The NVIDIA RTX 6000 Ada Generation is designed to meet the challenges of today’s professional workflows
Overview:
The NVIDIA RTX™ 6000 Ada Generation is designed to meet the challenges of today’s professional workflows. Built on the NVIDIA Ada Lovelace architecture, the RTX 6000 combines 142 third-generation RT Cores, 568 fourth-generation Tensor Cores, and 18176 CUDA® cores with 48GB of graphics memory to deliver the next generation of AI graphics and petaflop inferencing performance for unprecedented speed-up of rendering, AI, graphics, and compute workloads. RTX 6000-powered workstations provide what you need to succeed in today’s ultra-challenging business environment.
NVIDIA Ada Lovelace Architecture
NVIDIA® RTX™ 6000 Ada Generation is the most powerful workstation GPU offering high-performance, real-time ray tracing, AI-accelerated compute, and professional graphics rendering. Building upon the major SM enhancements from the Ada Lovelace GPU, the NVIDIA Ada Lovelace architecture provides more cores, higher clocks, and a larger L2 cache for more performance to enhance ray tracing operations, tensor matrix operations, and frame rates with DLSS 3.0.
CUDA Cores
The NVIDIA Ada Lovelace architecture-based CUDA Cores offer more than 2X the single-precision floating point (FP32) throughput compared to the previous generation, providing significant performance improvements for graphics workflows such as 3D model development and compute for workloads such as desktop simulation for computer-aided engineering (CAE). The RTX 6000 Ada enables two FP32 primary data paths, doubling the peak FP32 operations.
3rd Generation RT Cores
Incorporating 3rd generation ray tracing engines, NVIDIA Ada Lovelace architecture-based GPUs provide incredible ray-traced rendering performance. A single RTX 6000 Ada board can render complex professional models with physically accurate shadows, reflections, and refractions to empower users with instant insight. Working in concert with applications leveraging APIs such as NVIDIA OptiX, Microsoft DXR, and Vulkan ray tracing, systems based on the RTX 6000 Ada will power truly interactive design workflows to provide immediate feedback for unprecedented levels of productivity. The RTX 6000 Ada features up to 2X faster ray-triangle intersection throughput compared to the previous generation.
4th Generation Tensor Cores
Specialized for deep learning matrix multiply and accumulate math operations at the heart of neural network training and inferencing functions, the RTX 6000 Ada includes enhanced Tensor Cores that accelerate more data types and still support the Fine-Grained Structured Sparsity feature that delivers more than 2X throughput for tensor matrix operations compared to the previous generation. New Tensor Cores will accelerate new FP8 precision modes. Independent floating-point and integer data paths allow more efficient execution of workloads using a mix of computation and addressing calculations.
PCIe Gen 4
The RTX 6000 Ada supports PCI Express Gen 4, which provides double the bandwidth of PCIe Gen 3, improving data-transfer speeds from CPU memory for data-intensive tasks like AI and data science.
5th Generation NVDEC Engine
NVDEC is well suited for transcoding and video playback applications for real-time decoding. The following video codecs are supported for hardware-accelerated decoding: MPEG-2, VC-1, H.264 (AVCHD), H.265 (HEVC), VP8, VP9, and AV1 video formats. Video encoding at 8K/60 will be achievable for professional video editing.
8th Generation NVENC Engine
NVENC can take on the most demanding 4K or 8K video encoding tasks to free up the graphics engine and the CPU for other operations. The RTX 6000 Ada provides better encoding quality than software-based x264 encoders. The RTX 6000 Ada incorporates AV1 video encoding which is 40% more efficient than H.264 encoding for 4K HDR video. AV1 will provide better quality at the same bitrate bandwidth.
Error Correcting Code (ECC) on Graphics Memory
Meet strict data integrity requirements for mission-critical applications with uncompromised computing accuracy and reliability for workstations.
Graphics Preemption
Pixel-level preemption provides more granular control to better support time-sensitive tasks such as VR motion tracking.
Compute Preemption
Preemption at the instruction level provides finer-grain control over compute tasks to prevent long-running applications from either monopolizing system resources or timing out.
