Children's Hospital of Philadelphia builds anatomically precise pediatric heart models in seconds using MONAI Label and NVIDIA Auto3DSeg, cutting a four-hour manual workflow to routine clinical use. CHOP is now integrating NVIDIA's Warp and Newton physics engines to simulate how cardiac devices deploy in a child's anatomy before surgery, aiming for near real-time, same-day clinical decisions. The approach is spreading to 20+ U.S. children's hospitals, with a national consortium forming around shared open source modeling infrastructure.
NVIDIA has open-sourced a GPU-accelerated medical physics simulation framework within Isaac for Healthcare, designed to generate realistic training data for healthcare robots. The framework addresses the bottleneck of obtaining varied data for training robots to handle anatomical variation, instrument interactions, and edge cases.
NVIDIA has open-sourced a GPU-accelerated medical physics simulation framework within Isaac for Healthcare, designed to generate realistic training data for healthcare robots. The framework addresses the bottleneck of obtaining varied data for training robots to handle anatomical variation, instrument interactions, and edge cases.
An NVIDIA developer article explains how to migrate a MuJoCo robotics scene — an SO-101 arm doing a pick-and-place task — onto MuJoCo Warp (MJWarp), which runs MuJoCo physics as CUDA kernels on NVIDIA GPUs. It covers the Warp kernel model, batched simulation of up to 2,048 parallel environments, and validation steps for matching CPU and GPU backends. Practitioners gain a concrete recipe for boosting aggregate simulation throughput for reinforcement learning and large-scale sampling.
An NVIDIA developer article explains how to migrate a MuJoCo robotics scene — an SO-101 arm doing a pick-and-place task — onto MuJoCo Warp (MJWarp), which runs MuJoCo physics as CUDA kernels on NVIDIA GPUs. It covers the Warp kernel model, batched simulation of up to 2,048 parallel environments, and validation steps for matching CPU and GPU backends. Practitioners gain a concrete recipe for boosting aggregate simulation throughput for reinforcement learning and large-scale sampling.
Researchers at MIT and collaborating hospitals developed xvr, an AI system that registers real-time surgical X-rays with preoperative 3D scans (CT/MRI) in seconds with sub-millimeter precision, adapting to each patient in about five minutes. Published in Nature, it outperformed existing AI registration methods by an order of magnitude and could make minimally invasive procedures like stroke interventions more accessible.
Researchers at MIT and collaborating hospitals developed xvr, an AI system that registers real-time surgical X-rays with preoperative 3D scans (CT/MRI) in seconds with sub-millimeter precision, adapting to each patient in about five minutes. Published in Nature, it outperformed existing AI registration methods by an order of magnitude and could make minimally invasive procedures like stroke interventions more accessible.
Researchers introduced VIDS-Seg, an extension of the VIDS framework for uncertainty quantification in pediatric cardiac ultrasound segmentation. It addresses silent model failures on underrepresented subgroups like children when models are trained on adult data, without requiring labeled pediatric data for retraining.
Researchers introduced VIDS-Seg, an extension of the VIDS framework for uncertainty quantification in pediatric cardiac ultrasound segmentation. It addresses silent model failures on underrepresented subgroups like children when models are trained on adult data, without requiring labeled pediatric data for retraining.
Researchers introduced OsteoCAD, a modular eHealth framework that provides end-to-end deep learning capabilities for bone tumor segmentation, from dataset creation to inference, via a user-friendly interface. It addresses limited computational resources and expertise in healthcare by securely connecting to cloud-edge resources, enabling human-in-the-loop workflows.
Researchers introduced OsteoCAD, a modular eHealth framework that provides end-to-end deep learning capabilities for bone tumor segmentation, from dataset creation to inference, via a user-friendly interface. It addresses limited computational resources and expertise in healthcare by securely connecting to cloud-edge resources, enabling human-in-the-loop workflows.