Data from: Reverse evolution: selection against costly resistance in disease-free microcosm populations of Paramecium caudatum

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关键词：

Paramecium caudatum;life-history evolution;Parasitism

DOI：

doi:10.5061/dryad.4kb77

摘要：

of increased fitness and a correlated decrease in resistance. We tested this idea in experimental populations of the protozoan Paramecium caudatum

Data from: Density- and trait-mediated effects of a parasite and a predator in a tri-trophic food web

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density-mediated indirect interaction (DMII) trait-mediated indirect interaction (TMII)

DOI：

doi:10.5061/dryad.3kb72

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of: (i) a bacterial basal resource (Serratia fonticola), (ii) an intermediate consumer (Paramecium caudatum), (iii) a top predator (Didinium nasutum), and (iv

Data from: Stochastic environmental fluctuations drive epidemiology in experimental host–parasite metapopulations

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关键词：

Epidemiology;Paramecium caudatum;red noise;spatial synchrony;Holospora undulata;host-parasite;variation

DOI：

doi:10.5061/dryad.3hq2c

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l temperature fluctuations on experimental metapopulations of Paramecium caudatum, experiencing an epidemic of the bacterial parasite Holospora undulata. Metapopulations

Data from: Trade-offs between morphology and thermal niches mediate adaptation in response to competing selective pressures

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DOI：

doi:10.5061/dryad.pzgmsbcgb

摘要：

how organisms cope with multiple stressors simultaneously. To explore this, we grew replicate Paramecium caudatum populations in either constant

Data from: False exclusion: a case to embed predator performance in classical population models

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关键词：

Paramecium caudatum;predator-prey dynamics;Brachionus plicatilis;Lotka Volterra;Cholrella sp.;Cholrella vulgaris;Rosenzweig-MacArthur;Zooplankton;Didinium nasutum;Modeling: population ecology;Population: dynamics;Phaeocystis globosa;Ecology: population;plankton;Monia macrocopa;Protista;Brachionus calciflouris;Daphnia magna

DOI：

doi:10.5061/dryad.674p6n0

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; and 3) greater stability through smaller amplitude of cycles, relative to the classical structure. Then, by exploring parameter space, we show how these

Data from: Dendritic network structure and dispersal affect temporal dynamics of diversity and species persistence

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关键词：

linear network;Paramecium caudatum;river-like;Chlorogonium euchlorum;Paramecium aurelia;Loxocephallus sp.;Cephalodella sp.;microcosm experiment;Dexiostoma sp.;Paramecium bursaria;Euglena gracilis;landscape structure;protist;persistence;Euglena mutabilis;true diversity;Chilomonas sp.;Colpidium striatum;Spirostomum ambiguum;Tetrahymena cf. pyriformis;Cyclidium glaucoma;Euplotes aediculatus

DOI：

doi:10.5061/dryad.1kf36

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by altering dispersal patterns, and subsequently the unfolding of species interactions. However, previous comparative and experimental work on dendritic

Data from: Spatial extinction or persistence: landscape-temperature interactions perturb predator-prey dynamics

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关键词：

Paramecium caudatum;thermal ecocline;metapopulation;thermal ecotone;Serratia marcescens;Didinium nasutum

DOI：

doi:10.5061/dryad.p1442

摘要：

be problematic to address through field work. A text-book predator-prey system (the ciliates Didinium and Paramecium) was used to compare three landscapes