FDA Radiology AI Devices

AI Segmentation is a cloud-based software product that uses artificial intelligence to automatically segment anatomical structures from CT images. It is designed to assist medical professionals in radiation therapy treatment planning by providing automated contours of organs in regions such as the head and neck, thorax, pelvis, and abdomen. The segmented structures can be reviewed, edited, and approved by qualified treatment planners and physicians to streamline planning and improve accuracy.

InferRead CT Stroke.AI is an AI-powered software that helps hospitals and radiologists prioritize head CT scans by flagging suspected intracranial hemorrhage cases. It analyzes CT images using a deep learning algorithm and highlights potential emergency cases on a worklist, assisting clinicians in faster triage. The software operates alongside standard radiology workflows without altering images or removing cases, improving efficiency in detecting brain hemorrhages.

The uCT ATLAS with uWS-CT-Dual Energy Analysis is a multi-slice CT scanner designed for producing cross-sectional images of the whole body and specific organs using advanced imaging technology. It features fast scanning with high spatial and temporal resolution, low radiation dose, and AI-based enhancements for image quality and patient positioning. Its dual energy analysis software helps differentiate tissue composition using CT images acquired at different energy levels, aiding diagnostic insights.

qER-Quant is an AI-powered software that processes non-contrast head CT scans to automatically identify and quantify key brain structures such as intracranial hyperdensities, lateral ventricles, and midline shift. It helps clinicians by providing volumetric data and visual overlays to aid in diagnosis and monitoring brain conditions over time.

ClariCT.AI is an AI-powered software solution that enhances the quality of CT images by reducing noise, especially in low-dose scans. This helps radiologists get clearer images to improve diagnosis while potentially lowering patient radiation exposure. It is compatible with CT images from any manufacturer and integrates seamlessly with medical IT systems.

HALO is an AI-powered notification software that analyzes brain CT angiograms to detect signs of suspected intracranial Large Vessel Occlusion (LVO). It helps clinicians by promptly notifying appropriate medical specialists to facilitate quicker evaluation and treatment of stroke patients, improving emergency care and patient outcomes.

Precise Position is an AI-enabled accessory for Philips Incisive CT systems that assists technologists in accurately positioning patients before CT scans. It uses a ceiling-mounted camera to detect patient orientation, determine the scan range, and automatically center the patient's anatomy. This reduces positioning time and enhances accuracy for head, chest, abdomen, and pelvic CT imaging, ultimately improving imaging workflow and patient comfort.

CINA CHEST is an AI-powered software that analyzes chest and thoraco-abdominal CT angiography scans to detect signs of pulmonary embolism and aortic dissection. It helps radiologists prioritize cases by flagging suspected positive findings through notifications, thereby improving workflow efficiency and timely patient care. The tool works alongside standard image interpretation without altering original images and is not intended for diagnosis alone but as an aid for faster triage.

Preview Shoulder is a pre-operative planning software that helps orthopedic surgeons develop shoulder surgery plans by processing patient CT scans. The software reconstructs 3D models of the shoulder anatomy, allowing surgeons to digitally place implants and generate detailed surgical planning reports, thus aiding surgical preparation without providing diagnostic decisions.

Automatic Anatomy Recognition (AAR) is a software medical device that uses deep learning to automatically identify and contour anatomical structures from CT scans. It is designed to assist technicians and physicians in radiation therapy planning by providing precise contours of organs at risk in the head, neck, and chest areas. This helps improve the accuracy and efficiency of treatment planning for patients undergoing radiation therapy for cancers in these body regions.