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      <pub-date>
        <year>2007</year>
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      <abstract>
        <p>The FoodOn Food Ontology contains standardized terms and a facetbased classification scheme for describing food products, processing and environments. Mapping of foodborne pathogen isolate source information (descriptors of the contaminated materials and locations) to the FoodOn standard can facilitate data sharing and integration between multijurisdictional health and regulatory agencies utilizing disparate software platforms and data dictionaries. Faster and more efficient sharing of information is critical for tracking and controlling outbreaks of foodborne disease at local, national and international levels. This work describes mapping procedures which can be utilized by organizations and software developers to better enable interoperability between foodborne pathogen surveillance and outbreak management systems.</p>
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      <title>INTRODUCTION</title>
      <p>Globalization of food networks increases opportunities
for the spread of foodborne pathogens beyond borders and
jurisdictions, with major impacts on global health and
economies (Altekruse &amp; Swerdlow et al.,1996; World Health
Organization, 2008). Whole genome sequencing (WGS)
provides the highest resolution evidence for identifying,
typing and matching foodborne pathogen isolates from
different sources. WGS results must be combined with source
information to be meaningfully interpreted for regulatory
and health interventions, outbreak investigation, and risk
assessment. Isolate metadata (source of a pathogen) is
critical for determining mode of disease transmission, sources of
exposure and risk, susceptible populations, geographical
distribution and more. Public health and regulatory agencies
not only use different analytical platforms to track and
resolve outbreaks, but implement different data dictionaries
and free text descriptions for describing isolates and
exposures. The most important factor in reducing the number of
preventable cases of disease is timeliness of investigations
and responses, which is negatively impacted by the
timeconsuming re-coding and manual curation required for
translating non-standardized information between systems
and agencies. To address the interoperability problem, it is
important to relate similar concepts or relations from one
agency, information management system or jurisdiction, to
another. Mapping terms using an ontology represents a very
powerful solution for standardizing and integrating
heterogeneous data.
FoodOn (http://foodon.org) is an ontology resource that
aims to model the food domain, which includes knowledge
about food and food-related human activities, such as
agriculture, medicine, food safety inspection, shopping patterns
and sustainable development (Griffiths et al., 2016).
Mapping of foodborne pathogen isolate metadata to FoodOn can
provide a means for standardizing, translating, and
communicating this critical contextual information between
health agencies and platforms in a timely fashion. Here we
describe a semi-automated method derived from mapping
metadata from the widely used online microbial MLST
typing platform Enterobase, which can be broadly applied to
other use cases.</p>
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        <title>FOODON DESIGN PRINCIPLES</title>
        <p>Although there are several existing indexing systems
directly or indirectly related to food and food-borne illness,
including those maintained by Health Canada, the US
Department of Agriculture, and the UN’s Food and Agriculture
Organization, they have been built for different purposes
and so differences in their architecture hinder
interoperability. To provide a more comprehensive view of food safety,
data from these various sources must be integrated. In a
concerted effort to solve this semantic interoperability
problem, the OBOFoundry.org family of ontologies was
established in 2007 in order to provide a comprehensive set of
vocabularies in the biomedical domain. FoodOn, built
largely on a longstanding American and European
facetbased food indexing system called LanguaL
(http://langual.org), provides a list of over 2,000 plant and
animal food ingredient terms, as well as a supplemental list
of over 9,000 indexed food products. Facets include fields
for describing food processing, cooking and preservation, as
well as source ingredient anatomy, taxonomy, geography
and cultural heritage. The aim of FoodOn is to develop an
international standard for describing properties of food
related to agriculture, animal husbandry, collection,
distribution, preservation, culinary use, consumption and food
safety. FoodOn was accepted into the OBOFoundry in 2017.
FOODON MAPPING AND DATA HARMONIZATION</p>
        <p>Microbial Multilocus Sequence Typing (MLST) is a
technique used to classify and identify pathogenic strains for
outbreak investigation and surveillance of contamination.</p>
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        <title>ACKNOWLEDGEMENTS</title>
      </sec>
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      <title>REFERENCES</title>
      <p>Altekruse S, Swerdlow D. The changing epidemiology of foodborne
disease. Am J Med Sci. 1996, 311: 23-29.</p>
      <p>World Health Organization, Foodborne disease outbreaks: guidelines for
investigation and control, WHO Press, Geneva (2008).
Jérôme Euzenat. 2007. Semantic precision and recall for ontology
alignment evaluation. In Proceedings of the 20th international joint conference
on Artifical intelligence (IJCAI'07), Rajeev Sangal, Harish Mehta, and R.
K. Bagga (Eds.). Morgan Kaufmann Publishers Inc., San Francisco, CA,
USA, 348-353.</p>
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