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FIGURES 76–87 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 76–87. Teuchothrips of Australia. T. mareeba 76–80: (76) head & pronotum; (77) metanotum & pelta; (78) prosternites; (79) tergites IX–X; (80) fore wing sub-basal setae. T. melaleucae 81–83: (81) metanotum & pelta; (82) antenna; (83) head & pronotum. T. minor 84–87: (84) head & pronotum; (85) metanotum & pelta; (86) antenna; (87) fore wing sub-basal setae.
FIGURES 63–75 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 63–75. Teuchothrips of Australia. T. larrakia 63–64: (63) head & pronotum; (64) fore tarsus, male. T. leptospermum 65–67: (65) head & pronotum; (66) metanotum & pelta; (67) antenna. T. longiseta 68–70: (68) head & pronotum; (69) type slide; (70) metanotum & pelta. T. lutruwita 71–75: (71) antenna; (72) head; (73) metanotum & pelta; (74) prosternites; (75) tergites IX–X.
FIGURES 44–52 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 44–52. Teuchothrips of Australia. T. jarowair 44–48: (44) head; (45) pronotum; (46) metanotum & pelta; (47) tergites IX–X; (48) male sternite VIII. T. jukun 49–52: (49) head & pronotum; (50) fore tarsus; (51) metanotum & pelta; (52) tergite VIII, male.
FIGURES 53–62 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 53–62. Teuchothrips of Australia. T. kaurna 53–55: (53) head, thorax & pelta; (54) antenna; (55) tergites IX–X. T. kokatha 56–62: (56) head; (57) head & pronotum; (58) metanotum & pelta; (59) pronotum; (60) antenna; (61) metanotum; (62) pelta.
FIGURES 27–36 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 27–36. Teuchothrips of Australia. (27) T. clavipilus head. T. connatus 28–30: (28) head & pronotum anterior margin; (29) antenna; (30) metanotum & pelta. T. disjunctus (31) head. T. dodonaea 32–34: (32) head & pronotum; (33) antenna; (34) metanotum & pelta. T. froggatti 35–36: (35) head & pronotum; (36) metanotum & pelta.
FIGURES 11–26 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 11–26. Teuchothrips of Australia. T. badiipennis 11–12: (11) metanotum & pelta; (12) prosternites. T. badu 13– 16: (13) head & pronotum; (14) metanotum & pelta; (15) prosternites; (16) antenna. T. bundjalong 17–20: (17) head; (18) metanotum & pelta; (19) tergites IX–X; (20) male sternite VIII. T. burroughsi 21–22: (21) head & pronotum; (22) metanotum & pelta. T. bursariicola (=ater) 23–26: (23) head & pronotum, Female; (24) head & pronotum, Male; (25) metanotum & pelta; (26) male sternite VIII.
FIGURES 37–43 in Structural diversity among the leaf-feeding thrips of Australia in the genus Teuchothrips (Thysanoptera, Phlaeothripinae) with 20 new species
FIGURES 37–43. Teuchothrips of Australia. T. gangarru 37–40: (37) head & pronotum; (38) antenna; (39) male sternite VIII; (40) metanotum & pelta. T. garrunggam 41–43: (41) head & pronotum; (42) antenna; (43) fore wing sub-basal setae.
Fig. 8. Cheiriphotis erythraeus male gnathopod 2 in The morphological diversity within a species can obscure the correct identification
Fig. 8. Cheiriphotis erythraeus male gnathopod 2 (on the left), and the map of distribution range of C. erythraeus (triangle), Cheiriphotis mediterranea (circle), and Cheiriphotis williamsoni (square).
Fig. 6 in The morphological diversity within a species can obscure the correct identification
Fig. 6. Cheiriphotis mediterranea, male, gnathopod 2. A) Morphotype 4; B) Morphotype 5; C) Morphotype 6.
Fig. 7 in The morphological diversity within a species can obscure the correct identification
Fig. 7. Iconography of adult male gnathopod 2 and telson in: (A) Cheiriphotis mediterranea from Myers 1983; (B) Cheiriphotis neotropicalis from Val´erio-Berardo et al., 2007; (C) Cheiriphotis williamsoni from Salman & Jabbar 1990; (D) photo of adult male gnathopod 2 in Cheiriphotis mediterranea scored in the samples (see text for details). The original drawing in (A) of C. mediterranea (Myers 1983) shows the gnathopod 2 propodus as being subtriangular in shape; on the contrary, the present re-description shows the propodus as being clearly subquadrate or quadrate in adult males (D).
Supplementary material 3 from: Osawa T, Ueno Y, Nishida T, Nishihiro J (2020) Do both habitat and species diversity provide cultural ecosystem services? A trial using geo-tagged photos. Nature Conservation 38: 61-77. https://doi.org/10.3897/natureconservation.38.36166
: Explanation note: Table S1. All plants and main habitats in the study area. Table S2. All birds and main habitats in the study area. Table S3. All butterflies and main habitats in the study area. Table S4. All dragonflies and main habitats in the study area. Table S5. List of threatened plants in the study area. Table S6. Picture objects list which took in area with threatened species from spring to autumn.
Supplementary material 1 from: Souza AT, Dias E, Antunes C, Ilarri M (2023) Disruptions caused by invasive species and climate change on the functional diversity of a fish community. NeoBiota 88: 211-244. https://doi.org/10.3897/neobiota.88.108283
Daily air temperature and precipitation data, extracted from the NASA Langley Research Center (LaRC) POWER Project website
Supplementary material 2 from: Hsu S-Y, Xu Y-C, Lin Y-C, Chuang W-Y, Lin S-R, Stadler M, Tangthirasunun N, Cheewangkoon R, AL-Shwaiman HA, Elgorban AM, Ariyawansa HA (2024) Hidden diversity of Pestalotiopsis and Neopestalotiopsis (Amphisphaeriales, Sporocadaceae) species allied with the stromata of entomopathogenic fungi in Taiwan. MycoKeys 101: 275-312. https://doi.org/10.3897/mycokeys.101.113090
Phylogenetic trees generated by maximum parsimony analysis of single and combined ITS, tub2 and tef1-α sequence data
Salix species and varieties affect the molecular composition and diversity of soil organic matter
Open the record for dataset details and reuse information.
F I G U R E 2 in A molecular assessment of species diversity in Tympanopleura and Ageneiosus catfishes (Auchenipteridae: Siluriformes)
F I G U R E 2 Bayesian phylogenetic tree of Ageneiosus spp. and Tympanopleura spp. Bayesian posterior probabilities (PP;>80) are shown on the branches. The vertical line in the tree shows the transition point from Yule to a coalescent branching process as estimated by the single-threshold model in the a generalised mixed yule-coalescent model (GYMC) test
F I G U R E 1 in A molecular assessment of species diversity in Tympanopleura and Ageneiosus catfishes (Auchenipteridae: Siluriformes)
F I G U R E 1 Map of the central Amazon Basin showing the distribution of tissue sampling localities (Supporting Information Table S1) (a) Species of Tympanopleura:, Tympanopleura atronasus;, Tympanopleura brevis;, Tympanopleura longipinna;, Tympanopleura piperata;, Tympanopleura rondoni;, Tympanopleura sp. (b) Species of Ageneiosus:, Ageneiosus lineatus;, Ageneiosus magoi;, Ageneiosus polystictus;, Ageneiosus akamai;, Ageneiosus dentatus;, Ageneiosus intrusus;, Ageneiosus uranophthalmus;, Ageneiosus vittatus;, Ageneiosus inermis;, Ageneiosus ucayalensis;, Ageneiosus militaris;, Ageneiosus pardalis (based on published results but not sampled). Orinoco and other non-Amazon drainages depicted in the overview map (bottom right), some symbols represent more than one locality
T A B L E 1 in A molecular assessment of species diversity in Tympanopleura and Ageneiosus catfishes (Auchenipteridae: Siluriformes)
T A B L E 1 Mean pairwise genetic Kimura two-parameter percentage distance among species of Tympanopleura spp. (1–6). Mean intraspecific values in bold; below the diagonal, interspecific values; above diagonal, corresponding standard error value
F I G U R E 3 in A molecular assessment of species diversity in Tympanopleura and Ageneiosus catfishes (Auchenipteridae: Siluriformes)
F I G U R E 3 Haplotype network using median joining; colours of symbols according to morphological species. Circle size is proportional to the number of individuals and each bar represent one mutation event. (a), Species of Tympanopleura:, Tympanopleura atronasus;, Tympanopleura brevis;, Tympanopleura longipinna;, Tympanopleura piperata;, Tympanopleura rondoni;, Tympanopleura sp. (b) Species of Ageneiosus:, Ageneiosus inermis;, Ageneiosus lineatus;, Ageneiosus magoi;, Ageneiosus militaris;, Ageneiosus pardalis;, Ageneiosus polystictus;, Ageneiosus akamai;, Ageneiosus dentatus;, Ageneiosus intrusus;, Ageneiosus ucayalensis;, Ageneiosus uranophthalmus;, Ageneiosus vittatus
FIGURES 36–37. Ambohitantely Special Reserve. 36 in A new species of Apatenia Pascoe (Coleoptera: Anthribidae) from central Madagascar, with a key to species, additions to the distribution of rare species of the genus, and general notes about threats to anthribid diversity
FIGURES 36–37. Ambohitantely Special Reserve. 36, fire-protection strips (fire-breaks) preventing fire from spreading from savannah to forested part of reserve (2019). 37, burnt primary forest with Phytolacca dodecandra, native but expansive plant of sub-saharan Africa and Madagascar, which occupies open forest sites after fire (2024).
FIGURES 33–35. Ambohitantely Special Reserve. 33 in A new species of Apatenia Pascoe (Coleoptera: Anthribidae) from central Madagascar, with a key to species, additions to the distribution of rare species of the genus, and general notes about threats to anthribid diversity
FIGURES 33–35. Ambohitantely Special Reserve. 33, large forest fire in central part of reserve in October 2022 (photograph credit: Len de Beer); 34–35, mapping of loss of primary forests: 34–situation on December 2021; the same on December 2022. Light green colour–reserve delimitation, dark green colour–primary forest, red colour–forest loss. Google Earth Engine, dataset UMD Global Forest change, modified.
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.