Hypoxia-based habitat compression in the Neuse River Estuary: context-dependent shifts in behavioral avoidance thresholds

By L. Eby, LB Crowder. 2002

320 citations recorded by the source corpus.

Subfields: Global and Planetary Change, Nature and Landscape Conservation, Oceanography

View Paper: https://www.semanticscholar.org/paper/b87a2385892d889a2160666ffb5c136496832d8a

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Global and Planetary Change

1. J. Craig
2. G. Bell
3. T. Targett
4. J. Wingfield
5. D. Eggleston
6. R. Tyler
7. T. G. Wolcott
8. C. Peterson

In Nature and Landscape Conservation

1. J. Craig
2. D. Eggleston
3. G. Bell
4. T. G. Wolcott
5. C. Peterson
6. J. Wingfield
7. M. J. Powers
8. T. Targett

In Oceanography

1. J. Craig
2. G. Bell
3. J. Wingfield
4. D. Eggleston
5. T. G. Wolcott
6. LB Crowder
7. C. Peterson
8. T. Targett

Citations in the corpus

• Habitat degradation from intermittent hypoxia: impacts on demersal fishes (2005, methodology): “Based on previous monitoring in 1997 and 1998 (Selberg et al. 2001, Eby & Crowder 2002), we expected the shallower site to remain well-oxygenated and the deeper site to be intermittently hypoxic for days to weeks during the summer.”
• Juvenile weakfish Cynoscion regalis distribution in relation to diel-cycling dissolved oxygen in an estuarine tributary (2007, background): “…thus far that the DO-related avoidance response in fishes occurs at around 2 mg O2 l–1 (Garlo et al. 1979, Pihl et al. 1991, Lenihan et al. 2001, Eby & Crowder 2002, Bell & Eggleston 2005) then, in the present study, the area of Pepper Creek, which fish would be expected to routinely vacate,…”
• The response of Atlantic cod, Gadus morhua, to progressive hypoxia: fish swimming speed and physiological stress (2005, background): “For water breathing fishes, hypoxia impacts on many ecologically important variables (Poulin et al. 1987; Pihl et al. 1991; Chabot and Dutil 1999; Pichavant et al. 2000; Eby and Crowder 2002; AErtebjerg et al. 2003) and is undoubtedly a critical factor influencing the evolution and life history of”
• Behavioral responses of free-ranging blue crabs to episodic hypoxia. I. Movement (2003, methodology): “The agreement between our biotelemetry results and Bell’s (2002) trawling study results suggests that the inconsistency between our study and that of Eby & Crowder (2002) may be due to their trawl survey not sampling at the temporal scales of hypoxic upwelling events.”
• Effects of Karenia brevis harmful algal blooms on nearshore fish communities in southwest Florida (2009, background): “If fishes were displaced within the study area, fish densities would have increased in remaining refuges, similar to the habitat compression response fishes show to hypoxia (Eby & Crowder 2002, Eby et al. 2005).”
• Ecological processes and the ecology of stress: the impacts of abiotic environmental factors (2013, background): “This species also appears to shift distribution and possibly decrease metabolism at times of year when hypoxic zones occur naturally (Eby & Crowder 2002; Bell & Eggleston 2005).”
• Species-specific avoidance responses by blue crabs and fish to chronic and episodic hypoxia (2005, background): “In general, mobile animals avoid hypoxia by moving to relatively shallow refuge habitats where dissolved oxygen (DO) concentrations and prey abundance are greater, thereby altering their distribution and abundance patterns (Pihl et al. 1991; Breitburg 1992; Lenihan et al. 2001; Eby and Crowder 2002”
• Hypoxia-induced growth rate reduction in two juvenile estuary-dependent fishes (2004, background): “During episodes of bottom-water hypoxia, spot may move to shallow-water refuges where DO levels may be higher (Eby and Crowder, 2002).”
• 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).”
• Declining oxygen in the global ocean and coastal waters (2018, background): “The presence and expansion of low water column oxygen reduces diel migration depths, compressing vertical habitat and shoaling distributions of fishery species and their prey (73-75).”
• Hypoxia tolerance in two juvenile estuary-dependent fishes (2005, unknown): “Due to increased nutrient loading hypoxia is increasing in frequency, severity, and area both locally and globally (Diaz and Rosenberg, 1995; Rabalais, 2001; Eby and Crowder, 2002).”