AMIA 2025: Clinical AI & Data Science
Check out my latest post on clinical AI and data science at AMIA 2025.
View on LinkedInBiomedical data scientist building trustworthy clinical AI systems that connect predictive modeling, large language models, and prospective evaluations to improve perioperative and critical care.
I design and deploy AI systems that are grounded in clinical workflows and co-developed with care teams. My Ph.D. in Computational Medicine centered on early warning systems for critical events in intensive care units. Today, I apply those lessons as a Data Scientist and Postdoctoral Fellow at Duke, focusing on perioperative medicine and Generative AI for Medicine.
My work combines statistical rigor, prospective clinical evaluation, and multidisciplinary collaboration. I enjoy partnering with clinicians, informatics teams, and industry collaborators to translate AI research into sustainable delivery models that improve outcomes and equity.
Check out my latest post on clinical AI and data science at AMIA 2025.
View on LinkedInI build systems that are technically sound, interpretable, and ready for deployment in high-stakes settings.
Design LLM-powered agents and RAG pipelines that surface context-rich insights in perioperative care, balancing performance with safety and guardrails.
Develop time-series and multimodal models that predicts hemodynamic shock, hypothermia, and respiratory events hours ahead of deterioration.
Lead prospective validations and randomized trials that demonstrate measurable improvements in value-based care and clinical decision-making.
Multi-agent retrieval augmented generation framework for scientific literature review, future work will combine structured EHR data with LLM reasoning to support perioperative care teams.
Prospectively validated prediction of hemodynamic shock in resource-limited pediatric ICUs.
Early detection of hemodynamic shock using thermal videos and deep computer vision models to enable critical care monitoring.
Evaluated how electronic health literacy and social determinants of health are connected.
Demonstrated how decision support improved value-based imaging in a multicenter randomized controlled trial. Journal of the American Society of Echocardiography, 2025.
Introduced an LLM-driven pipeline for phenotyping pediatric sepsis cohorts using chart context and registry data. AMIA Annual Symposium, 2025.
Leveraging the potential of thermal imaging and machine learning to predict hemodynamic shock in critically ill patients. Scientific Reports, 2019.
Assessment of how social determinants influence digital health literacy among perioperative populations. Preventive Medicine Reports, 2024.
Combined physiologic vitals time-series including temperature time-series signals with machine learning to predict hypothermia. Frontiers in Physiology, 2022.
Leveraged longitudinal EHR and lung impulse oscillometry data to prognosticate the risk of acute asthma attack events in pediatric populations. European Respiratory Journal suppl_64, 2020.
Quantified the impact of ambient air pollution on pediatric emergency visits for acute respiratory illness. Environmental Science and Pollution Research, 2021.
Demonstrated real-world applicability of an early warning system for hemodynamic shock in collaboration with critical care teams. SSRN Working Paper, 2023.
I enjoy partnering on clinical deployments, translational research, and mentorship for emerging data scientists.