Brand: Nvidia
NVIDIA A100 80GB Tensor Core GPU
Warranty:
1 Year Effortless warranty claims with global coverage
Description
The NVIDIA A100 80GB Tensor Core GPU represents the pinnacle of data center computing, delivering unprecedented acceleration for artificial intelligence, machine learning, data analytics, and high-performance computing (HPC) workloads. Built on the revolutionary NVIDIA Ampere architecture, the A100 80GB provides up to 20X higher performance than the previous generation and features the world’s fastest GPU memory bandwidth at over 2 terabytes per second (TB/s).
With 80GB of HBM2e memory, third-generation Tensor Cores, and groundbreaking Multi-Instance GPU (MIG) technology that enables partitioning into up to 7 independent GPU instances, the A100 80GB is engineered to handle the most demanding AI models, massive datasets, and complex scientific simulations with unparalleled efficiency and scalability.
Whether you’re training large language models, running real-time AI inference, conducting molecular dynamics simulations, or processing petabyte-scale data analytics, the A100 80GB delivers exceptional performance that transforms research timelines and production deployment capabilities.
Key Features & Revolutionary Technologies
1. NVIDIA Ampere Architecture
The A100 is powered by NVIDIA’s Ampere architecture, representing a quantum leap in GPU computing:
- Third-Generation Tensor Cores: Deliver 312 TFLOPS with TF32 precision and up to 624 TFLOPS with FP16
- Enhanced FP64 Performance: Introduces double-precision Tensor Cores for HPC workloads
- Structural Sparsity Support: Provides up to 2X performance boost for sparse AI models
- Multi-Precision Computing: Support for FP64, FP32, TF32, FP16, BF16, and INT8 in a single accelerator
2. Massive Memory & Bandwidth
- 80GB HBM2e Memory: Double the capacity of the 40GB variant for the largest AI models
- 2,039 GB/s Memory Bandwidth (SXM4): World’s fastest GPU memory bandwidth
- 5120-bit Memory Interface: Ultra-wide bus for maximum data throughput
- 95% DRAM Utilization Efficiency: Industry-leading memory efficiency
- 1.7X Higher Bandwidth than previous generation V100
3. Multi-Instance GPU (MIG) Technology
Revolutionary feature that maximizes GPU utilization and flexibility:
- Partition into up to 7 Independent GPU Instances: Each with dedicated resources
- Hardware-Level Isolation: Separate memory, cache, and compute cores for each instance
- 10GB per MIG Instance: Double the size compared to A100 40GB (5GB per instance)
- 7X Higher Utilization: Optimize infrastructure usage across multiple workloads
- QoS Guarantees: Predictable performance for every application
- Support for Kubernetes, Containers & Virtualization: Enterprise-ready deployment
4. Next-Generation Interconnect
- Third-Gen NVLink: 600 GB/s bidirectional bandwidth (2X faster than previous generation)
- PCIe Gen 4: 64 GB/s throughput for broad system compatibility
- NVSwitch Support: Connect up to 16 A100 GPUs at 600 GB/s for massive scale-up
- NVLink Bridge: Connect 2 PCIe GPUs for enhanced performance
- NVIDIA Magnum IO SDK: Optimized I/O operations for data-intensive workloads
5. Advanced Compute Capabilities
- 6,912 CUDA Cores: Massive parallel processing power
- 432 Third-Gen Tensor Cores: Specialized AI acceleration
- Up to 1,248 TOPS INT8: Industry-leading inference performance
- 19.5 TFLOPS FP64 Tensor Core: Revolutionary for HPC applications
- Sparsity Acceleration: Automatic 2X performance boost for compatible models
Complete Technical Specifications
Architecture & Processor
| Specification | Details |
|---|---|
| GPU Architecture | NVIDIA Ampere |
| GPU Chip | GA100 |
| Manufacturing Process | 7nm TSMC |
| Transistor Count | 54.2 Billion |
| Die Size | 826 mm² |
| CUDA Compute Capability | 8.0 |
Compute Performance
| Precision | A100 80GB SXM | A100 80GB PCIe |
|---|---|---|
| FP64 | 9.7 TFLOPS | 9.7 TFLOPS |
| FP64 Tensor Core | 19.5 TFLOPS | 19.5 TFLOPS |
| FP32 | 19.5 TFLOPS | 19.5 TFLOPS |
| TF32 Tensor Core | 156 / 312* TFLOPS | 156 / 312* TFLOPS |
| BFLOAT16 Tensor Core | 312 / 624* TFLOPS | 312 / 624* TFLOPS |
| FP16 Tensor Core | 312 / 624* TFLOPS | 312 / 624* TFLOPS |
| INT8 Tensor Core | 624 / 1,248* TOPS | 624 / 1,248* TOPS |
| INT4 Tensor Core | 1,248 / 2,496* TOPS | 1,248 / 2,496* TOPS |
*With Structural Sparsity
Memory Specifications
| Feature | Specification |
|---|---|
| Memory Size | 80GB HBM2e |
| Memory Interface | 5120-bit |
| Memory Bandwidth (SXM) | 2,039 GB/s |
| Memory Bandwidth (PCIe) | 1,935 GB/s |
| Memory Clock | 1593 MHz (3186 MHz effective) |
| ECC Support | Yes (always enabled) |
| L2 Cache | 40 MB |
Core Specifications
| Component | Count |
|---|---|
| CUDA Cores | 6,912 |
| Tensor Cores (Gen 3) | 432 |
| Streaming Multiprocessors (SMs) | 108 |
| Texture Mapping Units | 432 |
| Render Output Units | 160 |
| Ray Tracing Cores | N/A (compute-focused) |
Clock Speeds
- Base Clock: 1,065 MHz
- Boost Clock: 1,410 MHz
- Memory Clock: 1,593 MHz
Interconnect & I/O
| Interface | Specification |
|---|---|
| PCIe Generation | Gen 4 x16 |
| PCIe Bandwidth | 64 GB/s (bidirectional) |
| NVLink Version | 3rd Generation |
| NVLink Bandwidth | 600 GB/s (12 links) |
| NVLink Links | 12 |
| Display Outputs | None (compute GPU) |
Power & Thermal
| Specification | PCIe | SXM4 |
|---|---|---|
| TDP | 300W | 400W*** |
| Maximum Power | 300W | 500W (CTS config) |
| Power Connector | 8-pin EPS | SXM Module |
| Cooling | Air (dual-slot) or Liquid (single-slot) | Active cooling required |
| Operating Temperature | 0°C – 50°C | 0°C – 50°C |
***Standard 400W TDP; Custom Thermal Solution (CTS) SKU supports up to 500W
Physical Dimensions
| Form Factor | Dimensions | Slot Width |
|---|---|---|
| PCIe Air-Cooled | 267mm x 112mm | Dual-Width |
| PCIe Liquid-Cooled | 267mm x 112mm | Single-Width |
| SXM4 Module | Custom Module | N/A (server board) |
| Weight (PCIe) | ~2 kg | – |
Multi-Instance GPU (MIG) Profiles
The A100 80GB supports various MIG configurations:
| Profile | GPU Instances | Memory per Instance | Compute per Instance |
|---|---|---|---|
| 7x 1g.10gb | 7 | 10GB | 1/7 GPU |
| 4x 2g.20gb | 4 | 20GB | 2/7 GPU |
| 2x 3g.40gb | 2 | 40GB | 3/7 GPU |
| 1x 7g.80gb | 1 | 80GB | Full GPU |
| Mixed Configurations | Custom | Variable | Variable |
Performance Benchmarks & Real-World Results
Deep Learning Training Performance
Up to 3X Faster Training on Largest Models
- DLRM (Deep Learning Recommendation Model):
- V100 32GB (FP16, batch 32): Baseline
- A100 40GB (FP16, batch 32): 2X faster
- A100 80GB (FP16, batch 48): 3X faster
Breakthrough Performance on Language Models
- BERT-Large Fine-Tuning: 20X faster than V100
- GPT-3 Style Models: Up to 3X higher throughput than A100 40GB
- Vision Transformers: 2.5X improvement over previous generation
AI Inference Performance
Up to 249X Faster Than CPUs
- BERT-Large Inference:
- Dual Xeon Gold 6240 @ 2.6GHz (FP32, batch 128): Baseline
- V100 (INT8, batch 256, TensorRT): 200X faster
- A100 40GB (INT8 + Sparsity, batch 256): 245X faster
- A100 80GB (INT8 + Sparsity, batch 256): 249X faster
Real-Time Inference Excellence
- RNN-T Speech Recognition: 1.25X faster than A100 40GB
- Computer Vision: Up to 7X throughput with MIG
- Natural Language Processing: Sub-millisecond latency for many models
High-Performance Computing (HPC)
11X Performance Leap in 4 Years
Geometric mean of application speedups (P100 to A100):
- Molecular Dynamics (AMBER, NAMD): 8-10X faster
- Computational Chemistry (Quantum Espresso, VASP): 9-12X faster
- Computational Fluid Dynamics (GROMACS): 11X faster
- Weather Simulation (WRF): 7X faster
A100 80GB vs A100 40GB for HPC
- Quantum Espresso: Up to 1.8X faster with larger datasets
- Materials Science: 1.5-2X improved throughput
- Seismic Imaging: 1.6X faster processing
Data Analytics Performance
2X Faster Big Data Analytics
- GPU-BDB Benchmark (30 analytical queries on 10TB dataset):
- V100 32GB: Baseline
- A100 40GB: 1.7X faster
- A100 80GB: 2X faster
- RAPIDS Accelerator for Apache Spark: 5-10X speedup over CPU clusters
MLPerf Benchmark Leadership
NVIDIA A100 consistently achieves top rankings in MLPerf:
- Training: Record-breaking performance across all benchmarks
- Inference: Industry-leading throughput and latency
- Edge: Exceptional performance-per-watt
Real-World Applications & Industry Use Cases
Artificial Intelligence & Machine Learning
Large Language Models (LLMs)
- Training GPT-Style Models: Handle models with hundreds of billions of parameters
- BERT & Transformer Variants: Accelerated fine-tuning and training
- Generative AI: Power models like GPT-4, Claude, Llama, and Mistral
- Example Use: OpenAI uses A100s for developing ChatGPT and DALL-E models
Computer Vision
- Object Detection & Segmentation: Real-time processing at scale
- Image Classification: Process millions of images per hour
- Autonomous Vehicles: Training perception and decision-making models
- Medical Imaging: Cancer detection, organ segmentation, diagnostic assistance
Natural Language Processing
- Machine Translation: Real-time multilingual translation
- Sentiment Analysis: Process social media data at massive scale
- Question Answering Systems: Power intelligent chatbots and assistants
- Text Generation: Create human-like content for various applications
Recommendation Systems
- E-commerce: Personalized product recommendations
- Streaming Platforms: Content recommendation (Netflix, Spotify)
- Social Media: Friend suggestions and content curation
- Example Use: Meta uses A100 for Facebook/Instagram recommendation models
Scientific Research & High-Performance Computing
Life Sciences & Drug Discovery
- Molecular Dynamics: Simulate protein folding and drug interactions
- Genomics: Accelerate DNA sequencing and analysis
- Drug Discovery: Virtual screening of millions of compounds
- COVID-19 Research: Vaccine development and variant analysis
- Example Use: Pfizer used A100 GPUs for COVID-19 drug development
Materials Science
- Quantum Chemistry: DFT calculations for new materials
- Nanomaterials: Design next-generation batteries and semiconductors
- Materials Simulation: Predict properties before physical prototyping
Climate Science & Weather Forecasting
- Climate Modeling: Predict long-term climate patterns
- Weather Prediction: High-resolution forecasts with better accuracy
- Ocean Simulation: Model ocean currents and marine ecosystems
- Example Use: NOAA uses A100s for hurricane prediction models
Astrophysics & Cosmology
- Galaxy Formation: Simulate billions of years of cosmic evolution
- Gravitational Wave Detection: Process data from LIGO observatories
- Exoplanet Discovery: Analyze telescope data for planet detection
- Example Use: CERN uses A100 for particle physics simulations
Enterprise & Cloud Computing
Cloud Service Providers
- GPU-as-a-Service: AWS, Azure, Google Cloud offer A100 instances
- Multi-Tenant Environments: MIG enables efficient resource sharing
- Containerized Workloads: Kubernetes-native GPU orchestration
- Example: AWS EC2 P4d instances powered by A100 80GB
Financial Services
- Algorithmic Trading: Real-time market analysis and prediction
- Risk Management: Monte Carlo simulations for portfolio optimization
- Fraud Detection: Real-time transaction monitoring with AI
- Credit Scoring: Advanced ML models for loan decisions
Telecommunications
- 5G Network Optimization: AI-powered network management
- Signal Processing: Real-time analysis of RF signals
- Predictive Maintenance: Prevent network outages with ML
Media & Entertainment
Visual Effects & Animation
- Ray Tracing Rendering: Photorealistic CGI for films
- Character Animation: AI-assisted motion capture and rigging
- Virtual Production: Real-time rendering for LED stages
- Example Use: Industrial Light & Magic uses A100 for Star Wars VFX
Video Processing
- AI Upscaling: Enhance video quality from SD/HD to 4K/8K
- Content Moderation: Automated detection of inappropriate content
- Video Encoding: Hardware-accelerated transcoding
Healthcare & Biotechnology
Medical Imaging
- MRI/CT Scan Analysis: Automated diagnosis and anomaly detection
- Radiology AI: Assist radiologists with faster, more accurate diagnoses
- Pathology: Digital slide analysis for cancer detection
- Example Use: Mayo Clinic uses A100 for AI-powered diagnostics
Precision Medicine
- Personalized Treatment: Tailor therapies based on genetic profiles
- Clinical Trial Optimization: Identify suitable candidates faster
- Biomarker Discovery: Find new diagnostic and therapeutic targets
Autonomous Vehicles & Robotics
Self-Driving Cars
- Perception: Real-time object detection and scene understanding
- Path Planning: Compute optimal routes in complex environments
- Simulation: Train models in virtual environments before road testing
- Example Use: Tesla, Waymo use A100 for training autonomous systems
Industrial Robotics
- Robotic Manipulation: Train robots for complex assembly tasks
- Warehouse Automation: Optimize picking and sorting operations
- Quality Inspection: AI-powered defect detection in manufacturing
Cybersecurity
- Threat Detection: Real-time analysis of network traffic
- Malware Analysis: Identify and classify malicious code
- Anomaly Detection: Detect unusual patterns in system behavior
- Cryptography: Accelerate encryption/decryption operations
Natural Language & Conversational AI
- Virtual Assistants: Power Alexa, Siri, Google Assistant backends
- Customer Service Bots: Handle millions of conversations simultaneously
- Real-Time Translation: Break language barriers in communications
- Content Generation: Automated writing for news, marketing, reports
Detailed Comparison: A100 80GB vs A100 40GB
| Feature | A100 40GB | A100 80GB | Improvement |
|---|---|---|---|
| GPU Memory | 40GB HBM2e | 80GB HBM2e | +100% |
| Memory Bandwidth (SXM) | 1,555 GB/s | 2,039 GB/s | +31% |
| Memory Bandwidth (PCIe) | 1,555 GB/s | 1,935 GB/s | +24% |
| MIG Instance Size | Up to 5GB | Up to 10GB | +100% |
| DLRM Training | Baseline | 3X faster | +200% |
| RNN-T Inference | Baseline | 1.25X faster | +25% |
| Quantum Espresso HPC | Baseline | 1.8X faster | +80% |
| Big Data Analytics | Baseline | 2X faster | +100% |
| Unified Memory per Node | Up to 640GB (8 GPUs) | Up to 1.3TB (8 GPUs) | +103% |
| Max Model Size | ~35-38B parameters | ~70-75B parameters | ~2X |
| Price (Approximate) | $10,000-12,000 | $15,000-17,000 | +40-50% |
When to Choose A100 80GB:
- Training models larger than 40B parameters
- Processing datasets that don’t fit in 40GB
- Running multiple large models with MIG (10GB instances)
- HPC simulations requiring massive memory
- Big Data analytics on multi-TB datasets
- Future-proofing for growing model sizes
When A100 40GB May Suffice:
- Models under 35B parameters
- Inference workloads with smaller memory footprint
- Budget-constrained deployments
- Multiple smaller models with MIG (5GB instances)
- Training with smaller batch sizes
PCIe vs SXM Form Factor Comparison
| Feature | A100 80GB PCIe | A100 80GB SXM4 |
|---|---|---|
| Form Factor | Standard PCIe card | SXM module |
| Installation | Standard servers | HGX/DGX systems |
| TDP | 300W | 400W (500W CTS) |
| Memory Bandwidth | 1,935 GB/s | 2,039 GB/s |
| NVLink | 2 GPUs via bridge | Up to 16 GPUs |
| NVLink Bandwidth | 600 GB/s | 600 GB/s |
| Cooling | Air or liquid | Active/liquid |
| Flexibility | High (standard servers) | Limited (specific platforms) |
| Performance | Excellent | Maximum |
| Best For | Flexible deployments | Highest performance |
| Max GPUs per Server | 8-10 | 16 |
Software & Ecosystem Support
Deep Learning Frameworks
- TensorFlow – Full optimization for Ampere architecture
- PyTorch – Native CUDA and Tensor Core support
- MXNet – Optimized for distributed training
- JAX – Hardware-accelerated autodiff
- ONNX Runtime – Cross-framework inference
- Keras – High-level API with A100 acceleration
- PaddlePaddle – Baidu’s framework with GPU support
- Caffe2 – Facebook’s ML framework
HPC Applications (2,000+ GPU-Accelerated)
- Molecular Dynamics: AMBER, GROMACS, NAMD, LAMMPS
- Computational Chemistry: Quantum Espresso, VASP, Gaussian
- CFD: ANSYS Fluent, OpenFOAM, Altair AcuSolve
- Structural Analysis: ANSYS Mechanical, DS SIMULIA Abaqus
- Weather/Climate: WRF, CESM, NEMO
- Materials Science: LAMMPS, VASP, CP2K
Data Science & Analytics
- RAPIDS: GPU-accelerated data science libraries
- cuDF (Pandas-like DataFrames)
- cuML (Scikit-learn-like ML)
- cuGraph (NetworkX-like graphs)
- Apache Spark: RAPIDS Accelerator for Spark
- Dask: Distributed computing with GPU support
- BlazingSQL: GPU-accelerated SQL engine
Development Tools
- CUDA Toolkit 11.0+
- cuDNN 8.0+ (Deep Neural Network library)
- TensorRT 7.0+ (Inference optimizer)
- NCCL (Multi-GPU communication)
- Nsight Systems (Profiling and debugging)
- NGC Containers (Pre-configured environments)
Virtualization & Orchestration
- NVIDIA vGPU – Virtual GPU software
- MIG – Multi-Instance GPU partitioning
- Kubernetes – GPU device plugin
- Docker – NVIDIA Container Toolkit
- VMware vSphere – GPU passthrough
- OpenShift – Red Hat Kubernetes distribution
Cloud Platforms
- Amazon Web Services (AWS): EC2 P4d instances
- Microsoft Azure: NDv4 series
- Google Cloud Platform: A2 instance family
- Oracle Cloud: GPU instances
- Alibaba Cloud: GN7 instances
- IBM Cloud: GPU-enabled instances
System Requirements & Recommendations
Minimum Requirements (PCIe Version)
Motherboard
- PCIe 4.0 x16 slot (backward compatible with PCIe 3.0)
- Sufficient physical clearance for dual-width card
- High-quality PCIe slot (server-grade recommended)
Power Supply
- Single GPU: 1,200W (80 Plus Gold or better)
- Dual GPU: 1,600W minimum
- Quad GPU: 2,500W+ with redundancy
- Dedicated PCIe 8-pin EPS connector per GPU
CPU
- Server-class processor (Xeon, EPYC)
- Minimum: Intel Xeon Gold/Platinum or AMD EPYC 7002/7003
- Recommended: Latest generation for best PCIe 4.0 support
Memory
- Minimum: 128GB DDR4/DDR5 system RAM
- Recommended: 256GB+ for AI workloads
- Optimal: 512GB-1TB for large-scale training
Storage
- NVMe SSDs for dataset storage (PCIe 4.0 recommended)
- Minimum 2TB for OS and working datasets
- RAID configuration for data redundancy
Cooling
- Data center-grade cooling solution
- Rack-mounted with proper airflow
- Ambient temperature: 20-25°C recommended
Operating System
- Linux: Ubuntu 20.04/22.04, CentOS 7/8, RHEL 7/8/9
- Windows: Windows Server 2019/2022
- NVIDIA Driver 450.51 or newer
Recommended System Configurations
Entry-Level AI Workstation (1x A100 80GB PCIe)
- CPU: Intel Xeon W-3375 or AMD EPYC 7443P
- RAM: 256GB DDR4-3200
- Storage: 2x 2TB NVMe PCIe 4.0 RAID 0
- PSU: 1,600W 80 Plus Platinum
- Use Case: Model development, small-scale training
Professional AI Server (2-4x A100 80GB PCIe)
- CPU: Dual Intel Xeon Gold 6338 or AMD EPYC 7543
- RAM: 512GB-1TB DDR4-3200
- Storage: 4x 4TB NVMe PCIe 4.0 RAID 10
- Network: Dual 100GbE NICs
- PSU: 2,500W 80 Plus Platinum (redundant)
- Use Case: Enterprise AI training, large model fine-tuning
Enterprise HPC Cluster (8x A100 80GB SXM)
- Platform: NVIDIA DGX A100 or HGX A100 system
- CPU: Dual AMD EPYC 7742 (128 cores)
- RAM: 1TB or 2TB DDR4-3200
- Storage: 15TB NVMe (RAID configuration)
- Network: 8x 200Gb/s InfiniBand HDR
- NVSwitch: 600 GB/s GPU-to-GPU interconnect
- Use Case: Large-scale AI training, HPC simulations
Cloud-Scale Data Center (16x A100 80GB SXM)
- Platform: NVIDIA HGX A100 16-GPU
- CPU: Dual AMD EPYC 7763 (128 cores)
- RAM: 2TB DDR4-3200
- Storage: 30TB NVMe + petabyte network storage
- Network: InfiniBand HDR with GPUDirect RDMA
- Use Case: Foundation model training, hyperscale AI
Frequently Asked Questions (FAQ)
What’s the difference between A100 80GB and A100 40GB?
Answer: The A100 80GB features double the memory (80GB vs 40GB), higher memory bandwidth (2TB/s vs 1.55TB/s SXM), and double the MIG instance size (10GB vs 5GB per instance). This translates to up to 3X faster training for large models, 2X faster data analytics, and ability to handle models with up to 70B+ parameters versus approximately 35B for the 40GB variant.
What is Multi-Instance GPU (MIG) and why is it important?
Answer: MIG allows a single A100 to be partitioned into up to 7 independent GPU instances, each with dedicated memory (10GB in 80GB model), cache, and compute resources. This enables 7X higher utilization for inference workloads, secure multi-tenancy with hardware isolation, Quality of Service (QoS) guarantees, and flexible resource allocation for varying workload sizes. It’s perfect for cloud providers and enterprise data centers.
PCIe vs SXM: Which form factor should I choose?
Answer:
- Choose PCIe if you need flexibility to use standard servers, easier upgrades and maintenance, 1-8 GPU configurations, lower power consumption (300W), and budget-friendly deployment.
- Choose SXM if you need maximum performance (400W TDP), highest memory bandwidth (2,039 GB/s), 8-16 GPU scalability with NVSwitch, dense data center deployments, and best performance-per-rack-unit.
Can the A100 80GB run all major AI frameworks?
Answer: Yes. The A100 is fully compatible with all major AI/ML frameworks including TensorFlow, PyTorch, MXNet, JAX, ONNX, Keras, PaddlePaddle, and over 2,000 GPU-accelerated applications available in the NVIDIA NGC catalog.
How many A100 GPUs can be connected together?
Answer:
- PCIe version: Up to 2 GPUs via NVLink Bridge, up to 8-10 per server
- SXM version: Up to 16 GPUs interconnected via NVSwitch at 600 GB/s per GPU
- Multi-node scaling: Unlimited with InfiniBand networking
What size AI models can the A100 80GB train?
Answer: The A100 80GB can train:
- Single GPU: Models up to approximately 70-75 billion parameters (depending on optimization)
- 8 GPUs: Models up to 500-600 billion parameters
- Multi-node: Trillion+ parameter models (like GPT-3, GPT-4)
- With memory-efficient techniques (gradient checkpointing, ZeRO optimization), even larger models are possible
Is the A100 suitable for gaming or consumer use?
Answer: No. The A100 is a data center compute GPU with no display outputs, designed for 24/7 enterprise workloads, AI training/inference, and HPC. It’s not optimized for gaming. For gaming and consumer workstations, consider GeForce RTX series GPUs.
What’s the typical lifespan and reliability of A100 GPUs?
Answer: A100 GPUs are engineered for 24/7 operation in data centers with Mean Time Between Failures (MTBF) typically 5-7 years, ECC memory that protects against data corruption, enterprise-grade components built for reliability, thermal design optimized for sustained workloads. Many data centers plan for 3-5 year refresh cycles.
How does A100 compare to newer H100/H200?
Answer:
- H100: 2-3X faster for some AI workloads, HBM3 memory, higher price
- H200: H100 with 141GB HBM3e, optimized for LLMs
- A100 advantages: More mature ecosystem, wider availability, better cost-performance for many workloads, still highly competitive for most applications
- Recommendation: A100 80GB remains excellent value for most AI/HPC workloads in 2025
What power and cooling requirements does the A100 need?
Answer:
- PCIe: 300W TDP, requires dedicated 8-pin PCIe power, standard air cooling in well-ventilated racks
- SXM: 400W TDP (500W CTS), requires active liquid cooling in HGX/DGX systems
- Data center cooling: Maintain ambient temperature 20-25°C for optimal performance
- Power delivery: Ensure clean, stable power with UPS backup
Can A100 be used for cryptocurrency mining?
Answer: While technically possible, it’s not recommended or cost-effective. The A100 is optimized for AI/HPC workloads, not mining algorithms. GeForce GPUs offer better mining performance-per-dollar. Using A100 for mining would be a significant waste of its advanced AI acceleration capabilities.
What warranty and support does the A100 come with?
Answer: NVIDIA A100 typically includes 3-year standard warranty (varies by reseller), NVIDIA Enterprise Support options available, regular driver updates and security patches, access to NGC containers and optimized software, and extended warranties available through NVIDIA partners.
Is the A100 still relevant in 2025?
Answer: Absolutely yes. Despite newer generations (H100/H200), the A100 remains core infrastructure for major AI companies, offers excellent performance for most AI workloads, better availability than newer generations, superior cost-performance ratio, proven reliability and mature software stack, and will remain relevant for several more years.
Package Contents
- 1x NVIDIA A100 80GB Tensor Core GPU (PCIe or SXM module)
- Installation Guide & Quick Start Documentation
- Warranty Card
- Mounting Hardware (PCIe bracket for PCIe version)
Note: Power cables, additional brackets, and cooling solutions may need to be purchased separately depending on your system configuration.
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- Free pre-sales consultation to determine your needs
- System configuration recommendations
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Fast & Secure Delivery
- Express shipping available
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- Insurance coverage on all shipments
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Competitive Pricing
- Best market prices
- Flexible payment options
- Volume discounts for multiple units
- Special pricing for enterprise customers
Professional Services
- Installation and setup assistance
- System integration services
- Cluster deployment support
- Training and workshops
After-Sales Excellence
- Extended warranty options
- Priority RMA service
- Ongoing technical support
- Regular firmware and driver updates
Performance Summary
Training Performance
- Up to 3X faster than A100 40GB for large models
- 20X faster than NVIDIA V100
- 312 TFLOPS FP16 Tensor Core performance
- 156 TFLOPS TF32 for automatic acceleration
Inference Performance
- Up to 249X faster than CPU-only systems
- 1.25X faster than A100 40GB for batch-constrained models
- 624 TOPS INT8 with Structural Sparsity (1,248 TOPS)
- Sub-millisecond latency for many real-time applications
HPC Performance
- 11X improvement over P100 generation
- 19.5 TFLOPS FP64 Tensor Core (revolutionary for HPC)
- 1.8X faster than A100 40GB for memory-intensive simulations
- 95% DRAM utilization efficiency
Data Analytics
- 2X faster than A100 40GB on big data benchmarks
- 5-10X speedup with RAPIDS Accelerator for Spark
- Process terabyte-scale datasets in minutes
Conclusion
The NVIDIA A100 80GB Tensor Core GPU represents the gold standard in data center computing, delivering unprecedented performance, flexibility, and scalability for the most demanding AI, machine learning, data analytics, and scientific computing workloads. With revolutionary features like 80GB of ultra-fast HBM2e memory, third-generation Tensor Cores, Multi-Instance GPU technology, and 600 GB/s NVLink connectivity, the A100 80GB transforms what’s possible in modern computing.
Whether you’re training the next generation of large language models, conducting groundbreaking scientific research, analyzing massive datasets, or deploying production AI services at scale, the A100 80GB provides the performance, reliability, and enterprise features needed to stay at the forefront of innovation.
Invest in the A100 80GB and unlock the full potential of your AI and HPC initiatives. The future of computing is here, and it’s powered by NVIDIA Ampere.
Brand
Nvidia
Shipping & Payment
Additional information
| Use Cases |
Deep Learning Training ,High Performance Computing (HPC) ,Large Language Models (LLM) ,Scientific Computing |
|---|---|
| GPU Memory |
80GB HBM2e |
| FP64 |
9.7 TFLOPS |
| FP64 Tensor Core |
19.5 TFLOPS |
| FP32 |
19.5 TFLOPS |

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