in multi-tenant environments. The H100's enhanced MIG technology can partition a single physical GPU into up to seven secure, isolated instances. Each instance operates with its own dedicated high-bandwidth memory, cache, and compute cores, functioning as a smaller, fully independent GPU. This allows data center administrators to provide guaranteed quality of service to multiple users—from data scientists running AI inference to researchers performing complex simulations—all on a single H100, optimizing both TCO and resource allocation.
Fourth-Generation Nvidia NVLink
To overcome the bottlenecks of traditional PCIe interconnects, the H100 incorporates the fourth generation of Nvidia NVLink. This provides a staggering 900 GB/s of bidirectional bandwidth between just two GPUs—over 7x the bandwidth of PCIe 5.0. When combined with the new NVLink Switch System, this technology enables seamless scaling of GPU workloads across up to 256 H100 GPUs, creating a massive, unified GPU accelerator ideal for the largest-scale AI and HPC applications.
PCI Express 5.0 Interface: Doubling the Data Pipeline
The H100 is among the first GPUs to leverage the PCIe 5.0 x16 interface. This latest I/O standard doubles the per-lane bandwidth compared to PCIe 4.0, providing a total theoretical bandwidth of 128 GB/s. This ensures that the GPU is never starved for data from the CPU and system memory, a critical factor for data-intensive workloads and when using GPU-direct technologies like NVMe-direct that bypass the CPU.
Next-Generation Tensor Cores and DPX Instructions
The H100 features a new generation of Tensor Cores that are significantly more powerful and flexible. They introduce new DPX (Dynamic Programming) instructions, which can accelerate a wide range of algorithms—such as Floyd-Warshall for route optimization and Smith-Waterman for DNA sequence alignment—by up to 40x compared to CPU-based systems. This expands the utility of the GPU beyond traditional AI and HPC into new domains like logistics, genomics, and robotics.
Target Workloads and Industry Applications
The Nvidia H100 PCIe is a versatile accelerator designed to excel across a broad spectrum of demanding professional and scientific workloads.
Data Analytics and Enterprise Computing
By leveraging the RAPIDS™ suite of open-source software libraries, the H100 can accelerate end-to-end data science and analytics workflows. It enables SQL operations, data visualization, and machine learning algorithms to run orders of magnitude faster than CPU-only systems, transforming how enterprises derive insights from their data.
Deployment and Ecosystem Considerations
Integrating the H100 PCIe into an existing infrastructure requires careful planning around power, cooling, and software.
Power and Thermal Design
The H100 PCIe is a high-performance accelerator with a Thermal Design Power (TDP) typically in the range of 350W to 700W, depending on the specific board design from Nvidia partners. This necessitates robust power delivery systems (often 8-pin or 16-pin PCIe power connectors) and advanced cooling solutions. Data centers must plan for either high-flow air cooling with optimized server chassis or, for maximum performance and density, direct-to-chip liquid cooling systems, which are natively supported by the H100's design.
The Nvidia AI Enterprise Software Suite
To unlock the full potential of the H100, it is designed to be used with the Nvidia AI Enterprise software suite. This is an end-to-end, cloud-native suite of AI tools and frameworks that is certified, optimized, and supported by Nvidia. It includes containerized versions of PyTorch, TensorFlow, the RAPIDS suite, and the Nvidia Triton Inference Server, providing a stable and secure platform for developing and deploying production AI.
Comparison and Evolution H100 in Context
Understanding the H100's position relative to its predecessors and siblings is crucial for making an informed procurement decision.
H100 PCIe vs. H100 SXM5
The H100 comes in two primary form factors: the standard PCIe card and the SXM5 module. The SXM5 variant is designed for Nvidia own DGX systems and HGX server boards, where it is directly socketed into a specialized board, bypassing the PCIe interface to utilize the full bandwidth of NVLink. The SXM5 version typically runs at higher TDPs and offers slightly higher peak performance. The PCIe variant, in contrast, offers greater flexibility for integration into a wide array of standard server platforms, making it the universal choice for broad enterprise deployment.
Future-Proofing Your Infrastructure
Investing in the Nvidia H100 PCIe GPU is an investment in a platform designed for the future. Its support for emerging technologies like confidential computing, its scalable architecture via NVLink, and its software-defined nature through the Nvidia AI Enterprise suite ensure that it will remain at the forefront of accelerated computing for years to come. As AI models continue to grow in size and complexity, and as scientific simulations demand ever-higher resolution, the H100 provides the computational headroom and architectural flexibility to meet these evolving challenges head-on, securing your organization's position as a leader in innovation.
