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Data from: Independent origins of parasitism in Animalia
负责人:
Weinstein, Sara B.
关键词:
parasitism metazoa parasite evolution adaptive radiation
DOI:
doi:10.5061/dryad.70628
摘要:
consumer strategies such as generalist predators and filter feeders. In general, parasitic groups do not differ from their free-living relatives in thei
Data from: Asteraceae pollen provisions protect Osmia mason bees (Hymenoptera: Megachilidae) from brood parasitism
负责人:
关键词:
Megachilidae;Osmia;Selection: natural;Ecology: community;Evolution: host\/parasite;wasps;Apoidea;Interactions: host\/parasite;Invertebrates;Sapyga;Hymenoptera;Sapygidae;Bees
DOI:
doi:10.5061/dryad.4sd09
摘要:
s that specialization on Asteraceae pollen protects bees from parasitism. We compared rates of brood parasitism by Sapyga wasps on Asteraceae-specialis
Data from: Cuckoos host range is associated positively with distribution range and negatively with evolutionary uniqueness
负责人:
Morelli, Federico
关键词:
distribution range evolutionary uniqueness host species richness worldwide distribution
DOI:
doi:10.5061/dryad.d4j56
摘要:
as the breeding range broadens. 4.The findings of this study showed that more generalist brood parasites occupied very different positions in a phylogeneti
Data from: Molecular analysis reveals high compartmentalisation in aphid-primary parasitoid networks and low parasitoid sharing between crop
负责人:
关键词:
DNA Barcoding;Aphidiinae;insects;Foodwebs;Quaternary;Aphididae;Agriculture;Community Ecology
DOI:
doi:10.5061/dryad.v1q8j
摘要:
ve shared generalist parasitoids were questionable and could be due to the lack of discrimination of cryptic species or from intraspecific host specializati
Data from: Shifts in diversification rates and host jump frequencies shaped the diversity of host range among Sclerotiniaceae fungal plant pathogens
负责人:
Raffaele, Sylvain
关键词:
plant pathogen host range diversification host jump generalist parasitism
DOI:
doi:10.5061/dryad.7cs3g
摘要:
The range of hosts that a parasite can infect in nature is a trait determined by its own evolutionary history and that of its potential hosts. However
Data from: Using host species traits to understand the consequences of resource provisioning for host–parasite interactions
负责人:
Becker, Daniel
关键词:
parasitism conservation consumer–resource interactions dietary breadth home range infectious disease phylogenetic meta-analysis supplemental feeding urbanization
DOI:
doi:10.5061/dryad.278rt
摘要:
, and protozoa (i.e., microparasites) most for wide-ranging, dietary generalist host species. Effect sizes for ectoparasites were also highest for host species
Data from: Reverse evolution: selection against costly resistance in disease-free microcosm populations of Paramecium caudatum
负责人:
关键词:
Paramecium caudatum;life-history evolution;Parasitism
DOI:
doi:10.5061/dryad.4kb77
摘要:
Evolutionary costs of parasite resistance arise if genes conferring resistance reduce fitness in the absence of parasites. Thus, parasite
Data from: Host provisioning behavior favors mimetic begging calls in a brood-parasitic cowbird
负责人:
关键词:
begging call;Molothrus;parental care;mimicry;cowbird;brood parasitism
DOI:
doi:10.5061/dryad.35tg5
摘要:
ng call structures of two brood parasites, the specialist screaming cowbird (Molothrus rufoaxillaris) and the generalist shiny cowbird (M. bonariensi
partitioned, generalist diet
负责人:
关键词:
Camallanidae;Vanikoridae;Miraciidae;Coelosphaeridae;Temora discaudata;Eviota;Trematoda;Actaeinae;food web;Autolytinae;Menaethius monoceros;Copepoda;Echinoidea;Caranx melampygus;Chromis vanderbilti;Liocarpilodes integerrimus;Trapezia areolata;Polychaeta;Trapezia rufopunctata;Cirratulidae;Palaemonella tenuipes;Lienardia mighelsi;Thalassoma hardwicke;Gammaropsis;Maxillopoda;Lysiosquillidae;Harpacticus;Cerithium;Enterogona;Gobiidae;Terebellidae;Pomachromis fuscidorsalis;Tanaidacea;Trapezia bidentata;Petrolisthes;Chlorurus sordidus;Syllidae;Maera;Pandalidae;Ampharetidae;Palaemonidae;Thor;Poecilostomatoida;Gigartinales;Apogon nigrofasciatus;Huenia;Hapalocarcinus;Pagurixus;Lithoglyptidae;Palaemonella rotumana;Mysida;Scarus globiceps;COI;Galatheidae;Palmyria;Pilodius;Plumularia;Demospongiae;Agalmatidae;Clionaidae;Decapterus macarellus;Emiliania huxleyi;Phylladiorhynchus;Dolabrifera dolabrifera;Paranamixis fijiensis;Gelidiaceae;Ophiactis;Brachyura;Nemichthys;Anthuridea;Aphelenchoididae;Argonautidae;Clausocalanus arcuicornis;Nephtyidae;Dendropoma;Eviota disrupta;Amblycirrhitus bimacula;Amphilochus;Santiidae;Plectroglyphidodon dickii;Chromis margaritifer;Titanoderma prototypum;Enchelyurus ater;Manaethius monoceros;Xanthias lamarcki;coral reefs;Atergatopsis germaini;Caranx sexfasciatus;Calcinus morgani;Cerithiidae;Dascyllus flavicaudus;Bemlos waipio;Viriola incisa;mutualism;Metabarcoding;Gymnothorax buroensis;Chlorodiella laevissima;Corallinaceae;Sagittidae;Candacia ethiopica;Harpacticoida;Phylladiorhynchus integrirostris;Azadinium poporum;Gastropoda;Phenacolepadidae;Homalopoma maculosa;Ctenochaetus striatus;Amphipoda;Clausocalanus minor;Scarus psittacus;Alpheidae;Sipuncula;Caridea;Chromis viridis;Esola;Isopoda;Jonesius triunguiculatus;Calanoida;Ceramiales;Cirripectes variolosus;Petalifera;Didemnidae;Perciformes;Plectroglyphidodon johnstonianus;Ptychoderidae;Chlorodiella crispipleopa;Corycaeus;Siphonostomatoida;Pseudocheilinus hexataenia;Sebastapistes tinkhami;Cuapetes ensifrons;Pocillopora;Stegastes nigricans;Gomphosus varius;Pascula muricata;Acartia negligens;Chaetodon trichrous;Zebrasoma scopas;Dascyllus aruanus;Stomatolina rubra;Vitricithna marmorata;Oithonidae;Perinia tumida;Hydrozoa;Cyclodius ungulatus;Halopteris constricta;Hippolytidae;Pilodius pugil;Arete indicus;Polynesoecetes kekeae;trophic interactions;Raoulserenea ornata;Fennera chacei;Oncaeidae;Trapeziidae;Bunodeopsis medusoides;Lachnopodus subacutus;Cestoda;Halichoeres hortulanus;Stylocheilus striatus;Erythrotrichiaceae;Monetaria annulus;Sargassaceae;Trapezia serenei;Ophiocoma pica;Decapoda;Harpiliopsis beaupresii;Drupa ricinus;3 days;Notopygos;Polynoidae;Galathea mauritiana;Margaretta;Verrucidae;Monetaria caputdraconis;Alpheus dolerus;Haminoea natalensis;Paguridae;Cheilopogon pitcairnensis;Munnidae;Pilodius flavus;Turbellaria;Chlorodiella barbata;Clausocalanus furcatus;Dendropoma gregaria;Malacostraca
DOI:
doi:10.5061/dryad.v0p71
摘要:
known to have direct negative interactions with stony corals, such as Hapalocarcinus sp, a gall crab considered a coral parasite, as well as species of vermeti

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