about
Infection success of Echinoparyphium aconiatum (Trematoda) in its snail host under high temperature: role of host resistanceDo Coinfections Maintain Genetic Variation in Parasites?An experimental heat wave changes immune defense and life history traits in a freshwater snail.Natural selection on quantitative immune defence traits: a comparison between theory and data.Immune defence under extreme ambient temperature.Potential for adaptation to climate change: family-level variation in fitness-related traits and their responses to heat waves in a snail population.Are sick individuals weak competitors? Competitive ability of snails parasitized by a gigantism-inducing trematodeIs more better? Polyploidy and parasite resistance.Estimating Genetic and Maternal Effects Determining Variation in Immune Function of a Mixed-Mating Snail.Relative reproductive success of co-infecting parasite genotypes under intensified within-host competition.Seasonal changes in host phenotype manipulation by an acanthocephalan: time to be transmitted?Activation of the immune defence of the freshwater snail Lymnaea stagnalis by different immune elicitors.Host immunization shapes interspecific associations in trematode parasites.Priming of host resistance to protect cultured rainbow trout Oncorhynchus mykiss against eye flukes and parasite-induced cataracts.Acanthocephalan size and sex affect the modification of intermediate host colouration.Eye fluke infection and lens size reduction in fish: a quantitative analysis.Qualitative and quantitative behavioral traits in a community of furcocercariae trematodes: tools for species separation?Food makes you a target: disentangling genetic, physiological, and behavioral effects determining susceptibility to infection.Ecological divergence of closely related Diplostomum (Trematoda) parasites.Natural selection on immune defense: A field experiment.Reciprocal interaction matrix reveals complex genetic and dose-dependent specificity among coinfecting parasites.Host manipulation by parasites in the world of dead-end predators: adaptation to enhance transmission?Phenotypic variation in infectivity of Diplostomum spathaceum cercariae within a population.Dynamics of Diplostomum spathaceum infection in snail hosts at a fish farm.Parasite resistance and avoidance behaviour in preventing eye fluke infections in fish.Interactions among co-infecting parasite species: a mechanism maintaining genetic variation in parasites?Resistance against eye flukes: naïve versus previously infected fish.Maintenance of genetic variation in immune defense of a freshwater snail: role of environmental heterogeneity.Relative importance of chemical attractiveness to parasites for susceptibility to trematode infectionTransmission dynamics of a trematode parasite: exposure, acquired resistance and parasite aggregationMultidimensionality and intra-individual variation in host manipulation by an acanthocephalanIntestinal distribution and fecundity of two species of Diplostomum parasites in definitive hostsSusceptibility of eye fluke-infected fish to predation by bird hostsEye fluke-induced cataracts in natural fish populations: is there potential for host manipulation?Diurnal variation around an optimum and near-critically high temperature does not alter the performance of an ectothermic aquatic grazerInbreeding does not alter the response to an experimental heat wave in a freshwater snail
P50
Q27499141-B43D27CD-E735-4099-8096-BE759EC1790AQ30245490-0472DCAB-90CE-4D4D-8E74-BB80669E69D9Q30740524-24F7C773-B12D-4A51-A10B-1B44FA6125E7Q30870040-EBAE33A1-9B20-47DF-92E9-A60C8C668A05Q33627276-BF644228-29F3-4103-BA00-640403C5B36AQ33805203-82D887F9-AAD7-4E38-8636-7A1F08AFCEF9Q35036963-E22240BE-AAAB-4F9A-895A-C96B1CA40FDCQ36081220-32162FD4-4C9B-43F6-B3EB-23DB89E59760Q36110150-CAC57AF6-2250-4F5B-8BC7-2DBE7E8625EBQ41039425-75FA5DD8-DB2F-4E50-9F02-2F1CB564A218Q43410946-34618DF9-E40D-4C06-B7FB-E7D254FA2254Q44530470-25A03997-A3DC-4139-804A-6ACB688CE0CCQ44944899-AD077797-485E-4625-8170-5FEE42EEBE92Q45303256-1EDA9AA5-15EC-4D20-A439-58768D1D04E3Q47183461-65DE1B8E-45CB-4F10-BD61-B76658C83310Q47219983-3B2E4BD0-0C08-41F2-897D-DC4E2B27D5CCQ47707437-7CC1AD59-AEB6-4C31-8AEA-3C7496A93918Q48168561-C8A2B3CE-8F20-40CC-9A5F-231F6D69AB0BQ48702764-919957FC-4807-4954-963F-17CBCBCBA7EBQ51244846-F27A7BB2-780F-454F-8CB7-0CCEC486E816Q51554678-0BD26E85-ECAD-48B6-83FB-4DA1E8468EB0Q51689605-1944C785-8ADD-4660-B749-0DF679A5A3A5Q51696568-A5FADC51-2AE7-43CC-8E68-E3CF96BD51F5Q51730057-27B6C671-3C69-4112-AD4F-383EECB1592FQ52087458-63C3358C-86A6-423D-AFD5-7025090DB4BAQ52589952-91950A75-AE0D-443D-96A2-3032D46291C4Q53878801-92EC73D8-F8EF-4BC4-A443-964EA9CC0B85Q54388845-7A96AF1A-FFDE-4635-AA20-D56098108DE0Q57133964-A87A0EA2-011A-4DD9-AD19-96ED0C0C0FB1Q79340061-CE4A1D69-8C73-454D-95D1-8864F5312885Q80758139-17AB8C4E-BC93-4E43-9D00-B9043F583EF2Q81554371-34E76466-74E5-4C3A-B6E9-902D51BF7765Q81582606-7D782FA4-16B9-46A0-902A-4D572F233CDAQ84962652-5FD9E79D-82E8-478E-81A8-0C372987BCB8Q91155282-9D9FEFE6-150B-476E-82D8-38CBC9F57845Q92498315-758878F3-4FF6-409A-8B59-ABBE7A7C5FC7
P50
description
hulumtues
@sq
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
name
Otto Seppälä
@ast
Otto Seppälä
@en
Otto Seppälä
@es
Otto Seppälä
@nl
Otto Seppälä
@sl
type
label
Otto Seppälä
@ast
Otto Seppälä
@en
Otto Seppälä
@es
Otto Seppälä
@nl
Otto Seppälä
@sl
prefLabel
Otto Seppälä
@ast
Otto Seppälä
@en
Otto Seppälä
@es
Otto Seppälä
@nl
Otto Seppälä
@sl
P106
P21
P31
P496
0000-0001-7902-3069