about
The Revised Classification of EukaryotesGenetic evidence for a mitochondriate ancestry in the 'amitochondriate' flagellate Trimastix pyriformisPhylogenomic analyses support the monophyly of Excavata and resolve relationships among eukaryotic "supergroups"Reconstructing the mosaic glycolytic pathway of the anaerobic eukaryote MonocercomonoidesCreneis carolina gen. et sp. nov. (Heterolobosea), a novel marine anaerobic protist with strikingly derived morphology and life cycle.Affiliation of Cochlosoma to trichomonads confirmed by phylogenetic analysis of the small-subunit rRNA gene and a new family concept of the order Trichomonadida.Allobilharzia visceralis gen. nov., sp. nov. (Schistosomatidae-Trematoda) from Cygnus cygnus (L.) (Anatidae).Morphological and molecular diversity of the monocercomonadid genera Monocercomonas, Hexamastix, and Honigbergiella gen. nov.New evolutionary lineages, unexpected diversity, and host specificity in the parabasalid genus Tetratrichomonas.Molecular phylogeny of diplomonads and enteromonads based on SSU rRNA, alpha-tubulin and HSP90 genes: implications for the evolutionary history of the double karyomastigont of diplomonads.Critical taxonomic revision of Parabasalids with description of one new genus and three new species.A Eukaryote without a Mitochondrial Organelle.Radix spp.: Identification of trematode intermediate hosts in the Czech Republic.Phylogenetic position of Protoopalina intestinalis based on SSU rRNA gene sequence.Phylogenetic position of Karotomorpha and paraphyly of Proteromonadidae.The mitochondrion-like organelle of Trimastix pyriformis contains the complete glycine cleavage systemThe evolution of paralogous enzymes MAT and MATX within the Euglenida and beyond.Arginine deiminase pathway enzymes: evolutionary history in metamonads and other eukaryotesChapter 4. Peptidases of trematodes.Aerobic mitochondria of parasitic protists: Diverse genomes and complex functions.Mitochondrial Genome of Prasinophyte Alga Pyramimonas parkeae.N-Terminal Presequence-Independent Import of Phosphofructokinase into Hydrogenosomes of Trichomonas vaginalisThe plastid genome of Eutreptiella provides a window into the process of secondary endosymbiosis of plastid in euglenids.Hydrogenosome-localization of arginine deiminase in Trichomonas vaginalis.The curious case of vanishing mitochondria.The phylogenetic position of enteromonads: a challenge for the present models of diplomonad evolution.Eukaryotic pyruvate formate lyase and its activating enzyme were acquired laterally from a Firmicute.Euglena gracilis and Trypanosomatids possess common patterns in predicted mitochondrial targeting presequences.Critical analysis of the topology and rooting of the parabasalian 16S rRNA tree.Experimental Examination of EFL and MATX Eukaryotic Horizontal Gene Transfers: Coexistence of Mutually Exclusive Transcripts Predates Functional RescueA New Divergent Type of Eukaryotic Methionine Adenosyltransferase is Present in Multiple Distantly Related Secondary Algal LineagesValidity reassessment of Trichobilharzia species using Lymnaea stagnalis as the intermediate hostMetabolic quirks and the colourful history of the Euglena gracilis secondary plastidAnalyses of environmental sequences and two regions of chloroplast genomes revealed the presence of new clades of photosynthetic euglenids in marine environmentsRevealing the metabolic capacity of Streblomastix strix and its bacterial symbionts using single-cell metagenomics
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Q17792525-3519BDA7-E77A-405B-BA04-D1ADC98E3C52Q21092226-F1977988-9C66-4977-A011-65713315C5EDQ24657599-B7698B5A-55EF-4F99-AE57-BF625C7BE8B8Q24673757-C7630B7E-BD5F-48C1-93C6-0E6D2687A18EQ30835326-82F10413-6457-4EF5-B2B5-5E140583298EQ31029363-2789FAE0-C82E-4D5D-A791-B7C04C74A22FQ31037160-CDF1C62F-F2D7-405E-BB5D-2B1E22D50E6FQ31112459-7038BB9A-3401-423D-8938-FE1DD9D9FE7DQ33233732-9CF56EE2-F806-44F8-A5D6-46FDCCB4D8AAQ33351809-E4CF48B4-5A47-41C3-BFBF-1DF467CC06DDQ33525747-9CC14602-AB1A-400F-889D-204000A696BFQ34046835-4404D9D4-CF71-4DAF-9CE9-0021DD9AB3FBQ34292947-CA80B68E-45C1-4A12-A856-7C7BC5F078E2Q34342719-A6735BA2-DD6C-4312-B00D-0B92C4BDD8C4Q34594505-7779564C-847D-43AC-B3DE-1F3316282CBFQ34629285-BA9FF7B3-3A2E-4F4E-B8A6-5F44F2F71B9FQ35092071-E131B476-C324-4DC5-828D-A9513D6EC22BQ36156350-7ACC1038-0BF1-40E1-9C7E-21E088D33F9BQ37557828-823B9D5D-C0BC-4215-A8C0-48AF7EB940E6Q38747016-B298FF34-7107-407D-A36B-CD5992759827Q39345212-67D3B96E-2230-4461-8531-3870EC909A40Q40422464-BD37DD09-568B-49F5-BF1B-FDD43696951BQ42114673-00A9DAE2-0D7B-43CA-B8E1-9B506323F51EQ42132274-11CBAFB9-AF77-43A1-9511-A5A8DD4BCA0AQ42316655-8F8A0D4E-67A2-40BA-943B-9A4B59932832Q45316140-54E81D82-9353-40BF-A29F-0FD1379CA02EQ46532120-895654DD-C2A0-42EC-B4A9-C1EF166A99EBQ50489238-D11D46A0-90A1-47D1-997C-704E6284045FQ51992723-1D2380C0-B40E-4522-857A-E66D74E69348Q57866308-3C8D992B-6E33-4F2E-B736-7EA8D20396FEQ57866334-D28CA522-2531-4743-B6F2-C613D3532BD2Q57866385-CA8845C0-B5B0-43EE-B773-97B288CFA494Q90454332-BAFAE925-2C2F-4B59-ABBB-14BDE198815FQ92036403-66A84A6B-2468-43C1-9C83-FAFD9416D675Q93161695-138B8E5A-363E-4272-A251-E57B8D987845
P50
description
hulumtues
@sq
researcher
@en
ricercatore
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wetenschapper
@nl
հետազոտող
@hy
name
Vladimir Hampl
@ast
Vladimir Hampl
@es
Vladimir Hampl
@nl
Vladimir Hampl
@sl
Vladimír Hampl
@cs
Vladimír Hampl
@en
type
label
Vladimir Hampl
@ast
Vladimir Hampl
@es
Vladimir Hampl
@nl
Vladimir Hampl
@sl
Vladimír Hampl
@cs
Vladimír Hampl
@en
prefLabel
Vladimir Hampl
@ast
Vladimir Hampl
@es
Vladimir Hampl
@nl
Vladimir Hampl
@sl
Vladimír Hampl
@cs
Vladimír Hampl
@en
P214
P1053
A-4339-2008
P106
P21
P214
P31
P3829
P496
0000-0002-5430-7564
P569
1976-01-01T00:00:00Z
P691
jx20050620004
P734
P7859
viaf-84327056