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C. Huffaker, K. Shea, S. Herman (1963)
Experimental studies on predation: Complex dispersion and levels of food in an acarine predator-prey interaction, 34
M. Fernando (1977)
Predation of the glasshouse red spider-mite by Phytoseiulus persimilis A-H
A. Sih (1979)
STABILITY AND PREY BEHAVIOURAL RESPONSES TO PREDATOR DENSITYJournal of Animal Ecology, 48
D. Pimentel, W. Nagel, J. Madden (1963)
Space-Time Structure of the Environment and the Survival of Parasite-Host SystemsThe American Naturalist, 97
N. Hussey, W. Parr (1963)
DISPERSAL OF THE GLASSHOUSE RED SPIDER MITETETRANYCHUS URTICAEKOCH (ACARINA, TETRANYCHIDAE)Entomologia Experimentalis et Applicata, 6
C. Fleschner, M. Badgley, D. Ricker, J. Hall (1956)
Air Drift of Spider MitesJournal of Economic Entomology, 49
A. Takafuji, D. Chant (1976)
Comparative studies of two species of predacious phytoseiid mites (Acarina: Phytoseiidae), with special reference to their responses to the density of their preyResearches on Population Ecology, 17
W. Murdoch, A. Oaten (1975)
Predation and Population StabilityAdvances in Ecological Research, 9
C. Holling (1959)
Some Characteristics of Simple Types of Predation and ParasitismThe Canadian Entomologist, 91
M. Bartlett (1949)
Fitting a Straight Line When Both Variables are Subject to ErrorBiometrics, 5
M. Hassell, R. May, S. London (1973)
STABILITY IN INSECT HOST-PARASITE MODELSJournal of Animal Ecology, 42
F. David, R. Steel, J. Torrie (1961)
Principles and procedures of statistics.
N. Kidd (1982)
Predator Avoidance as a Result of Aggregation in the Grey Pine Aphid, Schizolachnus pinetiJournal of Animal Ecology, 51
C. Free, J. Beddington, J. Lawton (1977)
On the Inadequacy of Simple Models of Mutual Interference for Parasitism and PredationJournal of Animal Ecology, 46
C. Bernstein (1983)
Some aspects ofPhytoseiulus persimilis [Acarina: Phytoseiidae] dispersal behaviourEntomophaga, 28
M. Sabelis (1981)
Biological control of two-spotted spider mites using phytoseiid predators
N. Draper, Harry Smith (1966)
Applied Regression Analysis
E. Schrödinger (1951)
Space-time structure
J. Storms (1971)
Some physiological effects of spider mite infestation on bean plantsNetherlands Journal of Plant Pathology, 77
A. Dixon (1973)
Biology of aphids
R. Steel, J. Torrie (1960)
Principles and procedures of statistics: McGraw-Hill Book Company, Inc. New York Toronto London.
G. Nachman (1981)
Temporal and Spatial Dynamics of an Acarine Predator-Prey SystemJournal of Animal Ecology, 50
T. Walker, R. Baker (1978)
The Evolutionary Ecology of Animal Migration
John Beddington, C. Free, John Lawton (1978)
Characteristics of successful natural enemies in models of biological control of insect pestsNature, 273
M. Hassell, G. Varley (1969)
New Inductive Population Model for Insect Parasites and its Bearing on Biological ControlNature, 223
E. Kuno (1981)
Dispersal and the persistence of populations in unstable habitats: A theoretical noteOecologia, 49
H. Mori, D. Chant (1966)
THE INFLUENCE OF PREY DENSITY, RELATIVE HUMIDITY, AND STARVATION ON THE PREDACIOUS BEHAVIOR OF PHYTOSEIULUS PERSIMILIS ATHIAS-HENRIOT (ACARINA: PHYTOSEIIDAE)Canadian Journal of Zoology, 44
M. Pernando, M. Hassell (1980)
Predator-prey responses in an acarine systemResearches on Population Ecology, 22
B. Roitberg, J. Myers, B. Frazer (1979)
THE INFLUENCE OF PREDATORS ON THE MOVEMENT OF APTEROUS PEA APHIDS BETWEEN PLANTSJournal of Animal Ecology, 48
R. May (1978)
HOST-PARASITOID SYSTEMS IN PATCHY ENVIRONMENTS: A PHENOMENOLOGICAL MODELJournal of Animal Ecology, 47
C. Huffaker (1958)
Experimental studies on predation : dispersion factors and predator-prey oscillations, 27
A. Sih (1982)
Foraging Strategies and the Avoidance of Predation by an Aquatic Insect, Notonecta HoffmanniEcology, 63
P. Everson (1979)
THE FUNCTIONAL RESPONSE OF PHYTOSEIULUS PERSIMILIS (ACARINA: PHYTOSEIIDAE) TO VARIOUS DENSITIES OF TETRANYCHUS URTICAE (ACARINA: TETRANYCHIDAE)The Canadian Entomologist, 111
A. Takafuji (1976)
The effect of the rate of successful dispersal of a phytoseiid mite,Phytoseiulus persimilis Athias-Henriot (Acarina: Phytoseiidae) on the persistence in the interactive system between the predator and its preyResearches on Population Ecology, 18
W. Murdoch (1977)
Stabilizing effects of spatial heterogeneity in predator-prey systems.Theoretical population biology, 11 2
M. Hassell, R. May (1974)
Aggregation of Predators and Insect Parasites and its Effect on StabilityJournal of Animal Ecology, 43
Some of the processes that influence the emigration of prey and predatory mites from bean plants were investigated experimentally. The emigration of the prey depends on the damage they cause to the plants and on predator density. The predator's emigration rate is a decreasing function of prey density, and does not change (or it slightly decreases) when prey and predator numbers are increased maintaining the same prey/predator ratio. The probability of emigration of the predators is independent of their own density when prey are absent and density dependent when prey density is kep constant. Forty three per cent of the variability in the predator's instantaneous rate of emigration in the different experiments is accounted for by a two parameter negative exponential function of capture rate (number of prey eaten per predator and per unit of time).
Oecologia – Springer Journals
Published: Jan 1, 1984
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