Fresh off the press
Van Wert J.C., Siders Z.A., Jones T.T. & Ahrens R.N.M. (2025). Hawaiʻi’s pelagic longline fishery demonstrates the need to consider multispecies impacts in bluewater time-area closures. ICES Journal of Marine Science 82, fsaf111. https://doi.org/10.1093/icesjms/fsaf111
Chamberlin D.W., Siders Z.A., Potts J.C., Rogers W.D., Taylor M.A. & Patterson W.F. (2025). Bayesian estimation of von Bertalanffy growth parameters for gray triggerfish, Balistes capriscus , incorporating multiple readers and ageing structures. Canadian Journal of Fisheries and Aquatic Sciences 82, 1–12. https://doi.org/10.1139/cjfas-2024-0315
Kroetz A., Mathers A., Siders Z., Wooley A., Heath L., Yakich D., et al. (2025). Age, growth, maturity, and natural mortality of the smalltooth sawfish (Pristis pectinata) in Florida waters. Fishery Bulletin 123, 190–206. https://doi.org/10.7755/FB.123.3.5
Henry, J., Deneau, J., Gibbons, P., Skibsted, M., Hall, B., Pop, T., Siders, Z. A., Walde, A. D., & Munscher, E. (2025). The use of fluorescent powdered pigments as a tracking technique for hatchling turtles in Belize. Herpetology Notes, 18, 455–462.
Chamberlin D.W., Siders Z.A., Potts J.C., Rogers W.D., Taylor M.A. & Patterson W.F. (2025). Bayesian estimation of von Bertalanffy growth parameters for gray triggerfish, Balistes capriscus , incorporating multiple readers and ageing structures. Canadian Journal of Fisheries and Aquatic Sciences 82, 1–12. https://doi.org/10.1139/cjfas-2024-0315
Kroetz A., Mathers A., Siders Z., Wooley A., Heath L., Yakich D., et al. (2025). Age, growth, maturity, and natural mortality of the smalltooth sawfish (Pristis pectinata) in Florida waters. Fishery Bulletin 123, 190–206. https://doi.org/10.7755/FB.123.3.5
Henry, J., Deneau, J., Gibbons, P., Skibsted, M., Hall, B., Pop, T., Siders, Z. A., Walde, A. D., & Munscher, E. (2025). The use of fluorescent powdered pigments as a tracking technique for hatchling turtles in Belize. Herpetology Notes, 18, 455–462.
SPOTLIGHT
What is the effect of an estuary-wide oyster population collapse on reef fish recruitment and population abundances? From her M.S. research, Gabrielle Love used long-term fisheries-independent monitoring data before and after the 2012 collapse of the Apalachicola Bay oyster population to test for significant changes in standardized catch per unit effort (CPUE). With a Bayesian t-test and changepoint analysis, we found a surprising lack of evidence that reef resident and reef-associated fish recruit or overall population abundances declined following the oyster reef collapse. This result contrasts the general expectation that reef fish abundances are mediated by structural habitat availability. Check out the open-access publication!
Standardized CPUE time series for overall catch (blue) and recruit sizes (green) for 11 fish and 1 crab from Apalachicola Bay, FL
Published in a special issue on "Predictive Biogeography" in Ecography is "Predicting time-at-depth weighted biodiversity patterns for sharks of the North Pacific." Built on the foundation of past publications for the North Pacific shark assemblage, we build a predictive model for estimating the amount of time sharks spend in different depths below the ocean's surface. We used published biotelemetry datasets and the species' reported depth range and habitat affinities to train our hurdle Ensemble Random Forest model. We then used this model to estimate where North Pacific sharks spend their time in the water column. Lastly, we compared taxonomic, phylogenetic, and functional trait biodiversity metrics between assemblages based on depth ranges and assemblages built on time-at-depth preferences. Accounting for a species' time-at-depth preference led to very different outcomes and showed that shark alpha-diversity peaks at the top of the epipelagic (surface) and at the upper edge of the mesopelagic zone (200-300 m).
About Me
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I am a quantitative ecologist and fisheries scientist studying patterns across the ecological hierarchy in search of the processes that link individuals to populations, populations to communities, and communities to ecosystems. I specialize in integrating analytical methods into synthetic models aimed at providing robust inference and filling data gaps. I have applied these integrated models in a broad set of interdisciplinary problems ranging from building risk maps for conservation and natural resource priority species to estimating life history characteristics of data-deficient species. Above all, I enjoy solving puzzles across the natural sciences. With a background in biology and chemistry, it is no wonder that my other interests feature these subjects prominently. I am an avid gardener with a collection of Zingiberales and orchids. I take much of my gardening inspiration by exploring the natural world and especially enjoy hunting for rare plants in situ. I try my hand at photography both in the garden and out exploring so the photos featured here are my own. |
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My Background I received a B.S. in Biology and B.A in Chemistry from the University of North Carolina Wilmington in 2011. I stayed on at UNCW for my M.S. to study the spatial and movement ecology of Basking Sharks—graduating in 2013. I then migrated to the University of Florida for my Ph.D. on the role of habitat in structuring aquatic interactions and graduated in 2017. As a postdoctoral researcher, from 2018-2020, and then as an assistant research scientist, I worked on ecosystem-based fisheries management in collaboration with NOAA Pacific Islands Fisheries Science Center. In January 2023, I became an Assistant Professor of Quantitative Fisheries in Fisheries and Aquatic Sciences at University of Florida.
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