3 research outputs found
Artificial Intelligence and Interstitial Lung Disease: Diagnosis and Prognosis.
Interstitial lung disease (ILD) is now diagnosed by an ILD-board consisting of radiologists, pulmonologists, and pathologists. They discuss the combination of computed tomography (CT) images, pulmonary function tests, demographic information, and histology and then agree on one of the 200 ILD diagnoses. Recent approaches employ computer-aided diagnostic tools to improve detection of disease, monitoring, and accurate prognostication. Methods based on artificial intelligence (AI) may be used in computational medicine, especially in image-based specialties such as radiology. This review summarises and highlights the strengths and weaknesses of the latest and most significant published methods that could lead to a holistic system for ILD diagnosis. We explore current AI methods and the data use to predict the prognosis and progression of ILDs. It is then essential to highlight the data that holds the most information related to risk factors for progression, e.g., CT scans and pulmonary function tests. This review aims to identify potential gaps, highlight areas that require further research, and identify the methods that could be combined to yield more promising results in future studies
An Empirical Analysis for Zero-Shot Multi-Label Classification on COVID-19 CT Scans and Uncurated Reports
The pandemic resulted in vast repositories of unstructured data, including
radiology reports, due to increased medical examinations. Previous research on
automated diagnosis of COVID-19 primarily focuses on X-ray images, despite
their lower precision compared to computed tomography (CT) scans. In this work,
we leverage unstructured data from a hospital and harness the fine-grained
details offered by CT scans to perform zero-shot multi-label classification
based on contrastive visual language learning. In collaboration with human
experts, we investigate the effectiveness of multiple zero-shot models that aid
radiologists in detecting pulmonary embolisms and identifying intricate lung
details like ground glass opacities and consolidations. Our empirical analysis
provides an overview of the possible solutions to target such fine-grained
tasks, so far overlooked in the medical multimodal pretraining literature. Our
investigation promises future advancements in the medical image analysis
community by addressing some challenges associated with unstructured data and
fine-grained multi-label classification.Comment: Proceedings of the IEEE/CVF International Conference on Computer
Vision (ICCV) Workshops 202