Effects of hypoxia, and the balance between hypoxia and enrichment, on coastal fishes and fisheries

By D. Breitburg. 2002

541 citations recorded by the source corpus.

Subfields: Global and Planetary Change, Oceanography

View Paper: https://www.semanticscholar.org/paper/51e0396e3fbde4f93f68a3cf9d8510731feda43e

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In Global and Planetary Change

1. J. Craig
2. F. Nordlie
3. R. Díaz
4. M. Casini
5. C. Peterson
6. M. J. Powers
7. A. Stevens
8. P. Glibert

In Oceanography

1. P. Glibert
2. J. Burkholder
3. T. Kana
4. J. Craig
5. C. Gobler
6. R. Díaz
7. F. Nordlie
8. A. Stevens

Citations in the corpus

• Interactive Effects of Hypoxia and Temperature on Coastal Pelagic Zooplankton and Fish (2019, background): “In coastal ecosystems, fish are likely to be most susceptible to the effects of hypoxia during their egg and larval stages (Breitburg, 2002).”
• Hypoxia-induced habitat shifts and energetic consequences in Atlantic croaker and brown shrimp on the Gulf of Mexico shelf (2005, background): “Finally, hypoxia effects may co-occur with other effects of eutrophication (e.g. increased productivity) and environmental change that potentially induce tradeoffs that occur across life history stages (Micheli 1999, Grimes 2001, Breitburg 2002).”
• Hypoxia tolerance in two juvenile estuary-dependent fishes (2005, unknown): “Rapid DO reduction also simulates the field conditions likely to cause mortality, as direct mortality is most likely to occur in the field when DO concentrations decrease very rapidly and fish are cornered or other conditions confuse escape behavior (Breitburg, 2002).”
• Seagrasses and eutrophication (2007, background): “…appears to be a threshold point at which the grazers can no longer control algal biomass (Wetzel and Neckles, 1986); moreover, many mesograzers become stressed, reduced, or eliminated by the anoxic conditions that often accompany nutrient over-enrichment (Diaz and Rosenberg, 1995; Breitburg, 2002).”
• Physicochemical environments and tolerances of cyprinodontoid fishes found in estuaries and salt marshes of eastern North America (2006, background): “…and Waquoit Bay, Cape Cod, MA (D’Avanzo and Kremer 1994); Belgium (Maes et al. 1998); Japan (Karim et al. 2003); Norway (Johannessen and Dahl 1996); Sweden (Rosenberg and Loo 1988); noted as a global phenomenon (Diaz 2001; Breitburg 2002); and tidal salt marshes in general (Smith and Able 2003).”
• Seasonal and interannual effects of hypoxia on fish habitat quality in central Lake Erie (2011, background): “Across a broad range of fishes, hypoxia can cause direct mortality but more commonly results in various sublethal effects (Breitburg, 2002; Shimps, Rice & Osborne, 2005), such as altered fish physiological processes (Chabot & Dutil, 1999; Wu, 2002; Fitzgibbon, Strawbridge & Seymour, 2007), spatial d”
• Ecological Stoichiometry, Biogeochemical Cycling, Invasive Species, and Aquatic Food Webs: San Francisco Estuary and Comparative Systems (2011, background): “Fundamentally, all aspects of metabolism, predator–prey interactions, and species success are altered when a system is stressed by nutrient over-enrichment (Breitburg et al, 1999 ; Breitburg 2002 ).”
• Hypoxic areas, density-dependence and food limitation drive the body condition of a heavily exploited marine fish predator (2016, background): “mechanisms potentially affecting cod condition [19,21,25,33].”
• Effects of eutrophication on bottom habitat and prey resources of demersal fishes (2005, background): “…or republication not permitted without written consent of the publisher Mar Ecol Prog Ser 302: 233–243, 2005 primary production, additional nutrients may translate into additional production for pelagic fishes (Breitburg 2002) but not for demersal fishes (Breitburg 2002, Eby & Crowder 2002).”
• The zebrafish (Danio rerio) as a model organism, with emphasis on applications for finfish aquaculture research (2014, background): “Stress due to suboptimal water quality The amount of dissolved oxygen in the water is an important environmental factor for aquaculture as hypoxia can reduce growth rate, alter reproduction, increase fish diseases or cause mortality (Breitburg 2002; Wu et al. 2003; Zhang et al. 2009).”
• Changes in shell and soft tissue growth, tissue composition, and survival of quahogs, Mercenaria mercenaria, and softshell clams, Mya arenaria, in response to eutrophic-driven changes in food supply and habitat (2004, unknown): “Such low D.O. concentrations are associated with reduced survival of benthic species (NRC, 2000; Borsuk et al., 2002; Breitburg, 2002; Gray et al., 2002).”