about
Morphology, chemistry and function of the postpharyngeal gland in the South American digger wasps Trachypus boharti and Trachypus elongatusBiogeography of a defensive symbiosisCultivation reveals physiological diversity among defensive 'Streptomyces philanthi' symbionts of beewolf digger wasps (Hymenoptera, Crabronidae)Partner choice and fidelity stabilize coevolution in a Cretaceous-age defensive symbiosisThe odor of origin: kinship and geographical distance are reflected in the marking pheromone of male beewolves (Philanthus triangulum F., Hymenoptera, Crabronidae)Antibiotic-producing symbionts dynamically transition between plant pathogenicity and insect-defensive mutualism.Microbial communities of three sympatric Australian stingless bee species.Accelerated evolution of mitochondrial but not nuclear genomes of Hymenoptera: new evidence from crabronid wasps.The scent of senescence: age-dependent changes in the composition of the cephalic gland secretion of the male European beewolf, Philanthus triangulumMutualistic ants as an indirect defence against leaf pathogens.Potential applications of insect symbionts in biotechnology.Transcriptomic immune response of the cotton stainer Dysdercus fasciatus to experimental elimination of vitamin-supplementing intestinal symbiontsUnearthing carrion beetles' microbiome: characterization of bacterial and fungal hindgut communities across the Silphidae.Refining the roots of the beewolf-Streptomyces symbiosis: antennal symbionts in the rare genus Philanthinus (Hymenoptera, Crabronidae)Linking metabolite production to taxonomic identity in environmental samples by (MA)LDI-FISH.Comparative morphology of the postpharyngeal gland in the Philanthinae (Hymenoptera, Crabronidae) and the evolution of an antimicrobial brood protection mechanismVariability of Bacterial Communities in the Moth Heliothis virescens Indicates Transient Association with the HostLarval rearing temperature influences amount and composition of the marking pheromone of the male beewolf, Philanthus triangulum.Microbial Communities of Lycaenid Butterflies Do Not Correlate with Larval Diet.Symbiont Acquisition and Replacement as a Source of Ecological Innovation.Symbiont transmission entails the risk of parasite infection.The chemistry of the postpharyngeal gland of female European beewolves.Dynamics of symbiont-mediated antibiotic production reveal efficient long-term protection for beewolf offspring.Bacteriome-Localized Intracellular Symbionts in Pollen-Feeding Beetles of the Genus Dasytes (Coleoptera, Dasytidae)Role of symbiotic bacteria in the growth and development of the Sunn pest, Eurygaster integriceps.Bacterial Community and PHB-Accumulating Bacteria Associated with the Wall and Specialized Niches of the Hindgut of the Forest Cockchafer (Melolontha hippocastani)Streptomyces as symbionts: an emerging and widespread theme?Symbiont dynamics and strain diversity in the defensive mutualism between Lagria beetles and Burkholderia.Burying beetles regulate the microbiome of carcasses and use it to transmit a core microbiota to their offspring.Morphology and ultrastructure of a bacteria cultivation organ: the antennal glands of female European beewolves, Philanthus triangulum (Hymenoptera, Crabronidae).'Candidatus Streptomyces philanthi', an endosymbiotic streptomycete in the antennae of Philanthus digger wasps.Symbiotic bacteria protect wasp larvae from fungal infestation.The gut microbiota of the pine weevil is similar across Europe and resembles that of other conifer-feeding beetles.
P50
Q28536434-D3A2C3D7-B687-487C-A872-E8F01EF2F8A2Q28606775-87118A0B-AA55-43AB-8F72-19F9693C4F61Q28652002-40AA02E2-4B4C-4C00-90AF-9A784DBA54A6Q28659162-4CCD5D64-BA78-4F17-8161-C40C2B17646AQ33302213-D6B59903-390F-4AFF-841D-17EB7F8F697DQ33630563-973F7576-AA1A-411E-8C94-13A946E80C7BQ34078813-F4906207-06B0-4815-8053-471172027A57Q34193420-712E71A3-F25E-43C0-AD18-2A960888C45EQ34342963-2739CCF3-C29C-4900-A44A-0A5188018368Q34395963-0F3C87FD-BD25-47F4-B535-CD0C2018759BQ34504870-88104E27-3AA7-4A24-B997-BE75ED4DE844Q34663280-9EA7F879-D237-4CA5-93BA-45440BF9B588Q35011000-C772D9AF-444F-445F-89A3-70F46AD96885Q35688938-4020F965-2CA5-4B3A-9FB2-C8F7B550F91DQ35690697-673CCE4D-5F1D-4B6A-BF00-D93005C65DB3Q35874529-AFA42DB2-118C-4091-BD55-2DC63E5D77B3Q36006999-9C20D3B3-A991-4280-AFEE-1FBF0CE5A7C8Q36059162-EABD7FFB-3B26-48AD-903E-AB7158E96A35Q36222958-7CEA560B-35D9-4DE7-8F38-E56BE7248FADQ36321130-A85BF55E-7EBE-48C0-B6AA-69299E309674Q36449374-D30B8C32-9E91-4CBE-9E49-6631E33880BBQ36638951-0B6AA083-4C33-4F6C-A859-B5D0E61B109BQ36689853-C55D0A74-1181-4F45-89C3-0FDDDB726585Q37273260-CC0B2460-2464-4E8B-AC23-2CEAF21A6E62Q37328189-FB207CC0-0128-4484-B01F-C91E3D40D39DQ37670516-BEA78DB2-BBCD-40FC-8809-74D4E47F8A80Q37957174-A1628FC5-0737-4EB8-852F-A071E39EEE76Q38655634-EBC0C913-15E4-49FB-8067-18CCED9C4B6EQ38658327-DAB43741-0D16-490C-9F19-2755FD086165Q39026156-938683A9-F5C2-4775-9A8C-B1C6B314C2C2Q39116821-3123265B-47BC-4814-9F82-DDF208700191Q39116827-CAFAA9EB-A2E2-499E-AE6F-0CC927AA741EQ39751502-53C12304-EC6B-4F7A-8DE7-2030A1EE0507
P50
description
onderzoeker
@nl
name
Martin Kaltenpoth
@ast
Martin Kaltenpoth
@en
Martin Kaltenpoth
@es
Martin Kaltenpoth
@sl
type
label
Martin Kaltenpoth
@ast
Martin Kaltenpoth
@en
Martin Kaltenpoth
@es
Martin Kaltenpoth
@sl
prefLabel
Martin Kaltenpoth
@ast
Martin Kaltenpoth
@en
Martin Kaltenpoth
@es
Martin Kaltenpoth
@sl