PNY NVIDIA RTX PRO 4000 SFF Blackwell Edition 24GB GDDR7 Graphics Card

Premium professionals demanding uncompromising performance in compact spaces now have their ideal solution: the PNY NVIDIA RTX PRO 4000 SFF Blackwell Edition 24GB GDDR7 Graphics Card. Engineered specifically for space-constrained workstations and high-performance computing environments, this card delivers enterprise-grade rendering power without sacrificing build integrity. Designed for creators, engineers, and AI specialists who refuse to compromise between density and capability, it transforms small form factor systems into powerhouse workstations.

• Blackwell Architecture Optimization: Leverages NVIDIA's latest Blackwell architecture for 30% faster tensor operations compared to previous generations, accelerating AI training and complex simulation workloads essential for professional workflows.
• 24GB GDDR7 Memory Bandwidth: The industry-leading GDDR7 memory delivers 1.5x the bandwidth of GDDR6X, enabling seamless handling of 8K textures, massive point cloud datasets, and real-time ray-traced visualizations without performance bottlenecks.
• Compact SFF Design: Precision-engineered for small form factor systems with a 2-slot profile and optimized cooling, allowing installation in space-constrained workstations without requiring oversized chassis or additional cooling solutions.

• 24GB GDDR7 VRAM
• Blackwell Architecture
• Small Form Factor (SFF) Design

• Experience uninterrupted 4K/8K content creation with zero frame drops during real-time rendering of complex scenes
• Reduce system footprint by 40% compared to standard-length professional cards while maintaining identical performance
• Benefit from enterprise-grade reliability with 24/7 operational stability in demanding server environments

• Compact workstation builds for architects and 3D animators requiring high-resolution viewport performance
• AI development labs needing dense GPU configurations in limited rack space
• Professional video editing systems where space efficiency is critical without sacrificing rendering speed