The AI breakthrough that could redefine cardiovascular disease treatment

One of the biggest challenges in managing AAA and PAD is the unpredictability of disease progression. For instance, while some small AAAs remain stable for years, others rupture unexpectedly, leading to a mortality rate as high as 85-90% in untreated cases. Similarly, PAD can progress to critical limb ischemia, increasing the risk of major cardiovascular events, amputations, and even death.


CO-EDP, VisionRICO-EDP, VisionRI | Updated: 12-02-2025 17:12 IST | Created: 12-02-2025 17:12 IST
The AI breakthrough that could redefine cardiovascular disease treatment
Representative Image. Credit: ChatGPT

Cardiovascular diseases remain one of the leading causes of mortality worldwide, with conditions like abdominal aortic aneurysms (AAAs) and peripheral artery disease (PAD) posing significant risks to patient health. These vascular diseases often progress unpredictably, leading to serious complications such as aneurysm rupture or critical limb ischemia. Traditional risk assessment models have limitations, leaving clinicians with incomplete tools for predicting disease progression and tailoring treatments. However, recent advancements in artificial intelligence (AI) and multimodal data integration offer new possibilities for personalized vascular healthcare.

A groundbreaking study, “Developing Trustworthy Artificial Intelligence Models to Predict Vascular Disease Progression: The VASCUL-AID-RETRO Study Protocol”, conducted by Lotte Rijken, Sabrina Zwetsloot, Stefan Smorenburg, and colleagues, and published in the Journal of Endovascular Therapy, explores the potential of AI-driven models to revolutionize risk stratification and disease prediction for AAA and PAD patients. This multinational research effort aims to build trustworthy, ethical, and data-driven AI models capable of predicting vascular disease progression and associated cardiovascular events with greater accuracy.

A new era of AI-driven vascular health prediction

One of the biggest challenges in managing AAA and PAD is the unpredictability of disease progression. For instance, while some small AAAs remain stable for years, others rupture unexpectedly, leading to a mortality rate as high as 85-90% in untreated cases. Similarly, PAD can progress to critical limb ischemia, increasing the risk of major cardiovascular events, amputations, and even death.

Current clinical guidelines use one-size-fits-all thresholds for surgical interventions, primarily based on aneurysm diameter or arterial obstruction severity. However, these metrics do not fully capture individual patient risk profiles. Many patients receive invasive procedures too late, while others undergo unnecessary interventions that could have been avoided with better risk prediction tools.

The VASCUL-AID-RETRO study is designed to address this challenge by developing multimodal AI models that integrate diverse datasets, including:

  • Clinical records
  • Radiological imaging
  • Proteomics and genomics
  • Hemodynamic parameters (blood flow and pressure models)

By analyzing comprehensive patient datasets from 5000 AAA and 6000 PAD patients across multiple European centers, the study aims to create highly precise AI-driven predictive models. These models are expected to provide personalized risk assessments, helping doctors make data-driven clinical decisions and potentially reducing unnecessary interventions while ensuring timely treatment for high-risk patients.

Building trustworthy AI for clinical application

While AI has demonstrated remarkable potential in disease detection and prediction, trustworthiness and ethical considerations remain major barriers to its clinical adoption. Many AI models suffer from limited generalizability, as they are often trained on small, homogeneous datasets, reducing their reliability in real-world healthcare settings.

The VASCUL-AID-RETRO study prioritizes trustworthy AI development, ensuring compliance with international ethics guidelines and legal standards. A core aspect of the study is the integration of a Health Ethical, Legal, and Social Aspects (HELSA) framework), designed to address:

  • Bias in AI algorithms (ensuring fair and inclusive predictions across diverse patient populations)
  • Data privacy and security (compliance with GDPR and ethical AI policies)
  • Transparency in AI decision-making (making AI model predictions interpretable for clinicians)

Furthermore, all AI models will undergo rigorous validation to assess their accuracy, reliability, and real-world applicability. Initially, separate risk prediction models will be developed for each data type (clinical, imaging, genomics, and proteomics). These models will then be combined into an advanced multimodal AI system, capable of providing more accurate and holistic risk assessments for individual patients.

The study also takes into account the explainability of AI models - a crucial factor for clinician acceptance and integration into routine medical practice. By utilizing graph neural networks, deep learning techniques, and statistical validation, researchers aim to ensure that medical professionals can understand and trust AI-driven recommendations.

Clinical implications: A step toward personalized medicine

The ultimate goal of the VASCUL-AID-RETRO study is to transform vascular disease management by shifting from a generalized treatment approach to precision medicine. By leveraging AI-driven risk prediction, healthcare providers can:

  • Identify high-risk patients earlier, allowing for timely intervention.
  • Reduce unnecessary surgeries, improving patient safety and resource utilization.
  • Optimize long-term disease management, leading to better patient outcomes.
  • Improve patient engagement through digital health monitoring, empowering individuals to participate in their own healthcare.

One innovative component of the VASCUL-AID project is the planned development of a mobile health (mHealth) application. This app will enable patients and physicians to monitor vascular health in real time, track risk factors, and receive AI-assisted recommendations for disease prevention and treatment. Such tools could revolutionize how vascular diseases are monitored and managed outside of hospital settings.

Additionally, the study will provide valuable insights into the genetic and biochemical factors influencing AAA and PAD progression, potentially uncovering new therapeutic targets for future treatments.

Conclusion: Shaping the future of AI in vascular healthcare

The VASCUL-AID-RETRO study represents a landmark effort in AI-driven vascular disease prediction, combining cutting-edge artificial intelligence with multimodal clinical and genomic data to improve patient care. By ensuring trustworthiness, transparency, and ethical compliance, this research sets a new standard for responsible AI integration in healthcare.

As the study progresses, future steps include prospective validation in the VASCUL-AID-PRO study, where AI models will be tested in real-world clinical settings. If successful, this initiative could lead to widespread adoption of AI-assisted decision-making tools in vascular surgery and other fields of cardiovascular medicine.

The integration of AI into vascular health marks a significant step toward personalized, data-driven medicine, where treatment decisions are tailored to each patient’s unique risk profile. By bridging the gap between AI research and clinical application, the VASCUL-AID initiative has the potential to save lives, reduce healthcare costs, and transform vascular disease management for future generations.

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