Life sciences domain analysis model.

Robert R Freimuth, Elaine T Freund, Lisa Schick, Mukesh K Sharma, Grace A Stafford, Baris E Suzek, Joyce Hernandez, Jason Hipp, Jenny M Kelley, Konrad Rokicki, Sue Pan, Andrew Buckler, Todd H Stokes, Anna Fernandez, Ian Fore, Kenneth H Buetow, Juli D Klemm
Author Information
  1. Robert R Freimuth: Division of Biomedical Statistics and Informatics, Department of Health Sciences Research, Mayo Clinic, Rochester, Minnesota, USA.

Abstract

OBJECTIVE: Meaningful exchange of information is a fundamental challenge in collaborative biomedical research. To help address this, the authors developed the Life Sciences Domain Analysis Model (LS DAM), an information model that provides a framework for communication among domain experts and technical teams developing information systems to support biomedical research. The LS DAM is harmonized with the Biomedical Research Integrated Domain Group (BRIDG) model of protocol-driven clinical research. Together, these models can facilitate data exchange for translational research.
MATERIALS AND METHODS: The content of the LS DAM was driven by analysis of life sciences and translational research scenarios and the concepts in the model are derived from existing information models, reference models and data exchange formats. The model is represented in the Unified Modeling Language and uses ISO 21090 data types.
RESULTS: The LS DAM v2.2.1 is comprised of 130 classes and covers several core areas including Experiment, Molecular Biology, Molecular Databases and Specimen. Nearly half of these classes originate from the BRIDG model, emphasizing the semantic harmonization between these models. Validation of the LS DAM against independently derived information models, research scenarios and reference databases supports its general applicability to represent life sciences research.
DISCUSSION: The LS DAM provides unambiguous definitions for concepts required to describe life sciences research. The processes established to achieve consensus among domain experts will be applied in future iterations and may be broadly applicable to other standardization efforts.
CONCLUSIONS: The LS DAM provides common semantics for life sciences research. Through harmonization with BRIDG, it promotes interoperability in translational science.

References

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MeSH Term

Biological Science Disciplines
Humans
Information Dissemination
Information Storage and Retrieval
Information Systems
Reference Standards
Semantics
Systems Integration
Translational Research, Biomedical
Unified Medical Language System

Word Cloud

Created with Highcharts 10.0.0researchLSDAMmodelinformationmodelsscienceslifeexchangeprovidesdomainBRIDGdatatranslationalbiomedicalLifeDomainamongexpertsanalysisscenariosconceptsderivedreferenceclassesMolecularharmonizationOBJECTIVE:MeaningfulfundamentalchallengecollaborativehelpaddressauthorsdevelopedSciencesAnalysisModelframeworkcommunicationtechnicalteamsdevelopingsystemssupportharmonizedBiomedicalResearchIntegratedGroupprotocol-drivenclinicalTogethercanfacilitateMATERIALSANDMETHODS:contentdrivenexistingformatsrepresentedUnifiedModelingLanguageusesISO21090typesRESULTS:v221comprised130coversseveralcoreareasincludingExperimentBiologyDatabasesSpecimenNearlyhalforiginateemphasizingsemanticValidationindependentlydatabasessupportsgeneralapplicabilityrepresentDISCUSSION:unambiguousdefinitionsrequireddescribeprocessesestablishedachieveconsensuswillappliedfutureiterationsmaybroadlyapplicablestandardizationeffortsCONCLUSIONS:commonsemanticspromotesinteroperabilityscience

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