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dc.creatorLynch, SM
dc.creatorWiese, D
dc.creatorOrtiz, A
dc.creatorSorice, KA
dc.creatorNguyen, M
dc.creatorGonzález, ET
dc.creatorHenry, KA
dc.date.accessioned2020-12-09T22:28:13Z
dc.date.available2020-12-09T22:28:13Z
dc.date.issued2020-12-01
dc.identifier.issn2352-8273
dc.identifier.issn2352-8273
dc.identifier.doihttp://dx.doi.org/10.34944/dspace/4209
dc.identifier.otherPMC7451830 (pmc)
dc.identifier.urihttp://hdl.handle.net/20.500.12613/4227
dc.description.abstract© 2020 The Authors Objectives: Liver cancer (LC) continues to rise, partially due to limited resources for prevention. To test the precision public health (PPH) hypothesis that fewer areas in need of LC prevention could be identified by combining existing surveillance data, we compared the sensitivity/specificity of standard recommendations to target geographic areas using U.S. Census demographic data only (percent (%) Hispanic, Black, and those born 1950–1959) to an alternative approach that couples additional geospatial data, including neighborhood socioeconomic status (nSES), with LC disease statistics. Methods: Pennsylvania Cancer Registry data from 2007-2014 were linked to 2010 U.S. Census data at the Census tract (CT) level. CTs in the top 80th percentile for 3 standard demographic variables, %Hispanic, %Black, %born 1950–1959, were identified. Spatial scan statistics (SatScan) identified CTs with significantly elevated incident LC rates (p-value<0.05), adjusting for age, gender, diagnosis year. Sensitivity, specificity, and positive predictive value (PPV) of a CT being located in an elevated risk cluster and/or testing positive/negative for at least one standard variable were calculated. nSES variables (deprivation, stability, segregation) significantly associated with LC in regression models (p < 0.05) were systematically evaluated for improvements in sensitivity/specificity. Results: 9,460 LC cases were diagnosed across 3,217 CTs. 1,596 CTs were positive for at least one of 3 standard variables. 5 significant elevated risk clusters (CTs = 402) were identified. 324 CTs were positive for a high risk cluster AND standard variable (sensitivity = 92%; specificity = 37%; PPV = 17.4%). Incorporation of 3 new nSES variables with one standard variable (%Black) further improved sensitivity (93%), specificity (62.9%), and PPV (26.3%). Conclusions: We introduce a quantitative assessment of PPH by applying established sensitivity/specificity assessments to geospatial data. Coupling existing disease cluster and nSES data can more precisely identify intervention targets with a liver cancer burden than standard demographic variables. Thus, this approach may inform prioritization of limited resources for liver cancer prevention.
dc.format.extent100640-100640
dc.language.isoen
dc.relation.haspartSSM - Population Health
dc.relation.isreferencedbyElsevier BV
dc.rightsCC BY-NC-ND
dc.rights.urihttps://creativecommons.org/licenses/by-nc-nd/4.0/
dc.subjectDisparities
dc.subjectGeospatial
dc.subjectLiver cancer
dc.subjectNeighborhood
dc.subjectPrecision public health
dc.subjectSensitivity
dc.subjectSpecificity
dc.titleTowards precision public health: Geospatial analytics and sensitivity/specificity assessments to inform liver cancer prevention
dc.typeArticle
dc.type.genreJournal Article
dc.relation.doi10.1016/j.ssmph.2020.100640
dc.ada.noteFor Americans with Disabilities Act (ADA) accommodation, including help with reading this content, please contact scholarshare@temple.edu
dc.date.updated2020-12-09T22:28:07Z
refterms.dateFOA2020-12-09T22:28:13Z


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