NVIDIA announced TensorRT Model Connect, an open collection of reference implementations for deploying open AI models with TensorRT in native C++ applications. It reduces deployment to two commands from checkpoint to inference, removing model-specific conversion, preprocessing, post-processing, and runtime code. This matters to practitioners shipping open models into native apps without hand-writing integration code.
An NVIDIA engineering writeup covers lessons from building TensorRT Model Connect, an open source collection of C++ AI model reference implementations on top of TensorRT. The project was designed 'AI native by design' — its architecture and workflow choices were shaped around coding agents rather than human developers.
An NVIDIA engineering writeup covers lessons from building TensorRT Model Connect, an open source collection of C++ AI model reference implementations on top of TensorRT. The project was designed 'AI native by design' — its architecture and workflow choices were shaped around coding agents rather than human developers.
An arXiv paper extends AIPC, an LLM-agent-driven method for automating edge AI model deployment, from Qualcomm AI Runtime to heterogeneous inference backends: Intel OpenVINO, Rockchip RKNN, NVIDIA TensorRT, and ONNX Runtime. The system decomposes deployment into standardized, verifiable stages and injects runtime-specific knowledge via agent skills, scripts, and verification loops. It matters to practitioners because it demonstrates automated single-model-to-single-runtime deployment that previously required substantial manual toolchain work.
An arXiv paper extends AIPC, an LLM-agent-driven method for automating edge AI model deployment, from Qualcomm AI Runtime to heterogeneous inference backends: Intel OpenVINO, Rockchip RKNN, NVIDIA TensorRT, and ONNX Runtime. The system decomposes deployment into standardized, verifiable stages and injects runtime-specific knowledge via agent skills, scripts, and verification loops. It matters to practitioners because it demonstrates automated single-model-to-single-runtime deployment that previously required substantial manual toolchain work.
NVIDIA introduced the Nemotron Labs blog series, focusing on how open models, datasets, and training techniques help businesses build specialized AI systems on NVIDIA platforms. The series aims to provide practical guidance for deploying transparent research copilots and scalable AI agents in production.
NVIDIA introduced the Nemotron Labs blog series, focusing on how open models, datasets, and training techniques help businesses build specialized AI systems on NVIDIA platforms. The series aims to provide practical guidance for deploying transparent research copilots and scalable AI agents in production.
NVIDIA announced Groq 3 LPX, an interactive AI inference accelerator designed for the NVIDIA Vera Rubin platform, paired with Vera Rubin NVL72. The combination aims to deliver high throughput and interactivity across a wide range of AI workloads, from small to large models, both open and closed.
NVIDIA announced Groq 3 LPX, an interactive AI inference accelerator designed for the NVIDIA Vera Rubin platform, paired with Vera Rubin NVL72. The combination aims to deliver high throughput and interactivity across a wide range of AI workloads, from small to large models, both open and closed.
NVIDIA announced day-0 support for a new model, enabling developers to finetune it for domain-specific use cases via NVIDIA NeMo AutoModel. The support was acknowledged in a post thanking NVIDIA AI, indicating the model is now available for customization.
NVIDIA announced day-0 support for a new model, enabling developers to finetune it for domain-specific use cases via NVIDIA NeMo AutoModel. The support was acknowledged in a post thanking NVIDIA AI, indicating the model is now available for customization.