C. M. Petrik

发表

Prey selection by larval haddock and cod on copepods with species-specific behavior: an individual-based model analysis

C. Davis, T. Kristiansen, R. Lough, 2009 .

Aggregates and their distributions determined from LOPC observations made using an autonomous profiling float

D. Checkley, G. Jackson, C. M. Petrik, 2013 .

Modeling the processes affecting larval haddock (Melanogrammus aeglefinus) survival on Georges Bank

C. M. Petrik, 2011 .

Potential impacts of climate change on agriculture and fisheries production in 72 tropical coastal communities

Tyler D. Eddy, C. Folberth, I. Caldwell, 2022, Nature Communications.

Climate drivers of Southern Ocean phytoplankton community composition and potential impacts on higher trophic levels

M. Long, K. Krumhardt, C. M. Petrik, 2022, Frontiers in Marine Science.

Assessment and Constraint of Mesozooplankton in CMIP6 Earth System Models

A. Richardson, J. Everett, C. Harrison, 2022, Global Biogeochemical Cycles.

Model estimates of metazoans’ contributions to the biological carbon pump

André W. Visser, A. Brierley, D. Siegel, 2022, bioRxiv.

An updated life‐history scheme for marine fishes predicts recruitment variability and sensitivity to exploitation

J. Sarmiento, C. Stock, C. M. Petrik, 2021 .

Disentangling diverse responses to climate change among global marine ecosystem models

Tyler D. Eddy, J. Blanchard, D. Tittensor, 2021 .

Energy Flow Through Marine Ecosystems: Confronting Transfer Efficiency.

Rebecca L. Selden, Tyler D. Eddy, Joey R. Bernhardt, 2020, Trends in ecology & evolution.

Normal versus gamma: stochastic models of copepod molting rate

C. Davis, Qiao Hu, C. M. Petrik, 2007 .

Copepod diapause and the biogeography of the marine lipidscape

D. Johns, R. Ji, N. Record, 2018, Journal of Biogeography.

Emergent global biogeography of marine fish food webs

C. Stock, K. H. Andersen, C. M. Petrik, 2021, Global Ecology and Biogeography.

Life history of marine fishes and their implications for the future oceans

C. M. Petrik, 2019, Predicting Future Oceans.

Large Pelagic Fish Are Most Sensitive to Climate Change Despite Pelagification of Ocean Food Webs

C. Stock, J. Watson, K. H. Andersen, 2020, Frontiers in Marine Science.

Bottom-up drivers of global patterns of demersal, forage, and pelagic fishes

C. Stock, J. Watson, K. H. Andersen, 2019, Progress in Oceanography.

Next-generation ensemble projections reveal higher climate risks for marine ecosystems

Y. Shin, J. Link, J. Blanchard, 2021, Nature Climate Change.

The critical first year of life of walleye pollock (Gadus chalcogrammus) in the eastern Bering Sea: Implications for recruitment and future research

R. Heintz, S. Barbeaux, J. Duffy‐Anderson, 2016 .

Interannual differences in larval haddock survival: hypothesis testing with a 3D biophysical model of Georges Bank

C. Davis, R. Ji, C. M. Petrik, 2014 .

Modelled connectivity between Walleye Pollock (Gadus chalcogrammus) spawning and age-0 nursery areas in warm and cold years with implications for juvenile survival

E. Curchitser, J. Duffy‐Anderson, K. Hedstrom, 2016 .

Metazoans, migrations, and the ocean's biological carbon pump

A. Brierley, D. Siegel, A. Visser, 2021 .

Modeling the dispersal of polar cod (Boreogadus saida) and saffron cod (Eleginus gracilis) early life stages in the Pacific Arctic using a biophysical transport model

J. Duffy‐Anderson, K. Hedstrom, F. Mueter, 2021 .

Demersal fish biomass declines with temperature across productive shelf seas

S. Gaichas, C. Stock, J. Collie, 2023, Global Ecology and Biogeography.

Marine heatwaves need clear definitions so coastal communities can adapt

A. Hermann, K. Kearney, C. Stock, 2023, Nature.

Applying ensemble ecosystem model projections to future-proof marine conservation planning in the Northwest Atlantic Ocean

J. Blanchard, H. Lotze, D. Tittensor, 2023, FACETS.

Biophysical transport model suggests climate variability determines distribution of Walleye Pollock early life stages in the eastern Bering Sea through effects on spawning

Enrique N. Curchitser, E. Curchitser, J. Duffy‐Anderson, 2015 .

Trophic amplification: A model intercomparison of climate driven changes in marine food webs

J. Blanchard, D. Tittensor, W. Cheung, 2023, PloS one.

Impact of spatial variability in zooplankton grazing rates on carbon export ﬂux

B. Cael, C. M. Petrik, S. A. Meyjes, 2022 .

Scenario setup and forcing data for impact model evaluation and impact attribution within the third round of the Inter-Sectoral Model Intercomparison Project (ISIMIP3a)

Jinfeng Chang, M. Büchner, J. Schewe, 2024, Geoscientific Model Development.

A simplified age-stage model for copepod population dynamics

C. Davis, Qiao Hu, C. M. Petrik, 2008 .

ScholarWorks @ UTRGV ScholarWorks @ UTRGV Disentangling diverse responses to climate change among global Disentangling diverse responses to climate change among global marine ecosystem models marine ecosystem models

Phoebe A. Woodworth‐Jefcoats, C. M. Petrik, Maite Erauskin-Extramiana, 2021 .

estimates of metazoans' contributions to the biological carbon pump

A. Brierley, R. Proud, Jérôme Pinti, 2022 .

Potential impacts of climate change on agriculture and fisheries production in 72 tropical coastal communities

C. Folberth, I. Caldwell, J. Blanchard, 2022, Nature Communications.

Key Uncertainties and Modeling Needs for Managing Living Marine Resources in the Future Arctic Ocean

R. Badhe, Julia G. Mason, C. M. Petrik, 2024, Earth's Future.

ScholarWorks @ UTRGV ScholarWorks @ UTRGV

J. Steenbeek, J. Volkholz, C. M. Petrik, 2022 .