Clinical Trial Recommendations Using Semantics-Based Inductive Inference and Knowledge Graph Embeddings
Murthy V. Devarakonda, Smita Mohanty, Raja Rao Sunkishala, Nag, Mallampalli, and Xiong Liu

TL;DR
This paper introduces a novel recommendation system for clinical trial design leveraging knowledge graph embeddings and inductive inference, trained on clinical trial data to improve decision-making accuracy.
Contribution
It presents a new methodology using neural embeddings on a knowledge graph for clinical trials, including design, effectiveness of embedding methods, and inductive inference for recommendations.
Findings
Relevance scores of 70%-83% in recommendations
Most relevant recommendations appear near the top of the list
Potential improvements in training KGE with node semantics
Abstract
Designing a new clinical trial entails many decisions, such as defining a cohort and setting the study objectives to name a few, and therefore can benefit from recommendations based on exhaustive mining of past clinical trial records. Here, we propose a novel recommendation methodology, based on neural embeddings trained on a first-of-a-kind knowledge graph of clinical trials. We addressed several important research questions in this context, including designing a knowledge graph (KG) for clinical trial data, effectiveness of various KG embedding (KGE) methods for it, a novel inductive inference using KGE, and its use in generating recommendations for clinical trial design. We used publicly available data from clinicaltrials.gov for the study. Results show that our recommendations approach achieves relevance scores of 70%-83%, measured as the text similarity to actual clinical trial…
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Taxonomy
TopicsBiomedical Text Mining and Ontologies · Machine Learning in Healthcare · Topic Modeling
