PFed-Signal: An ADR Prediction Model based on Federated Learning
Tao Li, Peilin Li, Kui Lu, Yilei Wang, Junliang Shang, Guangshun Li, Huiyu Zhou

TL;DR
PFed-Signal is a federated learning-based model that improves adverse drug reaction prediction accuracy by identifying and removing biased data from FAERS using Euclidean distance, outperforming traditional statistical methods.
Contribution
The paper introduces PFed-Signal, combining federated learning and Euclidean distance to eliminate biased data in ADR prediction, enhancing accuracy over existing statistical approaches.
Findings
Higher accuracy rate (0.887) and F1 score (0.890) compared to baselines.
Improved AUC of 0.957 indicating better prediction performance.
Effective bias removal from FAERS data improves signal detection.
Abstract
The adverse drug reactions (ADRs) predicted based on the biased records in FAERS (U.S. Food and Drug Administration Adverse Event Reporting System) may mislead diagnosis online. Generally, such problems are solved by optimizing reporting odds ratio (ROR) or proportional reporting ratio (PRR). However, these methods that rely on statistical methods cannot eliminate the biased data, leading to inaccurate signal prediction. In this paper, we propose PFed-signal, a federated learning-based signal prediction model of ADR, which utilizes the Euclidean distance to eliminate the biased data from FAERS, thereby improving the accuracy of ADR prediction. Specifically, we first propose Pfed-Split, a method to split the original dataset into a split dataset based on ADR. Then we propose ADR-signal, an ADR prediction model, including a biased data identification method based on federated learning and…
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Taxonomy
TopicsPharmacovigilance and Adverse Drug Reactions · Machine Learning in Healthcare · Advanced Causal Inference Techniques
