
2010
Hood, James Michael
Consumer nutrient stoichiometry: patterns, homeostasis, and links with fitness PhD Thesis
University of Minnesota, 2010.
Abstract | Links | BibTeX | Tags: Daphnia, Evolution and Behavior, Excretion, Nutrient Cycling, Phosphorus Stoichiometry, Stream Ecology
@phdthesis{Hood2010,
title = {Consumer nutrient stoichiometry: patterns, homeostasis, and links with fitness},
author = {James Michael Hood},
url = {https://angelo.berkeley.edu/wp-content/uploads/sites/59/Hood_2010.pdf},
year = {2010},
date = {2010-10-01},
school = {University of Minnesota},
abstract = {The linkages between food webs and nutrient cycles are heterogeneous and
often influenced by human activities. Ecological stoichiometry provides one framework
for understanding and predicting these linkages. Yet, as it has been extended
underlying assumptions are often not evaluated. This dissertation shows that
examination of implicit and explicit assumptions reveals unknown mechanisms,
interactions, and linkages. For instance, theory assumes that invertebrate stoichiometry
does not vary with diet stoichiometry (i.e., strict homeostasis), even though many
invertebrates are not strictly homeostatic. Chapters one and two examine the role of
stoichiometric homeostasis in shaping the fitness of Daphnia'species.},
keywords = {Daphnia, Evolution and Behavior, Excretion, Nutrient Cycling, Phosphorus Stoichiometry, Stream Ecology},
pubstate = {published},
tppubtype = {phdthesis}
}
The linkages between food webs and nutrient cycles are heterogeneous and
often influenced by human activities. Ecological stoichiometry provides one framework
for understanding and predicting these linkages. Yet, as it has been extended
underlying assumptions are often not evaluated. This dissertation shows that
examination of implicit and explicit assumptions reveals unknown mechanisms,
interactions, and linkages. For instance, theory assumes that invertebrate stoichiometry
does not vary with diet stoichiometry (i.e., strict homeostasis), even though many
invertebrates are not strictly homeostatic. Chapters one and two examine the role of
stoichiometric homeostasis in shaping the fitness of Daphnia’species.
often influenced by human activities. Ecological stoichiometry provides one framework
for understanding and predicting these linkages. Yet, as it has been extended
underlying assumptions are often not evaluated. This dissertation shows that
examination of implicit and explicit assumptions reveals unknown mechanisms,
interactions, and linkages. For instance, theory assumes that invertebrate stoichiometry
does not vary with diet stoichiometry (i.e., strict homeostasis), even though many
invertebrates are not strictly homeostatic. Chapters one and two examine the role of
stoichiometric homeostasis in shaping the fitness of Daphnia’species.