Filters: Author is Turner, Elizabeth C. [Clear All Filters]
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“Redbed diagenesis links district-scale mineralising fluids to Cu source rock in the Polaris Zn-Pb(-Cu) district, Arctic Canada”, Ore Geology Reviews, p. 105916, 2024.
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“Biostratigraphic evidence for incremental tectonic development of early Cambrian deep-water environments in the Misty Creek embayment (Selwyn basin, Northwest Territories, Canada)”, Canadian Journal of Earth Sciences, pp. 1-16, 2022.
, “Geochemical Evidence for a Topographically Driven Regional Mineralizing Fluid in the Polaris Zn District, Arctic Canada”, Economic Geology, vol. 117, pp. 1451-1480, 2022.
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“Shale-hosted biota from the Dismal Lakes Group in Arctic Canada supports an early Mesoproterozoic diversification of eukaryotes”, Journal of Paleontology, pp. 1-25, 2021.
, “High-resolution correlation between contrasting early Tonian carbonate successions in NW Canada highlights pronounced global carbon isotope variations”, Precambrian ResearchPrecambrian Research, vol. 346, p. 105816, 2020.
, “Offshore bedrock geology of Eclipse Sound and Pond Inlet: connecting the structure and stratigraphy of Bylot and northern Baffin islands”, Canadian Journal of Earth SciencesCanadian Journal of Earth Sciences, vol. 57, pp. 1254-1267, 2020.
, “Early fungi from the Proterozoic era in Arctic Canada”, Nature, 2019.
, “Atypical Cu mineralisation in the Cornwallis carbonate-hosted Zn district: Storm copper deposit, Arctic Canada”, Ore Geology ReviewsOre Geology Reviews, vol. 99, pp. 86-115, 2018.
, “Implications of selective predation on the macroevolution of eukaryotes: Evidence from Arctic Canada”, Emerging Topics in Life SciencesEmerging Topics in Life Sciences, 2018.
, “Origin and hydrology of a large, intact Early Cambrian paleocave system and its role in overlying fluidisation structures, Arctic Canada”, Sedimentary Geology, vol. 351, pp. 66-79, 2017.
, GeoRef, Copyright 2018, American Geological Institute.2017-037559fluidization structurespaleocavesQuyuk formationWynniatt Formation
“Late Mesoproterozoic rifting in Arctic Canada during Rodinia assembly; impactogens, trans-continental far-field stress and zinc mineralisation”, Terra Nova, vol. 28, pp. 188-194, 2016.
, GeoRef, Copyright 2018, American Geological Institute.2017-000807Borden BasinBylot BasinBylot basinsMilne Inlet Graben
“Mesoproterozoic basins in Yukon, Canada show initial rifting of Columbia and seaway development”, in Geological Society of America, 2016 annual meeting & exposition, vol. 48, Geological Society of America (GSA), Boulder, CO, United States, 2016.
, GeoRef, Copyright 2018, American Geological Institute.2017-011468
“Tectonic controls on distribution and stratigraphy of the Cryogenian Rapitan iron formation, northwestern Canada”, Precambrian ResearchPrecambrian Research, vol. 278, pp. 303-322, 2016.
, Dl7hoTimes Cited:1Cited References Count:91
“Tectonic controls on distribution and stratigraphy of the Cryogenian Rapitan iron formation, northwestern Canada”, Precambrian ResearchPrecambrian Research, vol. 278, pp. 303-322, 2016.
, GeoRef, Copyright 2018, American Geological Institute.2016-058828Mount Berg FormationRapitan GroupRapitan iron formationRedstone BasinSayunei FormationShezal FormationSnake River Basin
“Deep-water seep-related carbonate mounds in a Mesoproterozoic alkaline lake, Borden Basin (Nunavut, Canada)”, Precambrian ResearchPrecambrian Research, vol. 271, pp. 173-197, 2015.
, GeoRef, Copyright 2018, American Geological Institute.2016-016314Arctic Bay FormationBorden BasinNauyat FormationSinasiuvik FormationStrathcona Sound FormationVictor Bay Formation
“Gossans of the Cornwallis District, central High Arctic Islands, Canada”, in Environmental and economic significance of gossans, Geological Survey of Canada, Calgary, AB, Canada, 2015, pp. 54-57.
, GeoRef, Copyright 2018, American Geological Institute.2016-084446Cornwallis DistrictDundas IslandLittle Cornwallis Island
“Early evolution of Mackenzie and Amundsen Basins from detrital zircon geochronology”, in Geological Society of America, 2014 annual meeting & exposition, vol. 46, Geological Society of America (GSA), Boulder, CO, United States, 2014, p. 828.
, GeoRef, Copyright 2018, American Geological Institute.2015-044203
“Marine diagenesis of Mesoproterozoic deep-water seep mounds”, in Geological Society of America, 2014 annual meeting & exposition, vol. 46, Geological Society of America (GSA), Boulder, CO, United States, 2014, p. 222.
, GeoRef, Copyright 2018, American Geological Institute.2015-016043
“Reconfiguring supercontinent Columbia; pinning northeastern Australia to northwestern Laurentia using a near-unimodal detrital zircon population”, in Geological Society of America, 2014 annual meeting & exposition, vol. 46, Geological Society of America (GSA), Boulder, CO, United States, 2014, p. 222.
, GeoRef, Copyright 2018, American Geological Institute.2015-016045
“Mo isotopic composition of the mid-Neoproterozoic ocean; an iron formation perspective”, Precambrian ResearchPrecambrian Research, vol. 230, pp. 168-178, 2013.
, GeoRef, Copyright 2018, American Geological Institute.2013-053788Mo-98northwestern Northwest TerritoriesRapitan Group
“Mo isotopic composition of the mid-Neoproterozoic ocean: An iron formation perspective”, Precambrian ResearchPrecambrian Research, vol. 230, pp. 168-178, 2013.
, 136qsTimes Cited:10Cited References Count:52
“Arctic Bay Formation, Borden Basin, Nunavut (Canada); basin evolution, black shale, and dissolved metal systematics in the Mesoproterozoic ocean”, Precambrian ResearchPrecambrian Research, vol. 208-211, pp. 1-18, 2012.
, GeoRef, Copyright 2018, American Geological Institute.2012-069425Alpha RiverArctic Bay FormationBorden BasinBorden PeninsulaBylot SupergroupShale Valley
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