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493 results for “Rhaphidophoridae”
FIGURE 1 in Description of a new species of the subgenus Tachycines (Tachycines) (Rhaphidophoridae: Aemodogryllinae: Aemodogryllini) from Guizhou, China
FIGURE 1. Tachycines (Tachycines) nigrocorporis sp. nov. (male). A. habitus, dorsal view; B. habitus, lateral view; C. habitus, ventral view; D. head, frontal view; E. thorax, dorsal view; F. hind tarsus, lateral view; G. genitalia, dorsal view; H. genitalia, ventral view.
Supplementary material 1 from: Zhao Y, Wang H, Huang H, Zhou Z (2022) A DNA barcode library for katydids, cave crickets, and leaf-rolling crickets (Tettigoniidae, Rhaphidophoridae and Gryllacrididae) from Zhejiang Province, China. ZooKeys 1123: 147-171. https://doi.org/10.3897/zookeys.1123.86704
List of species of the family Tettigoniidae, Rhaphidophoridae, and Gryllacrididae in Zhejiang Province, China
FIGURE 1 in New taxonomic status of the Pseudotachycines procerus guizhouensis Zhu & Shi 2022 (Rhaphidophoridae: Aemodogryllinae: Aemodogryllini)
FIGURE 1. Pseudotachycines guizhouensis (male). A. habitus, dorsal view; B. habitus, lateral view; C. habitus, ventral view; D. head, frontal view; E. vertex of head, showing conical tubercles; F. hind tarsus, lateral view; G. epiproct, dorsal view; H. paraproct, lateral view.
FIGURE 3 in New taxonomic status of the Pseudotachycines procerus guizhouensis Zhu & Shi 2022 (Rhaphidophoridae: Aemodogryllinae: Aemodogryllini)
FIGURE 3. Pseudotachycines guizhouensis (female). A. habitus, dorsal view; B. habitus, lateral view; C. habitus, ventral view; D. hind tarsus, lateral view; E. ovipositor, lateral view; F. subgenital plate, ventral view.
Figure 9 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 9. Dolichopoda apollinea sp. nov. (a) Male tergum X, dorsal view; (b) male subgenital plate, ventral view; (c) male subgenital plate, lateral view; (d) epiphallus, dorsal view; (e) epiphallus, lateral view; (f) female subgenital plate; (g) ovipositor, lateral view. The arrows highlight differences in the main diagnostic characters as described in the text. Scale bars: 1 mm.
Figure 5 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 5. Dolichopoda palpata (male). (a) X tergum, dorsal view; (b) subgenital plate, lateral view; (c) epiphallus, dorsal view; (d) epiphallus, lateral view; (e) plica dorsalis. Dolichopoda calabra (male). (f) X tergum, dorsal view; (g) subgenital plate, lateral view; (h) plica dorsalis; (i) epiphallus, dorsal view; (l) epiphallus, lateral view. The arrows highlight differences in the main diagnostic characters as described in the text. Scale bars: 1 mm.
Figure 2 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 2. (a) Median-joining network analysis in the populations of Calabrian Dolichopoda considered in this study: circled areas are proportional to the number of individuals sharing the same haplotype; numbers, along with connections, indicate the number of nucleotide substitutions. (b) Distribution of genetic distance values (p-distances) at different taxonomic levels. Pairwise comparisons at the intra- and inter-specific levels in all studied Dolichopoda species are reported. Comparisons between taxa from Calabria are evidenced in green and red.
Figure 1 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 1. Geographical distribution of the Calabrian Dolichopoda populations sampled and analysed in this study.
Figure 4 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 4. Bayesian inference analysis for (a) the COI gene and (b) COI combined with morphological characters, carried out on most Italian species of Dolichopoda.
Figure 7 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 7. Correlation between body and hind femur lengths in a subsample of Calabrian Dolichopoda. Squares and circles refer to D. palpata and D. calabra, respectively, whereas triangles indicate D. apollinea sp. nov. Measurements are in mm.
Figure 6 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 6. Dolichopoda palpata (female). (a) Subgenital plate; (b) ovipositor lateral view. Dolichopoda calabra (female). (c) Subgenital plate; (d) ovipositor. Scale bars: 1 mm.
Figure 3 in Molecular and morphological analyses disclose the existence of three species of Dolichopoda (Orthoptera: Rhaphidophoridae) in the Calabria region (Italy)
Figure 3. Results of species delimitation analysis. The species created by each delimitation algorithm are represented as squares on the right. The same colour indicates the same classification. The number of morphospecies is also reported for comparison.
FIGURE 3 in Review of the genus Eurhaphidophora Gorochov, 1999 (Orthoptera: Ensifera Rhaphidophoridae) from Thailand, with description of a new species
FIGURE 3. Eurhaphidophora apicoexcisa sp. nov., female (paratype): abdominal apex in dorsal (A) and lateral (B) views; subgenital plate in ventral view (C); ovipositor in lateral view (D).
FIGURE 2 in Review of the genus Eurhaphidophora Gorochov, 1999 (Orthoptera: Ensifera Rhaphidophoridae) from Thailand, with description of a new species
FIGURE 2. Eurhaphidophora apicoexcisa sp. nov., male (paratypes), posteromedian process on ninth abdominal tergite in dorsal view.
FIGURE 1 in Review of the genus Eurhaphidophora Gorochov, 1999 (Orthoptera: Ensifera Rhaphidophoridae) from Thailand, with description of a new species
FIGURE 1. Eurhaphidophora apicoexcisa sp. nov., male (holotype): head with anterior part of pronotum in dorsal (A), lateral (B) and frontal (C) views; abdominal apex in dorsal (D), lateral (E), posteroventral (F), posterior (G), posterolateral (H) and ventral (I) views.
FIGURE 5 in Review of the genus Eurhaphidophora Gorochov, 1999 (Orthoptera: Ensifera Rhaphidophoridae) from Thailand, with description of a new species
FIGURE 5. Abdominal structure of Thailand Eurhaphidophora species: E, bispina, male (A–C); E. tarasovi doitungensis, male (D–F); E. pawangkhananti, male (G–I) and female (J-L). Male (A, D, G) and female (J) abdominal apex without cerci, dorsal view; posteromedian process of male ninth abdominal tergite, posterior view (B, E, H); epiproct of male, posterior view (C, F, I); subgenital plate of female, ventral view (K); apex of ovipositor, lateral view (L). [A–C, after Gorochov (2010b).]
FIGURE 4 in Review of the genus Eurhaphidophora Gorochov, 1999 (Orthoptera: Ensifera Rhaphidophoridae) from Thailand, with description of a new species
FIGURE 4. Eurhaphidophora apicoexcisa sp. nov. (paratypes) in-situ: male in lateral (A) and dorsal (B) views; female with part of male in lateral view (C).
140 million years of evolutionary history without wings: Phylogeny and biogeography of cave crickets (Orthoptera: Rhaphidophoridae)
<p>The family Rhaphidophoridae is an ancient and wingless lineage within Orthoptera that shows a worldwide distribution except Antarctica, with a high level of endemicity for each subfamily. Nevertheless, the phylogenetic relationships within the family remain poorly resolved due to its morphological uniformity and lack of diagnostic characteristics, such as wings. To clarify the systematics of Rhaphidophoridae and its biogeographic history, a molecular phylogeny of Rhaphidophoridae was reconstructed using three mitochondrial genes (COI, 12S, and 16S) and two nuclear ribosomal RNA genes (18S and 28S). We proposed the most comprehensive phylogenetic hypothesis of the family to date, including all extant subfamilies for the first time. In particular, we included the representatives of Anoplophilinae from East Asia to propose its phylogenetic placement for the first time, and we also included the members of Tropidischinae and Gammarotettiginae from the western United States. We resolved phylogenetic relationships among the subfamilies, including the sister relationship between Anoplophilinae and Gammarotettiginae, based on which we suggest new synapomorphies and resurrect <em>Tachycines (Tachycines) coreana</em> (Yamasaki, 1969) <strong>stat. resurr.</strong> Through biogeographic analyses based on divergence time estimation and ancestral range reconstruction, we suggested new biogeographic hypotheses that Gammarotettiginae in California originated from the Asian lineage when Asia and the Americas were connected by the Bering land bridge, and the opening of the Western interior seaway affected the division of Ceuthophilinae from Tropidischiinae in North America. We estimated that Rhaphidophoridae originated at 138 Mya across Laurasia and Gondwana, and suggested that the loss of wings in Rhaphidophoridae could be the result of adaptation to low temperatures in the Mesozoic era.</p>
FIGURE 3 in Two new species of the genus Diestramima from China (Orthoptera: Rhaphidophoridae: Aemodogryllinae)
FIGURE 3. Diestramima pingmengensis sp. nov. A, male head, front view; B, male thorax, dorsal view; C, apex of abdomen, dorsal view; D, male body, lateral view; E, apex of abdomen, lateral view; F, apex of abdomen, distal view; G, hind basitarsus, outer lateral view; H, hind basitarsus, inner lateral view; I, hind femora, outer lateral view.
FIGURE 4 in Two new species of the genus Diestramima from China (Orthoptera: Rhaphidophoridae: Aemodogryllinae)
FIGURE 4. Diestramima gulinjingensis sp. nov. A, male head, front view; B, male thorax, dorsal view; C, apex of abdomen, dorsal view; D, male head and thorax, lateral view; E, apex of abdomen, lateral view; F, apex of abdomen, distal view; G, hind basitarsus, inner lateral view; H, hind basitarsus, outer lateral view; I, hind femora, outer lateral view.
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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OpenNeuro
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