Active Heart, Stroke & Blood Computing & AI

Developing an AI-Powered System for Enhanced Pulmonary Hypertension Imaging Assessments

In plain English

AI plain-English summary

A doctor reviewing a lung scan for pulmonary hypertension currently relies on the naked eye and manual measurements—an AI system could instead extract hidden patterns from thousands of scans to catch the disease earlier. Pulmonary hypertension is often diagnosed late, when treatment options are limited. Current imaging relies on visual assessments or manual measurements, which miss subtle signs of disease. The researcher’s pilot data shows that AI assessments already outperform these manual methods. This project will train AI on a large, diverse set of expert-labelled scans, using both supervised and unsupervised learning to automate measurements of blood flow and heart-lung function. The system is designed to be “explainable”—meaning clinicians can see why the AI reached a conclusion—and includes human interaction to improve accuracy and trust. If successful, the AI could identify new disease subtypes that respond to specific therapies, improve predictions of patient outcomes, and speed up diagnosis. The approach is also designed to be adaptable to other heart and lung conditions, potentially transforming how imaging data is used across respiratory and cardiovascular medicine.

View original technical description
Pulmonary hypertension (PH) is a severe condition that is commonly diagnosed late and is associated with high mortality. Imaging plays a key role in the work up of patients with suspected PH as described in international guidelines. Currently imaging approaches in PH rely on visual assessments or manual measurements. Our pilot data demonstrates that artificial intelligence (AI) assessments have greater clinical value. There is an urgent need to develop a system to develop explainable AI, optimise implementation, to improve patient assessments. The three key aims of this fellowship are to use AI approaches to identify new diagnose PH earlier, identify new therapy responsive phenotypes and improve prognostication. The AI system involves training of highly heterogeneous imaging data, with contours and labels made by experts. Unsupervised and supervised AI approaches shall be employed to automate explainable pathophysiological and haemodynamic measurements, and more deeply phenotype patients from uni and multimodal data with thorough validation including scan-rescan testing. The proposed AI system include explainable models with human interaction to improve explainability, generalisability and accuracy, and can improve the detection and management of patients with PH, and provides an approach that translates to other heart and lung conditions.

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Researchers

Andy Swift (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

AI-Driven Analysis of Pulmonary Hypertension: Enhancing Diagnosis and Patient Outcomes Using ASPIRE Registry Data
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Artificial intelligence to improve the diagnosis of acute cardiovascular conditions
3D Cardiac Motion in Experimental Models of Pulmonary Arterial Hypertension
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Original classification

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