D4data

Models by this creator

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biomedical-ner-all

d4data

Total Score

146

The biomedical-ner-all model is an English Named Entity Recognition (NER) model trained on the Maccrobat dataset to recognize 107 biomedical entities from text. It is built on top of the distilbert-base-uncased model. Compared to similar models like bert-base-NER, this model is specifically focused on identifying a wider range of biomedical concepts. Another related model is Bio_ClinicalBERT, which was pre-trained on clinical notes from the MIMIC III dataset. Model inputs and outputs Inputs Free-form text in English, such as clinical case reports or biomedical literature. Outputs A list of recognized biomedical entities, with the entity type, start and end position, and confidence score for each entity. Capabilities The biomedical-ner-all model can accurately identify a diverse set of 107 biomedical entities, including medical conditions, treatments, procedures, anatomical structures, and more. This makes it well-suited for tasks like extracting structured data from unstructured medical text, powering biomedical search and information retrieval, and supporting downstream applications in clinical decision support and biomedical research. What can I use it for? The biomedical-ner-all model could be leveraged in a variety of biomedical and healthcare applications. For example, it could be used to automatically annotate electronic health records or research papers, enabling better search, analysis, and knowledge discovery. It could also be integrated into clinical decision support systems to help identify key medical concepts. Additionally, the model's capabilities could be further fine-tuned or combined with other models to tackle more specialized tasks, such as adverse drug event detection or clinical trial eligibility screening. Things to try One interesting thing to try with the biomedical-ner-all model is to compare its performance to other biomedical NER models like bert-base-NER or Bio_ClinicalBERT on a range of biomedical text sources. This could help identify the model's strengths, weaknesses, and optimal use cases. Additionally, exploring ways to integrate the model's entity recognition capabilities into larger healthcare systems or biomedical research workflows could uncover valuable applications and lead to impactful real-world deployments.

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Updated 5/28/2024