Highlights

In brief

A new AI treatment advisor identifies the optimal drug mix and dose adjustments needed to control a patient’s blood sugar, which could help clinicians personalise outpatient care more effectively.

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A clinician’s co-pilot for diabetes treatment

25 Mar 2025

An innovative AI tool uses patient data to generate individualised treatment recommendations to support clinicians in managing type 2 diabetes.

A patient sits in the clinic, hoping for guidance on how best to manage their type 2 diabetes (T2D). For their doctor, finding this ‘best’ answer involves weighing the patient’s condition and complex clinical guidelines, then deciding which treatment option will be most effective yet acceptable for the patient—all under the constraints of a brief consultation.

These complexities often lead to inadequate or delayed adjustments to treatment plans, which in turn limit disease control and clinical outcomes.

To address this challenge, Pavitra Krishnaswamy, Principal Scientist at the A*STAR Institute for Infocomm Research (A*STAR I²R), formed a multidisciplinary research team in partnership with clinicians from Singapore General Hospital’s Department of Endocrinology. Their goal was to develop an artificial intelligence (AI) tool that could help clinicians personalise treatment decisions for patients with T2D more effectively.

“With the growth in electronic health records data that link patient characteristics and prescription choices with real-world outcomes, we have new opportunities for using AI to inform more tailored treatment decisions,” said Krishnaswamy.

The team’s efforts resulted in the creation of the AI Drug mix and dose Advisor (AIDA), an innovative tool that uses electronic health records (EHR) data to generate optimal drug mix and dose recommendations based on each patient’s needs.

An architectural overview of AIDA. Given a patient’s visit medical profile, AIDA identifies potential treatment regimens, filters and ranks them by feasibility using evidence-based diabetes management guidelines, then uses a heuristic search to identify the regimen that would optimise blood sugar (HbA1c) control relative to an individualised target (T).

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AIDA was trained on EHR data from over 700,000 patient visits in the SingHealth Diabetes Registry. Given patient factors such as age, weight, test results, medical history and past prescriptions, AIDA employs a predict-then-optimise strategy to pinpoint the smallest treatment adjustments—such as increasing dose or adding a specific drug—needed to bring a patient’s blood sugar under control.

What sets AIDA apart is its ability to identify granular drug and dose adjustments that would optimise outcomes in line with clinical guidelines. “Our algorithmic approach was motivated by the need for clinical actionability and acceptability,” said Krishnaswamy.

Through evaluations on large datasets, the team estimated that AIDA recommendations would improve control of glycated haemoglobin (HbA1c) —a measure of blood sugar —over standard-of-care advice. In qualitative reviews, a panel of endocrinologists mostly rated AIDA recommendations as clinically reasonable and precise.

By providing actionable insights, the tool could serve as a co-pilot for doctors in making personalised, timely, evidence-based and effective prescriptions with greater confidence, regardless of their specialisation level.

AIDA was developed under the ‘Diabetes Clinic of the Future’ initiative, as part of the strategic partnership between A*STAR and SingHealth. The team has been building a strong intellectual property portfolio and expanding clinical evaluations to further drive this technology to translation and impact.

The A*STAR-affiliated researchers contributing to this research are from the A*STAR Institute for Infocomm Research (A*STAR I²R).

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References

Nambiar, M., Bee, Y.M., Chan, Y.E., Mien, I.H., Guretno, F., et al. A drug mix and dose decision algorithm for individualized type 2 diabetes management. npj Digital Medicine 7, 254 (2024). | article

About the Researchers

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Milashini Nambiar

Milashini Nambiar was previously a Senior Scientist at the Machine Intellection Department, A*STAR Institute for Infocomm Research (A*STAR I²R). She completed a PhD in Operations Research at the Massachusetts Institute of Technology (MIT), USA, and her dissertation work won the INFORMS MSOM Student Paper Competition in 2019. Milashini has advanced heuristics for decision making under uncertainty for diverse e-commerce, manufacturing and healthcare applications. At I2R, her research focused on data-driven optimization approaches for real-world applications in supply chain management and clinical decision support.
Yu En Chan is a Senior Research Engineer at the Machine Intellection Department, A*STAR Institute for Infocomm Research (A*STAR I²R). She holds a BSc in Statistics from the National University of Singapore (NUS). Her work focuses on translating cutting-edge AI methodologies into impactful real-world applications and actionable business strategies across diverse domains, including education, precision public health, and chronic disease management.
Ivan Ho Mien is a Principal Scientist at the Healthcare and MedTech Division, A*STAR Institute for Infocomm Research (A*STAR I2R). He also holds joint appointments as a consultant neuroradiologist at the National Neuroscience Institute (NNI) and an adjunct assistant professor with the Duke-NUS Medical School. He obtained his BEng (Hons), MBBS, and PhD from the National University of Singapore (NUS) and is a fellow of the Royal College of Radiologists (UK). His research focuses on applications of artificial intelligence and machine learning for clinical imaging and decision support.
Feri Guretno is a Lead Research Engineer at the Machine Intellection Department, A*STAR Institute for Infocomm Research (A*STAR I²R). He earned his B.Eng in Electrical and Electronic Engineering from Nanyang Technological University (NTU) and M.Sc in System Design and Management from the Faculty of Engineering, National University of Singapore (NUS). Prior to his current role, Guretno served in the Cryptography and Security Department at A*STAR I2R, and was the founding engineer for iTwin, an award-winning A*STAR startup that was acquired in 2016. He has also driven early-stage developments at a number of technology startups in Indonesia and Singapore. His current R&D efforts focus on addressing challenges in distributed learning and real-world AI deployments, with a view to scalable Industrial Internet of Things and Health & MedTech applications.
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Pavitra Krishnaswamy

Deputy Head, Healthcare and MedTech Division

A*STAR Institute for Infocomm Research (A*STAR I²R)
Pavitra Krishnaswamy is a Principal Scientist at the Machine Intellection Department and Deputy Head of the Healthcare and MedTech Division, A*STAR Institute for Infocomm Research (A*STAR I²R). She earned her PhD in Electrical and Medical Engineering from the Massachusetts Institute of Technology (MIT) and Harvard Medical School, USA; and then completed postdoctoral work at MIT. At A*STAR I2R, she leads multidisciplinary R&D initiatives and teams interfacing multimodal real-world data, machine learning and clinical informatics for wide-ranging healthcare applications. Her recent efforts centre on statistical learning and inference, representation learning, and domain knowledge integration for precision health, chronic disease management and decision support applications. She has been named one of the Singapore 100 Women in Technology and recognised as a Fellow of the American Medical Informatics Association. Innovations from her team have been translated to enabling platforms and practical healthcare AI solutions.

This article was made for A*STAR Research by Wildtype Media Group