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A pattern-based approach to a cell tracking ontology.
Author(s) -
Patryk Burek,
Nico Scherf,
Heinrich Herre
Publication year - 2019
Publication title -
procedia computer science
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.334
H-Index - 76
ISSN - 1877-0509
DOI - 10.1016/j.procs.2019.09.237
Subject(s) - computer science , ontology , ontology based data integration , process ontology , generality , interoperability , ontology alignment , structuring , upper ontology , tracking (education) , open biomedical ontologies , suggested upper merged ontology , domain (mathematical analysis) , information retrieval , data mining , world wide web , semantic web , psychology , mathematical analysis , pedagogy , philosophy , mathematics , epistemology , finance , economics , psychotherapist
Time-lapse microscopy has thoroughly transformed our understanding of biological motion and developmental dynamics from single cells to entire organisms. The increasing amount of cell tracking data demands the creation of tools to make extracted data searchable and interoperable between experiment and data types. In order to address that problem, the current paper reports on the progress in building the Cell Tracking Ontology (CTO): An ontology framework for describing, querying and integrating data from complementary experimental techniques in the domain of cell tracking experiments. CTO is based on a basic knowledge structure: the cellular genealogy serving as a backbone model to integrate specific biological ontologies into tracking data. As a first step we integrate the Phenotype and Trait Ontology (PATO) as one of the most relevant ontologies to annotate cell tracking experiments. The CTO requires both the integration of data on various levels of generality as well as the proper structuring of collected information. Therefore, in order to provide a sound foundation of the ontology, we have built on the rich body of work on top-level ontologies and established three generic ontology design patterns addressing three modeling challenges for properly representing cellular genealogies, i.e. representing entities existing in time, undergoing changes over time and their organization into more complex structures such as situations.

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