Javascript must be enabled to continue!
Deep Learning and NLP For Knowledge Extraction from Laboratory Reports
View through CrossRef
IntroductionDue to the ever-growing volume and complexity of clinical data, it has become a tedious task to extract information from data for secondary uses such as decision support, quality assurance, and outcome analysis. Recently, there have been great advances in Natural Language Processing (NLP) approaches that automate knowledge extraction from clinical reports in order to save costs and improve efficiency.
Objectives/ApproachOur goal is the development of an NLP tool designed to automatically extract and encode clinical information from laboratory reports. This study describes and evaluates our NLP tool on provincial repositories of laboratory tests and results called Ontario Laboratory Information System (OLIS). OLIS is an electronic system that covers >200 labs and stores patients’ current and past test results as patients move through different areas of the healthcare system. Our NLP tool is a modular system of pipelined components including Named Entity Recognition module for extracting mentions of virus and test mentions and inference to combine extracted entities into a meaningful outcome.
ResultsInitial analyses were conducted on a segment of OLIS related to laboratory tests for respiratory viruses. This data included over a million observations corresponding to ~100 Logical Observation Identifiers Names and Codes (LOINC), with >40,000 unique strings. The clinical text was cleaned, tokenized, and parsed using an in-house text algorithm that was continually refined with manual review from clinical experts. This data was then encoded as virus and test types to be used as a ground truth. The NLP tool was built on ground truth data and achieved an accuracy greater than 95%.
Conclusion/ImplicationsApproaches like these can be applied to many areas of health research that make use of clinical reports. Our methods, when optimized and validated, can be deployed into clinical systems to provide on-the-spot analysis of various laboratory reports.
Title: Deep Learning and NLP For Knowledge Extraction from Laboratory Reports
Description:
IntroductionDue to the ever-growing volume and complexity of clinical data, it has become a tedious task to extract information from data for secondary uses such as decision support, quality assurance, and outcome analysis.
Recently, there have been great advances in Natural Language Processing (NLP) approaches that automate knowledge extraction from clinical reports in order to save costs and improve efficiency.
Objectives/ApproachOur goal is the development of an NLP tool designed to automatically extract and encode clinical information from laboratory reports.
This study describes and evaluates our NLP tool on provincial repositories of laboratory tests and results called Ontario Laboratory Information System (OLIS).
OLIS is an electronic system that covers >200 labs and stores patients’ current and past test results as patients move through different areas of the healthcare system.
Our NLP tool is a modular system of pipelined components including Named Entity Recognition module for extracting mentions of virus and test mentions and inference to combine extracted entities into a meaningful outcome.
ResultsInitial analyses were conducted on a segment of OLIS related to laboratory tests for respiratory viruses.
This data included over a million observations corresponding to ~100 Logical Observation Identifiers Names and Codes (LOINC), with >40,000 unique strings.
The clinical text was cleaned, tokenized, and parsed using an in-house text algorithm that was continually refined with manual review from clinical experts.
This data was then encoded as virus and test types to be used as a ground truth.
The NLP tool was built on ground truth data and achieved an accuracy greater than 95%.
Conclusion/ImplicationsApproaches like these can be applied to many areas of health research that make use of clinical reports.
Our methods, when optimized and validated, can be deployed into clinical systems to provide on-the-spot analysis of various laboratory reports.
Related Results
AI and Incidental Findings
AI and Incidental Findings
Photo by Accuray on Unsplash
INTRODUCTION
Delayed and missed follow-up on incidental findings threatens patient health and is a major financial risk for healthcare systems. The hea...
Natural Language Processing for Clinical Laboratory Data Repository Systems: Implementation and Evaluation for Respiratory Viruses
Natural Language Processing for Clinical Laboratory Data Repository Systems: Implementation and Evaluation for Respiratory Viruses
Abstract
Background
With the growing volume and complexity of laboratory repositories, it has become tedious to parse unstructu...
CREATING LEARNING MEDIA IN TEACHING ENGLISH AT SMP MUHAMMADIYAH 2 PAGELARAN ACADEMIC YEAR 2020/2021
CREATING LEARNING MEDIA IN TEACHING ENGLISH AT SMP MUHAMMADIYAH 2 PAGELARAN ACADEMIC YEAR 2020/2021
The pandemic Covid-19 currently demands teachers to be able to use technology in teaching and learning process. But in reality there are still many teachers who have not been able ...
The Role of Natural Language Processing (NLP) in Healthcare: A Comprehensive Review
The Role of Natural Language Processing (NLP) in Healthcare: A Comprehensive Review
As the healthcare industry transitions towards digitization, the integration of advanced technologies becomes imperative to enhance efficiency and improve patient outcomes. Natural...
Natural Language Processing Applications in Mechanical Engineering Education
Natural Language Processing Applications in Mechanical Engineering Education
Abstract
NLP, or Natural Language Processing, is a branch of artificial intelligence, enabling machines to understand and respond to human language in both written a...
Selection of Injectable Drug Product Composition using Machine Learning Models (Preprint)
Selection of Injectable Drug Product Composition using Machine Learning Models (Preprint)
BACKGROUND
As of July 2020, a Web of Science search of “machine learning (ML)” nested within the search of “pharmacokinetics or pharmacodynamics” yielded over 100...
Utilizing Large Language Models for Geoscience Literature Information Extraction
Utilizing Large Language Models for Geoscience Literature Information Extraction
Extracting information from unstructured and semi-structured geoscience literature is a crucial step in conducting geological research. The traditional machine learning extraction ...
SynLab: The Portable Lab
SynLab: The Portable Lab
Introduction: Laboratory experiments are an important part of science learning, but access to practical experimentation is not always consistent. SynLab - The Portable Lab was deve...

