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FIGURE 4 in A new species of reed snake, Calamaria (Squamata: Colubridae), from the Central Truong Son (Annamite mountain range), Vietnam
FIGURE 4. Lateral view of the head of the ethanolpreserved holotype of Calamaria thanhi sp. n. (ZFMK 82920).
FIGURE 4 in New species of reed frog from the Congo basin with discussion of paraphyly in Cinnamon-belly reed frogs
FIGURE 4. Dorsal and ventral views of preserved (A) male holotype of Hyperolius veithi sp. nov. (photos by F. Feß), SVL 26.3 mm, (B) female holotype of Hyperolius schoutedeni (photos by MRAC, through the courtesy of D. Meirte), SVL 26.4 mm.
FIGURE 3 in New species of reed frog from the Congo basin with discussion of paraphyly in Cinnamon-belly reed frogs
FIGURE 3. Bayesian phylogram of Hyperolius species including Cinnamon-belly reed frogs inferred from nucleotide sequence data from 16S mitochondrial rRNA. Bayesian posterior probabilities> 0.95 each are marked by an asterisk on branch. We here apply species names as given in Table 1; in the Cinnamon-belly reed frog clade, numbers in parentheses give sample size of the same haplotype, which corresponds with localities. Note that Hyperolius cinnamomeoventris is paraphyletic. Topotypic material of H. olivaceus (#) and H. cinnamomeoventris (##) are indicated. Hyperolius sp. 'Salonga' is H. veithi sp. nov. Both the Hierarchical Likelihood Ratio Tests and Akaike Information Criterion implemented in MrModeltest selected a GTR+I+G model with a gamma distribution of 0.5912 and a proportion of invariable sites of 0.2291 (estimated base frequencies: A: 0.3294, C: 0.2260, G: 0.1813, T: 0.2633; rate matrix: A-C: 3.0708, A-G: 7.4382, A-T: 5.3616, C-G: 1.5864, C-T: 21.7283, G-T: 1.0000).
FIGURE 1 in New species of reed frog from the Congo basin with discussion of paraphyly in Cinnamon-belly reed frogs
FIGURE 1. Map of Central Africa and adjacent areas showing Salonga National Park (white contour line), distribution of H. cinnamomeoventris according to the IUCN Red List (http://www.iucnredlist.org) following the 2002 2004 IUCN Global Amphibian Assessment (bold black contour line) and localities of our genetic sampling from type localities (reverse filled triangle—H. cinnamomeoventris and H. tristis, white circle—H. veithi sp. nov., filled square—H. ituriensis, filled triangle— H. olivaceus and H. fimbriolatus) and additional localities (small filled dots). In addition, the type locality of H. wittei (cross) is shown. Note that H. veithi syntopically occurs with H. cinnamomeoventris.
FIGURE 2 in New species of reed frog from the Congo basin with discussion of paraphyly in Cinnamon-belly reed frogs
FIGURE 2. Life aspects of: (A) Hyperolius veithi sp. nov. in amplexus (unidentified paratypes; photo J. Kielgast), note that there is a yellow spot on the heel visible in the male frog; (B) H. cinnamomeoventris male in PhJ from the type locality (AC 3008; photo A. Channing); (C) H. cinnamomeoventris female from the Kakamega Forest, Kenya (not collected; photo S. Lötters); (D) H. cinnamomeoventris male in PhJ from Semliki, Uganda (SL 555; photo A. Channing); (E) H. molleri from São Tomé (photo D. Lin, CAS) and (F) H. thomensis from São Tomé in amplexus (photo D. Lin, CAS).
FIGURE 12 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 12. Hyperolius igbettensis, Lamto, Ivory Coast, photo M.-O. Rödel (A); Hyperolius jacobseni sp. nov. holotype, ZMB 77280, Gatiko, Central African Republic, photo N. Jacobsen (B); Hyperolius inyangae sp. nov. male holotype, ZMB 77276, Rhodes Dam, Nyanga National Park, Zimbabwe, photo A. Channing (C); female paratype H. inyangae, ZMB 77277, same details (D); Hyperolius nasicus, Nyanga Flats, Zimbabwe, photo A. Channing (E); H. lamottei, night pattern, Mt Nimba, Guinea, photo M.-O. Rödel (F); Hyperolius lupiroensis sp. nov., holotype ZMB 77300, Lupiro, Tanzania, photo A. Channing (G).
FIGURE 11 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 11. Advertisement calls of H. jacobseni Gatiko (left), H. lamottei Nimba (center left), H. lupiroensis Lupiro (center right) and H. nasicus Fungurume (right).
FIGURE 10 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 10. Advertisement calls of H. howelli Arusha (left), H. igbettensis Comoé National Park, Ivory Coast (center) and H. inyangae Rhodes Dam (right).
FIGURE 8 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 8. Advertisement calls of H. benguellensis Humpata (left) and H. friedemanni Karonga (right).
FIGURE 4 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 4. Hyperolius acuticeps Chongoni, Malawi, photo V. Mercurio (A); H. adspersus Bateka Nature Reserve, Gabon, photo G. Jongsma (B); H. benguellensis, Humpata, Angola, photo A. Channing (C); H. friedemanni sp. nov., Karonga, Malawi, photo V. Mercurio (D); H. howelli sp. nov. holotype, SAIAB 118979, Arusha, Tanzania, photo A. Channing (E); H. howelli sp. nov. female paratype, SAIAB 118980-1, Arusha, Tanzania, photo A. Channing (F).
FIGURE 3 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 3. Haplotype network of the nuclear tyr gene. Each circle represents a unique haplotype. Species are indicated in colour, and hypothesised intermediates are shown as solid circles. The size of the circle indicates the number of individuals sharing the haplotype. One haplotype (large circle) is shared by individuals from five species, and a second is shared by two species. Hyperolius lamottei and H. lupiroensis haplotypes are more than nine changes different from the network.
FIGURE 2 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 2. Phylogeny of the recognised species, based on 16S. Tree support is given as posterior probability/ML bootstrap. Hyperolius lamottei is basal to the group, and is not shown.
FIGURE 1 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 1. Map showing the distribution of the sequenced specimens of recognised species in the Hyperolius nasutus group plus H. lamottei. Species numbers represent the following: 1—H. acuticeps, 2—H. adspersus, 3—H. benguellensis, 4—H. friedemanni sp. nov., 5—H. howelli sp. nov., 6—H. igbettensis, 7—H. inyangae sp. nov., 8—H. jacobseni sp. nov., 9—H. lamottei, 10—H. lupiroensis sp. nov., 11—H. nasutus, 12—H. poweri, 13—H. rwandae sp. nov., 14—H. dartevellei, 15—H. viridis, 16—H. nasicus.
FIGURE 16 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 16. Potential distribution of the H. nasutus group derived from a BIOCLIM model. All grey areas are within the environmental envelope of the group, pale areas are outside of the envelope. Overlain is the distribution of the species as recognised by the IUCN (2011). Note that the IUCN taxonomy and species distributions are used purely for illustrating the overall range of the group as known before the present study.
FIGURE 5 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 5. Advertisement calls of H. acuticeps Kaningina (left), H. adspersus Bateka Nature Reserve (center) and H. dartevellei Carumbo (right).
FIGURE 9 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 9 Hyperolius nasutus, Calandula, Angola, ZMB 77311, photo A. Channing (A); Hyperolius poweri, Mkambati NR, South Africa, photo W. Conradie (B); Hyperolius rwandae sp. nov., Butare, Rwanda, ZMB 77221, holotype, photo J.M. Dehling (C); Hyperolius viridis, Kaningina, Malawi, photo V. Mercurio (D), Hyperolius rwandae sp. nov, female paratype ZMB 77223, photo J.M Dehling (E), Hyperolius dartevellei, Carumbo, Angola, PEM A 10035, photo W. Conradie (F).
FIGURE 13 in Taxonomy of the super-cryptic Hyperolius nasutus group of long reed frogs of Africa (Anura: Hyperoliidae), with descriptions of six new species
FIGURE 13. Advertisement calls of H. nasutus Kangandala (left), H. poweri Port Edward (center) and H. rwandae Gitarama (right).
FIGURE 2. Male genitalia. X in Contribution to the knowledge of Patagonia, Argentina: redescription of the genus Xenogenus Berg 1883 (Hemiptera: Heteroptera: Rhopalidae) and description of immature stages of Xenogenus gracilis Reed, 1899
FIGURE 2. Male genitalia. X. gracilis. Genital capsule in situ (A), genital capsule (B), pygophore (C), male phallus (D), paramere (E). L lo: lateral lobe; M lo: medial lobe; Pa: paramere; Pa lo: Paralateral lobes.
FIGURE 1. General aspect. X in Contribution to the knowledge of Patagonia, Argentina: redescription of the genus Xenogenus Berg 1883 (Hemiptera: Heteroptera: Rhopalidae) and description of immature stages of Xenogenus gracilis Reed, 1899
FIGURE 1. General aspect. X. gracilis ♂, dorsal view (A–B); X. picturatum ♂, dorsal view (C); X. gracilis ♀ dorsal view (D–E).
FIGURE 3. Nymphal stages. X in Contribution to the knowledge of Patagonia, Argentina: redescription of the genus Xenogenus Berg 1883 (Hemiptera: Heteroptera: Rhopalidae) and description of immature stages of Xenogenus gracilis Reed, 1899
FIGURE 3. Nymphal stages. X. gracilis, dorsal view; second instar (A), third instar (B), fourth instar (C), fifth instar (D). scale line: 1mm.
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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)
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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.