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Artificial Intelligence–Derived Retinal, ECG and Echocardiographic Biomarkers for Early Detection and Risk Prediction of Heart Failure in Hypertension and Diabetes Clinics

Funding
Self-funded
Study mode
Full-time
Apply by
Year round
Start date
Year round
Subject area
Biological and Biomedical Sciences
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Overview

This project develops and validates AI-derived retinal, ECG, echocardiographic, and serum biomarkers to enable early detection and risk prediction of heart failure in patients with hypertension and diabetes. Using retrospective and prospective data, it integrates multimodal deep learning and clinical tools to create scalable, non-invasive screening strategies for earlier diagnosis, improved risk stratification, and better clinical outcomes in high-risk populations.

About this opportunity

This project develops and validates AI-derived retinal, ECG, echocardiographic, and serum biomarkers to enable early detection and risk prediction of heart failure in patients with hypertension and diabetes. Using retrospective and prospective data, it integrates multimodal deep learning and clinical tools to create scalable, non-invasive screening strategies for earlier diagnosis, improved risk stratification, and better clinical outcomes in high-risk populations.

Heart failure (HF) frequently develops as a late-stage complication of hypertension and diabetes mellitus, conditions that are routinely managed in outpatient clinics long before HF is diagnosed. People with hypertension have about a 71 % higher relative risk of developing HF compared to people without hypertension [1]. In the Framingham Heart Study, 91 % of new HF cases were preceded by hypertension [2]. People with diabetes have a 1.7 to 4.9 fold higher risk of developing HF [3,4]. Despite regular follow-up, early or preclinical HF often remains undetected due to non-specific symptoms and limited access to advanced cardiac imaging. Novel, scalable biomarkers are needed to enable earlier identification of individuals at risk, facilitating timely intervention.

Retinal vessels share anatomical and physiological characteristics with coronary microcirculation, and retinal microvascular abnormalities have been associated with hypertension, diabetes, and adverse cardiovascular outcomes [5,6]. AI-derived retinal biomarkers may indicate systemic microvascular and cardiometabolic dysfunction and can help early HF identification or risk of HF in people with hypertension (HTN) or diabetes mellitus (DM) [7]. Integration of retinal AI with AI derived parameters from ECG [8], NTproBNP and AI assisted echocardiography [9] can aid early detection and risk stratification of HF. Integrating multimodal AI biomarkers across retinal imaging, ECG, and echocardiography may provide a powerful, low-burden strategy for early HF detection in high-risk clinic populations.

Aim

To develop and evaluate AI-based retinal, serum (NTproBNP), ECG, echocardiographic biomarkers for early HF detection in individuals with hypertension or diabetes.

Objectives

1. To identify AI-derived retinal biomarkers associated with prevalent and incident HF using retrospective data.

2. To prospectively validate retinal AI biomarkers for early HF detection in hypertension and diabetes clinics.

3. To assess the incremental diagnostic and predictive value of integrating AI ECG, AI echocardiography with AI retinal biomarkers.

4. To evaluate feasibility and clinical applicability of multimodal AI screening pathways in non-cardiology settings.

Experimental Approach

Work Package 1

  • Retrospective analysis of existing retinal fundus photographs (± OCT) linked to electronic health records.
  • Deep learning (foundation models, multimodal models) based feature extraction capturing vascular geometry, microvascular lesions, and retinal structure.
  • Deep learning (foundation models, multimodal models) Time-to-event modelling for incident HF

Work Package 2

  • Recruitment of patients without known HF from hypertension and diabetes clinics.
  • Baseline retinal imaging, serum biomarkers, AI echo integrated into clinic workflows.
  • Longitudinal follow-up for HF diagnosis, biomarker elevation, or echocardiographic abnormalities.

Work Package 3

  • AI ECG analysis of standard 12-lead ECGs to detect latent ventricular dysfunction.
  • AI echocardiography for automated assessment of systolic/diastolic function and myocardial strain.
  • Multimodal data fusion and explainable AI modelling.
  • Comparison with standard diagnostic pathways.

Outcomes

This project is expected to deliver validated AI-derived retinal biomarkers for HF risk, demonstrate their prospective utility in hypertension and diabetes clinics, and establish the added value of integrating point of care NTproBNP, AI ECG and AI echo. The findings may inform scalable, non-invasive screening strategies and support earlier intervention to reduce HF burden. By leveraging AI across retinal imaging, ECG, and echocardiography, this project aims to transform early heart failure detection in high-risk outpatient populations, bridging data-driven innovation with real-world clinical impact.

 

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How to apply

  1. 1. Contact supervisors

    Supervisors Email address Staff profile URL
    Dr Rajiv Sankaranarayanan Rajiv.Sankaranarayanan@liverpool.ac.uk https://www.liverpool.ac.uk/people/rajiv-sankaranarayanan
    Prof Gregory Lip Gregory.Lip@liverpool.ac.uk https://www.liverpool.ac.uk/people/gregory-lip
    Dr Uazman Alam Uazman.Alam@liverpool.ac.uk https://www.liverpool.ac.uk/people/uazman-alam
    Prof Yalin Zheng

     

    Yalin.Zheng@liverpool.ac.uk https://www.liverpool.ac.uk/people/yalin-zheng
  2. 2. Prepare your application documents

    Email your CV, cover letter and project title to rajiv.sankaranarayanan@liverpool.ac.uk

  3. 3. Apply

    Finally, register and apply online. You'll receive an email acknowledgment once you've submitted your application. We'll be in touch with further details about what happens next.

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Fees and funding

Your tuition fees, funding your studies, and other costs to consider.

Tuition fees

UK fees (applies to Channel Islands, Isle of Man and Republic of Ireland)

Full-time place, per year - £5,238

International fees

Full-time place, per year - £32,200

Fees stated are applicable for 2026/27 academic year


Additional costs

We understand that budgeting for your time at university is important, and we want to make sure you understand any costs that are not covered by your tuition fee. This could include buying a laptop, books, or stationery.

Find out more about the additional study costs that may apply to this project, as well as general student living costs.


Funding your PhD

If you're a UK national, or have settled status in the UK, you may be eligible to apply for a Postgraduate Doctoral Loan worth up to £30,301 to help with course fees and living costs.

There’s also a variety of alternative sources of funding. These include funded research opportunities and financial support from UK research councils, charities and trusts. Your supervisor may be able to help you secure funding.


We've set the country or region your qualifications are from as United Kingdom.

Scholarships and bursaries

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Duncan Norman Research Scholarship

If you’re awarded this prestigious scholarship, you’ll receive significant funding to support your postgraduate research. This includes full payment of your PhD fees and a cash bursary of £23,000 per year while you study. One award is available in each academic year.

John Lennon Memorial Scholarship

If you’re a UK student, either born in or with strong family connections to Merseyside, you could be eligible to apply for financial support worth up to £12,000 per year for up to three years of full-time postgraduate research (or up to five years part-time pro-rata).

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Contact us

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