Advanced GPU Architecture For Your Computing Needs
Compare performance metrics, architectures, and specifications to find your ideal GPU for gaming, AI workloads, or creative applications.
GPU Architecture Evolution
Explore the historical development of NVIDIA's GPU architectures
Tesla Architecture
Introduced in 2006, the Tesla architecture marked NVIDIA's first unified shader architecture, enabling more flexible and efficient processing by allowing shaders to handle multiple tasks.
Key Innovations
- Unified shader model
- Improved parallel processing capabilities
Notable GPUs
Fermi Architecture
Launched in 2010, Fermi introduced significant advancements such as improved double-precision performance and error-correcting memory, catering to both gaming and scientific computing needs.
Key Innovations
- Enhanced parallelism
- Better memory management
- Support for CUDA 3.0
Notable GPUs
Kepler Architecture
Kepler, introduced in 2012, focused on energy efficiency and performance per watt, making GPUs more power-efficient without compromising performance.
Key Innovations
- Dynamic Parallelism
- Hyper-Q technology
- Improved SMX design
Notable GPUs
Maxwell Architecture
Released in 2014, Maxwell brought further improvements in energy efficiency and introduced technologies aimed at enhancing gaming performance and visual quality.
Key Innovations
- Improved memory compression
- VXGI (Voxel Global Illumination)
- Support for DirectX 12
Notable GPUs
Pascal Architecture
Introduced in 2016, Pascal marked a significant leap in performance and efficiency, utilizing a 16nm manufacturing process and supporting new memory technologies.
Key Innovations
- NVLink interconnect
- Support for HBM2 memory
- Enhanced compute capabilities
Notable GPUs
Volta Architecture
Launched in 2017, Volta was designed primarily for data centers and AI workloads, introducing Tensor Cores to accelerate deep learning tasks.
Key Innovations
- Tensor Cores for AI acceleration
- Improved FP64 performance
Notable GPUs
Turing Architecture
Released in 2018, Turing introduced real-time ray tracing capabilities and AI-based features, significantly enhancing visual realism in gaming and professional graphics.
Key Innovations
- RT Cores for ray tracing
- Tensor Cores for AI
- Support for GDDR6 memory
Notable GPUs
Ampere Architecture
Introduced in 2020, Ampere built upon its predecessors by offering substantial improvements in performance and efficiency, catering to both gaming and data center markets.
Key Innovations
- Third-generation Tensor Cores
- Second-generation RT Cores
- Support for GDDR6X memory
Notable GPUs
Ada Lovelace Architecture
Released in 2022, Ada Lovelace architecture focused on advancing ray tracing and AI capabilities, delivering higher performance and efficiency for gaming and professional applications.
Key Innovations
- Fourth-generation Tensor Cores
- Third-generation RT Cores
- Enhanced DLSS technology
Notable GPUs
Blackwell Architecture
Announced in early 2025, Blackwell architecture represents NVIDIA's latest innovation, emphasizing AI-driven neural rendering and significant performance enhancements.
Key Innovations
- Neural Shaders
- DLSS 4
- Enhanced real-time rendering capabilities
Notable GPUs
Discover the Perfect GPU Architecture
Our comprehensive analysis tools help you make data-driven hardware decisions
In-Depth GPU Analysis
Access the latest GPU technologies and detailed performance benchmarks with insights from industry experts.
Advanced Comparisons
Compare GPUs side-by-side with feature breakdowns, benchmarks, and detailed performance metrics across scenarios.
Tech Community
Connect with GPU experts and tech enthusiasts to share experiences and get hardware recommendations.
Performance Tools
Utilize our advanced calculators and AI-powered algorithms for precise hardware requirement planning.
Specialized Filtering
Find exactly what you need with powerful search filters across technical specifications and use cases.
Real-Time Analytics
Stay updated with real-time price tracking and performance trends across multiple retailers.
Gaming Benchmarks
See how each GPU performs in popular games with detailed FPS metrics at various resolutions and settings.
AI Compute Analysis
Understand which GPUs excel at different AI and machine learning workflows with specialized benchmarks.
GPU Performance Metrics
Detailed benchmarks and specifications to help you make data-driven decisions for your specific computing requirements.
Frame Rate Analysis
Compare real-world FPS performance across multiple titles and resolutions
Compute Performance
Evaluate raw computational power with FLOPS, tensor operations, and throughput metrics
Power Efficiency
Analyze performance-per-watt ratios and thermal characteristics under load
Compare GPU Architectures Side by Side
Get detailed comparisons of compute performance, memory bandwidth, and power efficiency metrics to make the perfect choice for your technical requirements.
Performance Metrics
Detailed FLOPS, memory bandwidth, and compute efficiency
Architecture Analysis
Deep dive into core counts, cache hierarchy, and bus width
Compute Capability
Tensor core performance and specialized workload optimization