Find research datasets worth reusing

opencc-by-4.0Dec 2023View details →

Figures 1–3 in Description of two new species of Parzaommomyia Girault (Hymenoptera: Chalcidoidea: Eulopohidae) from India

Figures 1–3: Parzaommomyia haziqi sp. nov. female (holotype). 1 – habitus, 2 – fore wing, 3 – hind wing.

Fig. 9. Syscia typhla Roger, 1861 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 9. Syscia typhla Roger, 1861, holotype, worker (FOCOL0804) A. Head in full-face view. B. Label. C. Body in dorsal view. D. Body in lateral view (images cited from https://www.antweb.org; imaged by Christiana Klingenberg).

Fig. 7 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 7. Syscia guizhouensis (Zhou, 2006) comb. nov., worker (No. G160363). A. Head in full-face view. B. Petiole and postpetiole in dorsal view. C. Body in dorsal view. D. Body in lateral view (imaged by Zhilin Chen).

Fig. 5 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 5. Syscia indica Aswaj, Sahanashree, Udayakantha, Aniruddha & Priyadarsanan, 2021, holotype, worker. A. Head in full-face view. B. Petiole and postpetiole in dorsal view. C. Body in dorsal view D. Body in lateral view (images cited from Aswaj et al. 2021).

Fig. 1 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 1. The sampled sites of Syscia guizhouensis comb. nov., Syscia arcodorsa sp. nov. and Syscia zhoui sp. nov. in China (Source: Esri, Maxar, GeoEye, Earthstar geographics, CNES/Airbus DS, USDA, USGS, AeroGRID, IGN, and the GIS User Community).

Fig. 10 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 10. Syscia zhoui sp. nov., holotype, worker (GXNU160017). A. Head in full-face view. B. Petiole and postpetiole in dorsal view. C. Mesosoma in dorsal view. D. Body in lateral view (imaged by Zhilin Chen).

Fig. 8 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 8. Syscia reticularis Jaitrong, Wiwatwitaya & Yamane, 2020, holotype, worker (THNHM-I-02624). A. Head in full-face view. B. Label. C. body in dorsal view. D. Body in lateral view (images cited from https://www.antweb.org; imaged by Yudthana Samung).

Fig. 6 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 6. Syscia guizhouensis (Zhou, 2006) comb. nov., holotype, worker (No. G160363). A. Head in fullface view. B. Body in dorsal view. C. Body in lateral view (imaged by Zhilin Chen).

Fig. 4 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 4. Syscia humicola (Ogata, 1983), paratype, worker (IZCAS). A. Head in full-face view. B. Body in dorsal view. C. Body in lateral view (imaged by Zhilin Chen).

Fig. 3 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 3. Syscia chaladthanyakiji Jaitrong, Wiwatwitaya & Yamane, 2020, holotype, worker (THNHM-I-05483). A. Head in full-face view. B. Label. C. Body in dorsal view. D. Body in lateral view (images cited from https://www.antweb.org; imaged by Yudthana Samung).

Fig. 2 in Taxonomic account of the ant genus Syscia Roger, 1816 (Hymenoptera, Formicidae) from Asia, with descriptions of two new species from China

Fig. 2. Syscia arcodorsa sp. nov., holotype, worker (GXNU210848). A. Head in full-face view. B. Body in dorsal view. C. Body in lateral view (imaged by Zhilin Chen).

Fig. 1 in Descriptions of Three Cheilostomatid Bryozoan Species from the Continental Shelf off Boso Peninsula, Japan

Fig. 1. Tessaradoma japonicum sp. nov., holotype, NMNS PA 20496. A, Complete view of specimen (white arrow, ovicell in B; black arrow, elongate ovicell in D); B, zooid with ovicell (indicated by white arrow in A); C, inner surface of ooecium in B; D, lateral view of elongate ovicell (indicated by black arrow in A); E, boundary between ovicell and the next zooid in D. Scale bars: A, 500 µm; B, D, 200 µm; C, E, 100 µm.

Fig. 2 in Descriptions of Three Cheilostomatid Bryozoan Species from the Continental Shelf off Boso Peninsula, Japan

Fig. 2. Tessaradoma japonicum sp. nov., paratypes. A, Complete view of specimen NMNS PA 20497; B, ovicell and peristome in A; C, complete view of specimen NMNS PA 20498; D, primary orifice in C; E, spiramen in C. Scale bars: A, C, 500 µm; B, E, 100 µm; D, 50 µm.

Fig. 4 in Descriptions of Three Cheilostomatid Bryozoan Species from the Continental Shelf off Boso Peninsula, Japan

Fig. 4. Cribellopora connata (Ortmann, 1890) (A, B) and Hippomenella (?) coronula (Ortmann, 1890) (C–E). A, Ovicell and orifice, NMNS PA 20504; B, oblique view of zooid; arrows, three lateral communication pores, NMNS PA 20503B; C, single zooid with large avicularium, NMNS PA 20506B; D, single zooid, with relatively broad median imperforate area, NMNS PA 20506C; E, largest specimen, NMNS PA 20506A. Scale bars: A, B, 100 µm; C–E, 200 µm.

Fig. 3 in Descriptions of Three Cheilostomatid Bryozoan Species from the Continental Shelf off Boso Peninsula, Japan

Fig. 3. Tessaradoma japonicum sp. nov. (A) and Cribellopora connata (Ortmann, 1890) (B–F). A, Inner surface of frontal wall, paratype, NMNS PA 20500; B, colony on molluscan shell, uncoated specimen, NMNS PA 20501; C, colony with ancestrula, NMNS PA 20502 (arrow, zooid enlarged in E); D, ancestrula in C; E, zooid indicated by arrow in C; F, orifice, NMNS PA 20503B. Scale bars: A, E, 200 µm; B, 1 mm; C, 500 µm; D, 100 µm; F, 50 µm.

opencc-by-4.0Mar 2024View details →

Fig. 1. Gnamtogenys pertusa Lattke, 2004 in First record of ant Stictoponera pertusa Lattke, 2004 (Hymenoptera: Formicidae, Ectatomminae) in Sumatra Island, with description of the hitherto unknown dealate queen

Fig. 1. Gnamtogenys pertusa Lattke, 2004: A, B – worker (individual code: SEMUT10iv22A); C, D – dealate queen (colony code: SU-2iii23A, individual code: SEMUT2iii23A); A, C – head in frontal view; B, D – profile in lateral view.

Fig. 6 in An overview of the Dactylosomatidae (Apicomplexa: Adeleorina: Dactylosomatidae), with the description of Dactylosoma kermiti n. sp. parasitising Ptychadena anchietae and Sclerophrys gutturalis from South Africa

Fig. 6. (A–K). Possible development of Dactylosoma kermiti n. sp. in the gut or haemocoel from the mosquitoes Uranotaenia (Pseudoficalbia) mashonaensis and U. (Pfc.) montana, from infected Sclerophrys gutturalis. (A) Intracellular meront. (B) Intra- and extracellular meront. (C–D) Merging of gametes. (E) Ookinete. (F) Immature oocyst. (G–I) Free sporozoites. (J) Probable meront producing immature merozoites. (K) Probable meront, producing long and slender mature merozoites. Vacuoles – arrow (A–B); Nucleus – arrow (D–K); Condensed chromatin – arrowhead (B, D–K). Scale bars 10 μm.

Fig. 5 in An overview of the Dactylosomatidae (Apicomplexa: Adeleorina: Dactylosomatidae), with the description of Dactylosoma kermiti n. sp. parasitising Ptychadena anchietae and Sclerophrys gutturalis from South Africa

Fig. 5. (A-D). dipterans observed feeding on Ptychadena anchietae and Sclerophrys gutturalis in situ.(A–B). African phlebotomine sand flies (arrows) Sergentomyia sp. feeding on Ptychadena anchietae in situ. (C–D) Mosquitoes (arrows), Uranotaenia (Pseudoficalbia) mashonaensis and U. (Pfc.) montana feeding on Sclerophrys gutturalis in situ.

Fig. 4 in An overview of the Dactylosomatidae (Apicomplexa: Adeleorina: Dactylosomatidae), with the description of Dactylosoma kermiti n. sp. parasitising Ptychadena anchietae and Sclerophrys gutturalis from South Africa

Fig. 4. Consensus phylogram of haemogregarines based on 18S rDNA sequences. Tree topologies for Bayesian inference (BI) and Maximum likelihood (ML) analyses were similar (represented on the ML tree), showing the phylogenetic relationships for D. kermiti n. sp. and Dactylosoma sp. ex Pel. lessonae (represented in bold), compared to other species of Haemogregarina, Hepatozoon, Karyolysus, Hemolivia, and Adelina and Klossia as outgroup. Clades that neither produced 0.80 posterior probability (BI) or 70 bootstrap (ML) nodal support values were omitted. The scale bar represents 0.02 nucleotide substitutions per site. The host, geographical distribution (according to the zoogeographical realms), and if known the vector and life history cycle are also provided for the different sequences using symbols and pictograms. Asterisks (*) indicate the proposed life history strategy of D. kermiti n. sp. based on data from the current study.

Fig. 1 in An overview of the Dactylosomatidae (Apicomplexa: Adeleorina: Dactylosomatidae), with the description of Dactylosoma kermiti n. sp. parasitising Ptychadena anchietae and Sclerophrys gutturalis from South Africa

Fig. 1. (A–L). Dactylosoma kermiti n. sp. from the grass frog Ptychadena anchietae. (A–H) Primary merogony. (A) Young trophozoite. (B–D) Trophozoites. (E) Young meront. (F–G) Primary meronts. (H) Merozoites. (I–L) Secondary merogony. (I) Secondary meront. (J) Immature gamont. (K) Gamont. (L) Extracellular gamont. Arrowheads show condensed chromatin (A–I); arrows show vacuoles (B–E). All images captured from the deposited slides [NMB P 534 – 535]. Scale bar 10 μm.