Stay ahead of the curve with regular insights bridging the gap between complex AI research and real-world application.
H2A Community Writing is an ongoing collection of essays exploring how people, organizations, and intelligent systems learn, reason, and make decisions together. Through reflections on AI, cognition, learning, responsibility, and uncertainty, the series examines the human questions that emerge as AI becomes increasingly embedded in everyday life.
Subscribe to get deep dives into machine learning advancements, explainable AI (XAI) frameworks, and the evolving landscape of healthcare data science delivered straight to your inbox.
A curated selection of published research focusing on Explainable AI (XAI), synthetic data generation, and biomedical informatics.
Towards responsible AI: an implementable blueprint for integrating explainability and social-cognitive frameworks in AI systems (2025)
Impact: Provides an actionable framework for developers and organizations to build ethical, transparent, and socially-aware artificial intelligence systems.
Publication: AI Perspectives & Advances
Laboratories of Harm Reduction and Treatment: Determinants of States' Policy Adoptions to Address the Opioid Epidemic (2026)
Impact: A data-driven analysis exploring how public health policies and state-level data informatics influence harm reduction strategies.
Publication: Journal of Health Politics, Policy and Law
CEFEs: a CNN explainable framework for ECG signals (2021)
Impact: Introduces a novel deep learning framework that makes convolutional neural networks interpretable for cardiac health diagnostics, ensuring clinicians can trust AI predictions.
Publication: Artificial Intelligence in Medicine
Generating healthcare time series data for improving diagnostic accuracy of deep neural networks (2021)
Impact: Demonstrates how synthetic data generation can safely overcome data scarcity and privacy constraints to train highly accurate medical AI models.
Publication: IEEE Transactions on Instrumentation and Measurement
Exploring a global interpretation mechanism for deep learning networks when predicting sepsis (2023)
Impact: Develops global interpretability methods for deep learning models tasked with the early, life-saving prediction of sepsis in clinical settings.
Publication: Scientific Reports (Nature)