Cory A. Goldsworthy
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Research Interests
Cory A. Goldsworthy has a total of 33 co-authors. Here are the top co-authors by number of shared publications:
- Joel Christopher Hoffman
Center for Computational Toxicology and Exposure, Office of Research and Development, United States Environmental Protection Agency, Duluth, USA
3 shared publications - Nick Peterson
Minnesota Department of Natural Resources, Lake Superior Areas Fisheries, 5351 North Shore Drive, Duluth MN 55804, USA
3 shared publications - Daniel L. Yule
U.S. Geological Survey Great Lakes Science Center, Lake Superior Biological Station Ashland Wisconsin USA
2 shared publications - Jessica Hanson
University of Minnesota Duluth, Swenson College of Science and Engineering Integrated Biological Sciences Master's Program, 1035 Kirby Drive, Duluth MN 55812, USA
2 shared publications - Morgann Gordon
Oak Ridge Associated Universities, U.S. EPA Office of Research and Development, Center for Computational Toxicology and Exposure, Great Lakes Toxicology and Ecology Division, 6201 Congdon Blvd, Duluth, MN 55804, USA
2 shared publications - Thomas R. Hrabik
University of Minnesota Duluth, Swenson College of Science and Engineering, 1035 Kirby Drive, Duluth MN 55812, USA
2 shared publications
Latest Publications
- Open Access
- 25 May 2026
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 52 (4)
Genomic variation of brook trout along the Minnesota shoreline of Lake Superior: Implications for coaster life history
- 25 May 2026
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 52 (4)
Open AccessGenomic variation of brook trout along the Minnesota shoreline of Lake Superior: Implications for coaster life history
- 12 June 2025
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (4)
Stable isotope analysis of western Lake Superior predatory fishes, part two: prey source contributions
- 12 June 2025
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (4)
Stable isotope analysis of western Lake Superior predatory fishes, part two: prey source contributions
- Open Access
- 5 January 2025
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (1)
Lake Superior: Current conditions, trends, and emerging threats – Foreword to the special section
- 5 January 2025
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (1)
Open AccessLake Superior: Current conditions, trends, and emerging threats – Foreword to the special section
- 27 November 2024
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (1)
Food web structure of the Lake Superior fish community in 2021–2022
- 27 November 2024
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (1)
Food web structure of the Lake Superior fish community in 2021–2022
- 4 October 2024
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (1)
Stable isotope analysis of western Lake Superior predatory fishes, part one: Trophic niche overlap
- 4 October 2024
- Published by Elsevier in Journal of Great Lakes Research
- Vol. 51 (1)
Stable isotope analysis of western Lake Superior predatory fishes, part one: Trophic niche overlap
- 11 February 2021
- Published by Wiley in Fisheries Management and Ecology
- Vol. 28 (3) , 195-210
Was historical cisco Coregonus artedi yield consistent with contemporary recruitment and abundance in Lake Superior?
- 11 February 2021
- Published by Wiley in Fisheries Management and Ecology
- Vol. 28 (3) , 195-210
Was historical cisco Coregonus artedi yield consistent with contemporary recruitment and abundance in Lake Superior?
- 1 March 2011
- Published by Humboldt Field Research Institute in Southeastern Naturalist
- Vol. 10 (1) , 145
Larval Fish Dynamics in Spring Pools in Middle Tennessee
- 1 March 2011
- Published by Humboldt Field Research Institute in Southeastern Naturalist
- Vol. 10 (1) , 145
Larval Fish Dynamics in Spring Pools in Middle Tennessee
- 1 October 2006
- Published by University of Notre Dame in The American Midland Naturalist
- Vol. 156 (2) , 331-343
Growth, Body Condition, Reproduction and Survival of Stocked Barrens Topminnows, Fundulus julisia (Fundulidae)
We documented the fate of 29 cohorts of propagated Barrens topminnows Fundulus julisia stocked as juveniles and adults (ntotal = 2770 fish) into 17 springheads and small ponds in middle Tennessee in 2003 and 2004. Annual mortality rates were calculated after estimating the number of individuals of each cohort remaining 1–18 mos after fish were stocked. Lighted larval fish traps were deployed at seven reintroduction sites and the Type Locale to determine whether topminnows could reproduce in the presence of the introduced-transplanted Western mosquitofish Gambusia affinis. At stocking sites harboring mosquitofish (n = 12), their density ranged from 0.4 to 66.3 mosquitofish per m2. Annual mortality of stocked Barrens topminnows ranged from 45 to 100% and 24 cohorts experienced annual mortality greater than 95%. Mortality was not related to mosquitofish density or the mean size at stocking. The robustness of Barrens topminnows did not differ in the presence or absence of mosquitofish, suggesting that interspecific competition for food was not occurring. Larval Barrens topminnows were collected at two reintroduction sites and the Type Locale, but juvenile recruits were produced only at sites lacking mosquitofish. The findings of this study, and concurrent laboratory studies, support the hypothesis that mosquitofish predation on larval Barrens topminnows was the primary mechanism in failed reintroductions and is the greatest threat to wild and reintroduced populations of this imperiled species.
- 1 October 2006
- Published by University of Notre Dame in The American Midland Naturalist
- Vol. 156 (2) , 331-343
Growth, Body Condition, Reproduction and Survival of Stocked Barrens Topminnows, Fundulus julisia (Fundulidae)
We documented the fate of 29 cohorts of propagated Barrens topminnows Fundulus julisia stocked as juveniles and adults (ntotal = 2770 fish) into 17 springheads and small ponds in middle Tennessee in 2003 and 2004. Annual mortality rates were calculated after estimating the number of individuals of each cohort remaining 1–18 mos after fish were stocked. Lighted larval fish traps were deployed at seven reintroduction sites and the Type Locale to determine whether topminnows could reproduce in the presence of the introduced-transplanted Western mosquitofish Gambusia affinis. At stocking sites harboring mosquitofish (n = 12), their density ranged from 0.4 to 66.3 mosquitofish per m2. Annual mortality of stocked Barrens topminnows ranged from 45 to 100% and 24 cohorts experienced annual mortality greater than 95%. Mortality was not related to mosquitofish density or the mean size at stocking. The robustness of Barrens topminnows did not differ in the presence or absence of mosquitofish, suggesting that interspecific competition for food was not occurring. Larval Barrens topminnows were collected at two reintroduction sites and the Type Locale, but juvenile recruits were produced only at sites lacking mosquitofish. The findings of this study, and concurrent laboratory studies, support the hypothesis that mosquitofish predation on larval Barrens topminnows was the primary mechanism in failed reintroductions and is the greatest threat to wild and reintroduced populations of this imperiled species.