Artificial Intelligence-assisted Biomedical Literature Knowledge Synthesis to Support Decision-making in Precision Oncology
Presentation Time: 04:15 PM - 04:30 PM
Abstract Keywords: Natural Language Processing, Information Extraction, Cancer Genetics
Primary Track: Applications
Programmatic Theme: Clinical Research Informatics
The delivery of effective targeted therapies requires comprehensive analyses of the molecular profiling of tumors and matching with clinical phenotypes in the context of existing knowledge described in biomedical literature, registries, and knowledge bases. We evaluated the performance of natural language processing approaches in supporting knowledge retrieval and synthesis from the biomedical literature. We tested PubTator 3.0, Bidirectional Encoder Representations from Transformers (BERT), and Large Language Models and evaluated their ability to support named entity recognition (NER) and relation extraction (RE) from biomedical texts. PubTator 3.0 and the BioBERT model performed best in the NER task (best F1-score 0.93 and 0.89, respectively), while BioBERT outperformed all other solutions in the RE task (best F1-score 0.79) and a specific use case it was applied to by recognizing nearly all entity mentions and most of the relations. Our findings support the use of AI-assisted approaches in facilitating precision oncology decision-making.
Speaker(s):
Ting He
Johns Hopkins University
Author(s):
Ting He - Johns Hopkins University; Kory Kreimeyer - US Food and Drug Administration; Taxiarchis Botsis, PhD - Johns Hopkins University School of Medicine; Mimi Najjar, MD - Johns Hopkins University; Jonathan Spiker, BS - Johns Hopkins University; Maria Fatteh, MD - Johns Hopkins University; Valsamo Anagnostou, MD, PhD - Johns Hopkins University;
Presentation Time: 04:15 PM - 04:30 PM
Abstract Keywords: Natural Language Processing, Information Extraction, Cancer Genetics
Primary Track: Applications
Programmatic Theme: Clinical Research Informatics
The delivery of effective targeted therapies requires comprehensive analyses of the molecular profiling of tumors and matching with clinical phenotypes in the context of existing knowledge described in biomedical literature, registries, and knowledge bases. We evaluated the performance of natural language processing approaches in supporting knowledge retrieval and synthesis from the biomedical literature. We tested PubTator 3.0, Bidirectional Encoder Representations from Transformers (BERT), and Large Language Models and evaluated their ability to support named entity recognition (NER) and relation extraction (RE) from biomedical texts. PubTator 3.0 and the BioBERT model performed best in the NER task (best F1-score 0.93 and 0.89, respectively), while BioBERT outperformed all other solutions in the RE task (best F1-score 0.79) and a specific use case it was applied to by recognizing nearly all entity mentions and most of the relations. Our findings support the use of AI-assisted approaches in facilitating precision oncology decision-making.
Speaker(s):
Ting He
Johns Hopkins University
Author(s):
Ting He - Johns Hopkins University; Kory Kreimeyer - US Food and Drug Administration; Taxiarchis Botsis, PhD - Johns Hopkins University School of Medicine; Mimi Najjar, MD - Johns Hopkins University; Jonathan Spiker, BS - Johns Hopkins University; Maria Fatteh, MD - Johns Hopkins University; Valsamo Anagnostou, MD, PhD - Johns Hopkins University;
Artificial Intelligence-assisted Biomedical Literature Knowledge Synthesis to Support Decision-making in Precision Oncology
Category
Paper - Student