Metaphysiological and evolutionary dynamics of populations exploiting constant and interactive resources:R—K selection revisited | Semantic Scholar
Consumer-Resource Dynamics: Quantity, Quality, and Allocation
- 2011
Environmental Science
A two-state paradigm that represents each population or group in a food web in terms of both its quantity and quality is formed and physiological inefficiencies associated with this switching can be favored by selection due to the diminished exposure of inefficient consumers to strong oscillations associated with the well-known paradox of enrichment.
A BIOMASS FLOW APPROACH TO POPULATION MODELS AND FOOD WEBS
- W. Getz
- 2012
Environmental Science
A general compact formulation of BTW in terms of a three-variable differential equation formulation for each species in the food web: viz. live biomass, dead biomass, and a food-intake-related measure called deficit-stress is provided.
A Model for Tropic Interaction
- D. DeAngelisR. GoldsteinR. O'Neill
- 1975
Environmental Science, Biology
The analyses suggest that realistic classes of consumer—resource models exist which do not obey Kolmogorov's Criteria but are nevertheless globally stable, and increases in maximum feeding rate may, under certain circumstances, result in decreases in consumer population.
Exploitation in Three Trophic Levels
- M. Rosenzweig
- 1973
Environmental Science, Biology
The population dynamics of a general three-species, three-trophic-level exploitational system are explored and removal of carnivores is a perilous ecological gamble.
Aspects of Biological Exploitation
- M. Rosenzweig
- 1977
Biology
This review shows how the theory may be used to account for some of the observed dynamics of well-known laboratory sistems including their oscillatory periods and neighborhood stability and adds that addition of a biocide can actually increase the average population densities of the species one intended to attack.
Resource competition and community structure.
- D. Tilman
- 1982
Environmental Science, Biology
This book builds a mechanistic, resource-based explanation of the structure and functioning of ecological communities and explores such problems as the evolution of "super species," the differences between plant and animal community diversity patterns, and the cause of plant succession.