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345 results for “DNA typing”
Figure 2 in Target-enriched DNA sequencing from historical type material enables a partial revision of the Madagascar giant stream frogs (genus Mantidactylus)
Figure 2. Diagonal matrix visualising the mean uncorrected genetic distances (p-distances) in the mitochondrial 16S rRNA gene between the different lineages in the subgenus Mantidactylus, calculated from 514 bp of the 16S mitochondrial gene.
Figure 1. Maximum likelihood phylogenetic tree obtained from 514 in Target-enriched DNA sequencing from historical type material enables a partial revision of the Madagascar giant stream frogs (genus Mantidactylus)
Figure 1. Maximum likelihood phylogenetic tree obtained from 514 bp of the mitochondrial 16S rRNA gene. The values at the nodes are the bootstrap supports (not given for intra-lineage nodes for improved clarity). The type specimens of M. guttulatus and M. grandidieri from the London and Paris museum collections are highlighted in red and brown, respectively.
Figure 4 in Target-enriched DNA sequencing from historical type material enables a partial revision of the Madagascar giant stream frogs (genus Mantidactylus)
Figure 4. Stacked barplots showing the number of reads uniquely matching different reference sequences for the three targeted mitochondrial genes with a similarity threshold of 98%. The Rana pigra type was not included because the number of reads was too low.
Figure 8 in Target-enriched DNA sequencing from historical type material enables a partial revision of the Madagascar giant stream frogs (genus Mantidactylus)
Figure 8. Lateral views of the heads of preserved adult males of Mantidactylus (Mantidactylus) radaka sp. nov. in comparison with M. (M.) guttulatus and M. (M.) grandidieri. Note the more distinct and larger tympanum (indicated by yellow arrows) in the latter two species. Not to scale.
Figure 6 in Target-enriched DNA sequencing from historical type material enables a partial revision of the Madagascar giant stream frogs (genus Mantidactylus)
Figure 6. Photographs of living specimens of Mantidactylus radaka sp. nov. (a, b) Male holotype ZSM 644/2001 (field number FGMV 2001.132) from Manarikoba forest, Tsaratanana Massif. (c–f) Female paratype ZSM 1800/2010 (ZCMV 12345) from Camp 1 (Antevialambazaha), Tsaratanana Massif. (g, h) Female paratype ZSM 97/2016 (MSZC 0080) from Ampotsidy. (i, j) Male paratype MSZC 0120 (uncatalogued in UADBA) from Ampotsidy. (k) Unidentified specimen from Camp 0 (Ankijagna Lagnana), Tsaratanana Massif. (l) Paratype ZSM 582/2014 (DRV 6073) from Camp 0 (Ankijagna Lagnana). (m, n) Unidentified female specimen from Manongarivo (Camp 0), probably preserved in UADBA collection.
FIGURES 8 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 8. Male genitalia. Oenochroma barcodificata sp. nov., Tasmania (paratype TASAG Accession No. 104048) (photo CY). Scale bars 2 mm.
FIGURES 6, 7 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 6, 7. Oenochroma vinaria, Ƥ lectotype of Monoctenia decora Wlk. 6: dorsal view. 7: labels (photos Peter Marriott and Peter Lilywhite, MVMA, Melbourne, Australia).
FIGURE 1. Neighbor joining tree for 34 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURE 1. Neighbor joining tree for 34 Australian specimens in the genus Oenochroma (Kimura 2 Parameter, built with MEGA4; all codon positions unweighted) based on sequences of the mtDNA COI gene (barcoding fragment 5'). Values above branches are bootstrap support values superior to 95%. Terminals are identified by their process ID code on BOLD.
FIGURES 4, 5 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 4, 5. Oenochroma vinaria, Ƥ lectotype of Guenée (photos RR/AM). 4: dorsal view. 5: labels (photos AM, RR). Scale bar 2 cm.
FIGURES 2, 3 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 2, 3. Oenochroma barcodificata sp. nov., Ƥ holotype, Tasmania. 2: dorsal view. 3: labels (photos AH). Scale bar 2 cm.
FIGURES 9 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 9. Male genitalia. Oenochroma vinaria, Tasmania (genitalia from slide TMAG F4720; aedeagus from gen.prp. ZSM G 13969) (photo CY/AH). Scale bars 2 mm.
FIGURE 19 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURE 19. Oenochroma barcodificata sp. nov. mature larva on Grevillea sp. Scale bar 10 mm (photo CY)
FIGURES 13–18 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 13–18. Egg of Oenochroma barcodificata. sp. nov. 13: anterior pole, scale bar 300 micrometers. 14: micropylar area, scale bar 200 micrometers. 15: whole egg, scale bar 1 mm. 16: aeropyles, scale bar 35 micrometers. 17: chorion on middle top of egg, scale bar 50 micrometers. 18: lateral chorion, scale bar 500 Μm. (photos CY).
FIGURES 10, 11. Female genitalia. 10 in Revision of the Australian Oenochroma vinaria Guenée, 1858 species-complex (Lepidoptera: Geometridae, Oenochrominae): DNA barcoding reveals cryptic diversity and assesses status of type specimen without dissection
FIGURES 10, 11. Female genitalia. 10: Oenochroma barcodificata sp. nov., Tasmania (paratype, DNA barcode LOTSA125-06/06-TASA-00125) (photo CY). 11: Oenochroma vinaria, South Australia (gen. prp. ZSM G 13864) (photo AH). Scale bars 2 mm.
Two type I topoisomerases maintain DNA topology in human mitochondria
<p>Raw image data from the article "Two type I topoisomerases maintain DNA topology in human mitochondria" by Katja E. Menger et al.</p>
FIGURE 5 in History and historical DNA: Identity of Chelodina intergularis Fry, 1915 and type localities of C. intergularis and C. rugosa Ogilby, 1890
FIGURE 5. Plastral aspects of Chelodina kuchlingi; specimens from the Western Australian Museum, Perth. From left to right: WAM R29411 (holotype), WAM R28116, WAM R28117 (some scute outlines in this specimen highlighted in blue). To scale, midline plastral length of holotype 185 mm. Note that the intergular reaches the anterior plastral rim only in the holotype. Photos: G. Kuchling.
FIGURE 4 in History and historical DNA: Identity of Chelodina intergularis Fry, 1915 and type localities of C. intergularis and C. rugosa Ogilby, 1890
FIGURE 4. Comparison of (A) the holotype of Chelodina rugosa (AM R6256), (B) the holotype of C. intergularis (AM R6255) and (C) an individual of C. burrungandjii sensu stricto (UC 2101; redrawn from Thomson et al. 2000). Not to scale. Epidermal scutes (blue): G = gular; H = humeral; I = intergular; P = pectoral. Bony plates (black): Epi = epiplastron; Ent = entoplastron; Hyo = hyoplastron. In AM R6256 the bony sutures are visible at closer inspection through the translucent epidermal scutes. Drawings: S. Thomson.
FIGURE 2 in History and historical DNA: Identity of Chelodina intergularis Fry, 1915 and type localities of C. intergularis and C. rugosa Ogilby, 1890
FIGURE 2. Maximum Likelihood tree using near-complete mitogenomes of Chelodina species, rooted with Elseya flaviventralis. Numbers at nodes are bootstrap values and posterior probabilities from a Bayesian tree of the same topology. Asterisks indicate maximum support under both approaches. Species names do not imply validity or nomenclatural availability; accepted names of terminals on the right in bold. Sequences from type specimens are flagged; that of the C. intergularis type is highlighted in red. Codes following species names are GenBank/ENA accession numbers. For specimen/voucher tissue information, see Table 1. The mitogenomic phylogeny conflicts with subgenera and reflects a complex pattern of transspecific introgression and mitochondrial capture (Hodges 2015; Kehlmaier et al. 2019).
FIGURE 1 in History and historical DNA: Identity of Chelodina intergularis Fry, 1915 and type localities of C. intergularis and C. rugosa Ogilby, 1890
FIGURE 1. Holotype of Chelodina intergularis, Australian Museum, Sydney (AM R6255). Photos: G. Shea.
FIGURE 11 in Taxonomy and DNA barcoding of the dark-winged fungus gnat genus Zygoneura Meigen (Diptera: Sciaridae) from China, with revision of the type materials
FIGURE 11. Zygoneura (Pharetratula) subdivergens (Mohrig & Mamaev). A: head, frontal view; B: hypopygium, ventral view; C: fourth antennal flagellomere; D: wing, dorsal view.
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
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DANDI Archive for NWB datasets
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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.