SAFEHR Bursary Awardees
Projects that have received a SAFEHR Bursary
Round 1
September 2025
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This project uses routinely collected paediatric observation data to identify early indicators of clinical deterioration in hospitalised children. Using data from Great Ormond Street Hospital, it will analyse physiological measurements and clinical signs, such as heart rate, oxygen saturation, and respiratory effort, to determine which observations most accurately predict adverse events, including unplanned intensive care admissions and paediatric arrest calls.
The study will apply advanced statistical and machine learning methods to evaluate the predictive value of individual and combined observations and to better understand patterns associated with deterioration. A key aim is to reassess and improve existing Paediatric Early Warning Scores (PEWS), which currently rely on simplified, manually calculated thresholds and have recognised limitations.
By developing and comparing data-driven prediction models, the project seeks to generate evidence for more accurate and interpretable paediatric early warning systems, while also improving understanding of the clinical significance of commonly recorded observations.
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This project explores whether large language models (LLMs) can be used to identify and classify acute respiratory tract infections (ARIs) in adults presenting to the emergency department, and whether their performance is comparable to traditional expert case review. ARIs are the most common infectious presentations in UK emergency departments, but determining their underlying cause remains challenging due to the lack of a robust diagnostic gold standard.
Using both structured and unstructured electronic health record data from UCLH, the study will assess the feasibility of LLM-based approaches for diagnosing ARIs and assigning likely aetiological categories. It will then compare LLM-generated classifications with expert clinical review to evaluate agreement and determine whether LLM-based phenotyping could be used reliably in future research.
The overall aim is to develop more efficient, scalable, and consistent methods for phenotyping ARIs, supporting future studies investigating biomarkers and improving diagnostic accuracy.
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This project investigates the challenges care home staff face when using hospital discharge summaries and aims to develop co-produced solutions to improve communication and patient care. Discharge summaries are a key mechanism for transferring information from hospitals to care homes, but they are often written using complex medical terminology, making them difficult for care home staff to understand. This can affect patient safety and care quality, increase workload within care homes, and lead to additional demands on NHS services through increased primary care contacts and avoidable readmissions.
The study comprises four workstreams that will examine current experiences of discharge summaries, co-produce guidance for writing more accessible summaries, and develop a large language model (LLM) capable of generating lay summaries. As part of the initial work, a retrospective analysis of discharge summaries from three NHS trusts will assess factors such as readability, comprehensibility, clarity of required actions, and the literacy, numeracy, and digital skills needed to use the information effectively.
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This study aims to improve decision-making around critical care admission for patients with haematological cancers, such as leukaemia and lymphoma, who are at high risk of serious complications during treatment. While therapies can be curative, they often result in severe illness requiring intensive monitoring and support. Compared with the general hospital population, these patients have a substantially higher likelihood of needing critical care, yet not all patients benefit from intensive care interventions.
The research will investigate whether earlier identification of deterioration and earlier admission to critical care could improve outcomes. Current clinical tools based on medical history, blood tests, and physiological observations have limited ability to predict which patients are most likely to require intensive care and when intervention would be most beneficial.
Using anonymised data from haematology cancer patients treated at UCLH between 2019 and 2026, the study will examine associations between early indicators of deterioration, critical care admission, and patient outcomes. Leveraging UCLH's large population of critically ill haematology patients, the project aims to develop evidence that supports more informed and timely ICU referral decisions, ultimately improving care pathways and outcomes for patients with haematological malignancies.
Round 2
February 2026
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This study investigates whether the shape and structure of the left atrium (LA) and left atrial appendage (LAA) influence the risk of blood clot formation in patients with atrial fibrillation (AF), a common heart rhythm disorder associated with an increased risk of stroke. Most AF-related strokes occur when clots form within the LAA and subsequently travel to the brain.
Using anonymised cardiac imaging data from UCLH, researchers will create 3D models of the LA and LAA to measure anatomical features such as size, shape, and structural characteristics. These features will be analysed alongside the presence of blood clots to identify which aspects of cardiac anatomy may be associated with a higher risk of stroke.
The findings could improve understanding of why some patients with AF are more prone to clot formation than others and support more personalised approaches to stroke prevention. In the future, this may help identify patients who would benefit from targeted anticoagulation strategies or interventions involving the left atrial appendage, contributing to more individualised AF management.
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This project aims to develop a large-scale, AI-driven cancer model trained on longitudinal electronic health record (EHR) data from thousands of cancer patients treated at UCLH. The goal is to improve understanding of how cancer progresses over time and why patients with seemingly similar diagnoses can experience very different outcomes.
Using an approach similar to the foundation models that underpin systems such as ChatGPT, the study will train a model on the complete clinical trajectories of cancer patients, including diagnoses, treatments, test results, and outcomes. This will enable the model to learn patterns in cancer progression and treatment response that may not be apparent through traditional research methods.
The model will initially be applied to non-small cell lung cancer (NSCLC) to predict clinically important outcomes and support more personalised treatment planning. In addition, it aims to provide richer clinical context for molecular and biological cancer research, helping bridge the gap between laboratory discoveries and real-world patient outcomes.
The study will use historical patient data only and will not directly influence current patient care. Researchers will also evaluate model performance across different demographic groups to ensure fairness and generalisability. Ultimately, the project seeks to lay the foundation for future cancer care that is informed by the collective experience of thousands of patients, enabling more personalised and data-driven treatment decisions.
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This project aims to develop and evaluate a conversational AI chatbot to support gastroenterology referrals and investigations. Patients referred to gastroenterology often require additional information beyond what is included in referral letters, and missing details can lead to delays, unnecessary tests, inappropriate clinic appointments, or poorly prepared procedures such as colonoscopies.
Using anonymised clinical records from the past seven years, researchers will develop and test a chatbot designed to collect key clinical information, including symptoms, medications, and risk factors, and to support patient preparation for investigations. Rather than interacting with real patients, the study will use "digital twins" created from historical patient records, allowing the chatbot's performance to be assessed in a simulated environment by comparing the information it gathers with specialist-documented clinical histories.
The project will also use the data to identify the essential components of a high-quality clinical assessment and to explore factors associated with important outcomes, such as incomplete procedures or significant gastrointestinal disease.
The overall goal is to develop a safe, validated AI tool that can improve referral triage, support appropriate investigation selection, enhance patient preparation, and ultimately improve the quality, efficiency, and safety of gastroenterology care.
Round 3
May 2026
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This study aims to identify modifiable clinical factors associated with failed newborn hearing screening tests in infants admitted to neonatal intensive care units (NICUs), who are at a substantially higher risk of hearing loss than the general newborn population. Although several risk factors for hearing impairment are already known, current evidence is limited by simplistic exposure definitions, inadequate adjustment for the severity of illness, and a lack of analysis of how multiple NICU interventions interact over time.
Using routinely collected longitudinal neonatal data from UCLH, the research will examine the impact of time-varying clinical exposures such as medication dosing, phototherapy, and ventilation support on newborn hearing screening outcomes. Advanced analytical methods will be used to account for changes in clinical status over time and to better understand the independent and combined effects of different interventions.
The goal is to identify clinically modifiable risk factors that could inform future neonatal care practices and help reduce the burden of hearing loss in vulnerable infants. The findings may support more targeted strategies for managing treatments and monitoring hearing outcomes in NICU patients.
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This project aims to develop an AI-assisted approach for detecting breast cancer at much earlier stages than is currently possible using MRI screening. Although breast MRI is highly effective for identifying breast cancer in women at increased risk, very small tumours can be difficult to detect or may be mistaken for benign findings.
To address this, researchers will create detailed "digital twin" models of breasts using existing MRI data from patients with and without breast cancer. These models will be used to simulate how tumours may have appeared at very early, pre-clinical stages before they became detectable through conventional imaging. By generating predicted MRI signatures of these tiny tumours, the team will train artificial intelligence algorithms to recognise subtle imaging patterns associated with the earliest stages of cancer development.
The AI system will then be adapted and tested on real patient MRI scans to evaluate its ability to identify cancers below current clinical detection limits. The ultimate goal is to improve early breast cancer detection, enabling earlier treatment and better patient outcomes. In addition, the digital twin and AI framework may have broader applications for detecting other cancers at an earlier stage.
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This study aims to improve how the risk of aortic aneurysm rupture or dissection is assessed by developing a more personalised, data-driven approach. Currently, decisions about monitoring and preventive surgery are largely based on whether the diameter of the aorta exceeds a fixed threshold on CT imaging. However, this "one-size-fits-all" method does not account for important patient-specific factors such as age, sex, ethnicity, and body size, meaning some patients may undergo unnecessary surgery while others experience life-threatening complications before reaching treatment thresholds.
Using machine learning techniques, the study will analyse CT imaging alongside routinely collected clinical data to investigate how aortic size, shape, and individual patient characteristics influence the risk of dissection or rupture. The aim is to develop personalised risk prediction models and more accurate intervention thresholds that better reflect an individual's true risk.
By learning from a large cohort of patients, the project seeks to support more informed decisions about surveillance and preventive surgery, while also evaluating whether the approach performs equitably across different demographic groups. Ultimately, the research aims to improve outcomes for patients with thoracic and abdominal aortic aneurysms by helping clinicians identify the right patients for the right treatment at the right time, reducing both unnecessary interventions and preventable complications.

