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FIGURE 3. Alcyonidium bullitum n in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 3. Alcyonidium bullitum n. sp., Junghwadong, Baengnyeong Island. A. Very young colony encrusting sea grass with tentacle crowns expanded (MBRBKP4). B. Large multilayered colony enveloping a crab from deeper water, including its eye (BKF1). C. Another view of seagrass colony in A. D. Preserved rock-encrusting colony showing position of retracted polypides (BKF1). E. SEM image of dried surface of colony from enveloped crab, showing area with protruding orifices and tips of tentacle sheaths of many autozooids (BKF1). F. Part of crab-encrusting colony surface with mostly kenozooids, some still with bubble-like frontal membranes, others collapsed (BKF1). Scale bars: A, C = 0.50 mm; D = 0.60 mm; E, F = 0.10 mm.
FIGURE 8 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 8. Nolella cf. papuensis (Busk, 1886), Seongsan port, Jeju Island (MBRBK1706). A. Live colony attached to shell substratum. B. Cylindrical, translucent to opaque zooids. C. Single tentacle crown of Nolella (next to asterisk) between two larger tentacle crowns of a stolonate hydroid colony. D. Zooids at the edge of a cheilostome colony. E. Compound-microscope image of distal end of Nolella zooid showing striated cuticle. F. Same, showing portions of three zooids, with squared orifice at the distal end of the middle zooid tube. Scale bars: A = 2 mm; B, D = 1 mm; E, F = 0.20 mm.
FIGURE 2. Alcyonidium bullitum n in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 2. Alcyonidium bullitum n. sp., Junghwadong, Baengnyeong Island (MBRBKH4). A. Live encrusting colony on intertidal rock. B. Higher-magnification view of same colony showing large orifice and outer area with bubble-like kenozooids. C. Close-up of white orifice and long tentacle sheaths of autozooids. D. View of preserved colony through compound microscope showing large dark-colored autozooids and many interspersed kenozooids. E. Part of colony with many transparent kenozooids, showing rock surface beneath. F. Compound-microscope image showing very large orifices of autozooids and a few small kenozooids. Scale bars: A = 3 mm; B, C = 1.2 mm; E = 0.60 mm; F = 0.30 mm.
FIGURE 13. Penetrantia taeanata n in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 13. Penetrantia taeanata n. sp., Cheongpodae. A. Cast of a densely growing colony in an area heavily bored by endolithic filaments. B, C. Casts of zooids with roundly tapering to nearly pointed proximal ends and cuticular-wall striations. D. Cast of zooid showing the peduncle that connects it to the principal stolon. E. Stolon with zooid bud. Scale bars: A = 0.50 mm; B–D= 0.10 mm; E = 0.05 mm.
FIGURE 10 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 10. Resin casts of shell-boring colonies of Immergentia cheongpodensis n. sp. from Cheongpodae. A. Partial and complete zooid and stolon casts in a shell also heavily bored by filamentous endolithic organisms, note new zooid buds in area under the scale bar. B. Another part of colony, zooid buds under the "B" in upper right of image. C. Autozooid and stolons with branch. D. Zooid and stolon trifurcation. E. swollen gonozooid in partial profile. F. Another gonozooid. Scale bars: A, B = 0.20 mm; C–F = 0.10 mm.
FIGURE 4. Alcyonidium pulposum n in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 4. Alcyonidium pulposum n. sp., Yeonhwa-ri, Baengnyeong Island (MBRBKH5). A. Whole live colony. B. Close-up of branch tip showing thick side walls of zooids and yellow clusters of embryos. C. View of a larger bulbous area of the colony, again showing zooids and embryo clusters. D–F. Compound-microscope images. D. Part of colony surface showing very thick lateral walls and small oral papillae. E. Several more zooids showing thick lateral walls, small orifices. F. Two zooids at higher magnification to show very thick wall structure. Scale bars: B, C = 1 mm; D, E = 0.36 mm; F = 0.25 mm.
FIGURE 7 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 7. Arachnoidella cf. protecta (Harmer, 1915), west of Cheongsan Island, south Sea (MBRBK1704). A. Remains of a colony encrusting subtidal rock. B. Five reconstituted zooids, showing dilatations and some caudae and peristomes. C. Cuticularized outlines of six zooids visible. D. Chain of zooids in lateral view. E. Compound-microscope image of a single detached autozooid, showing weakly irregular margins, indication of opening of peristome, and caudate proximal end. Scale bars: B–E = 0.25 mm.
FIGURE 1 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 1. Map of Korean Peninsula showing numbered collecting localities of ctenostome specimens used in this study. Numbers refer to the localities shown in Table 1.
FIGURE 12. Penetrantia taeanata n in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 12. Penetrantia taeanata n. sp., Cheongpodae, various uncataloged shells. A. Low-magnification appearance of a densely growing colony. B, C. Higher-magnification views showing that, while the openings at the shell surface may look paired, the actual zooids are offset diagonally in a herringbone pattern. D, E. Variations in angle of zooid chambers within the shell. F. Part of stolon showing tubulets. Scale bars: A = 1 mm; B, C = 0.50 mm; D–F = 0.10 mm.
FIGURE 9 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 9. Light micrographs of various uncataloged shell-borings of Immergentia cheongpodensis n. sp. and Penetrantia taeanata n. sp. from Cheongpodae. A. Immergentia, frontal view of tear-drop-shaped excavations on bivalve shell. B. Highermagnification view of Immergentia excavations on same shell. C. Penetrantia, characteristic 'railroad-track' arrangement of seemingly paired openings either side of stolon traces in a densely bored shell. D. Borings of both species in the same shell, scattered, smaller openings of Immergentia colonies are visible in the upper less-bored half of the image. E. More-magnified Penetrantia colonies showing zooid openings and stolon traces. F. Translucent shell back-lit to show presence of Penetrantia zooid chambers beneath the openings at the shell surface. Scale bars: A = 2 mm; B = 1 mm; C = 4 mm; D = 0.20 mm.
FIGURE 17 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 17. Amathia cf. gracilis (Leidy, 1855), Seongsan port, Jeju Island (MBRBK1707). A. Two expanded 8-tentacled tentacle crowns and introverts of zooids attached to the sides of a hole bored in an intertidal stone. B. Zooids of another colony, the one inside hole is flicking tentacle crown tentacles to capture food particles. C. Zooids of A. gracilis to lower right of small crisiid in upper left of image.
FIGURE 16. Amathia acervata Lamouroux, 1824 in Korean ctenostome bryozoans-observations on living colonies, new records, five new species, and an updated checklist
FIGURE 16. Amathia acervata Lamouroux, 1824, Tongyeong yacht anchorage, south Sea (MBRBK1710). A. Branch clusters on stolons. B. Closer view of same area. C. Branch bifurcation and part of two zooid clusters. D. Distal part of a single cluster. Scale bars: A, B = 1.2 mm; C, D = 0.47 mm.
Daily colony contact networks for the ant Camponotus fellah
<p>Each zip file contains 11 files.</p> <p>Each file gives the daily pairwise contact counts for a given pair of ants, represented as a weighted adjacency matrix.</p> <p>The diagonal is filled with zeros because there are no self-self contacts.</p> <p>The parameters defining the contacts are given in the Supporting Information of the original paper:</p> <p>Mersch, Danielle P., Alessandro Crespi, and Laurent Keller. "Tracking individuals shows spatial fidelity is a key regulator of ant social organization." <em>Science</em> 340, no. 6136 (2013): 1090-1093.</p>
FIGURE 2. Trichoderma changiae A–C. Colonies after 7 d in Trichoderma changiae (Hypocreales), a new species isolated from a native orchid in Taiwan
FIGURE 2. Trichoderma changiae A–C. Colonies after 7 d at 25 °C, overview on: PDA (A), CMA (B), SNA (C). D–M. Conidiophores, phialides, and conidia. N–O. Clamydospores. P. Conidia. Sources: A–E, G–H, N–P from BCRC 24F0002; F, I–M from BCRC 24F0007. Scale bar = 10 µm. Photographs by Y.-H. Wei.
FIGURE 3. A in Exploring Pico de São Tomé (São Tomé and Príncipe), a hotspot for collecting plant specimens during the colonial period: collectors and itineraries
FIGURE 3. A. View of the ridges that connect Lagoa Amélia, Calvário, and Pico de São Tomé, with Pico Ana Chaves in the background. B. View of Pico de São Tomé. Both of these views were seen from the ridges northwest of Lagoa Amélia, and coincide with the perspective of the descriptions made by Gustav Mann C. Pico de São Tomé as seen from Pico Pequeno, with Erica thomensis in the foreground. D. Descending the steep access to the summit of Pico de São Tomé in 2009. Photographs A, B, and C by R. Lima; D by Aristides Monteiro.
FIGURE 2 in Exploring Pico de São Tomé (São Tomé and Príncipe), a hotspot for collecting plant specimens during the colonial period: collectors and itineraries
FIGURE 2. The routes to access Pico de São Tomé. Eastern route as used at present (solid red line); western route as used by Theodore Monod in 1956 (dotted red line); and northern route as used at present (pink line). Elevation ranges: 0–500 m in beige; 500–1000 m in light yellow; 1000–1500 m in medium yellow; 1500–1800 m in dark yellow; 1800–2024 m in brown. The green star represents the approximate possible location of Gustav Mann's camp on 21 August 1861.
FIGURE 5. Asterostomella coccineae. A. Infected leaf. B. Mycelial colony. C. Pycnothyria. D. Conidia. E. Mycelial colony with pycnothyria. F in New teleomorphic and anamorphic taxa of Asterinaceous black mildew from Western coast of India
FIGURE 5. Asterostomella coccineae. A. Infected leaf. B. Mycelial colony. C. Pycnothyria. D. Conidia. E. Mycelial colony with pycnothyria. F. Conidia. Illustrated by Pratik D. Natekar.
FIGURE 3. Asterostomella wrightiae. A. Infected leaf. B. Mycelial colony. C. Appressoriate mycelium. D. Pycnothyria. E. Conidia. F. Mycelial colony with pycnothyria. G in New teleomorphic and anamorphic taxa of Asterinaceous black mildew from Western coast of India
FIGURE 3. Asterostomella wrightiae. A. Infected leaf. B. Mycelial colony. C. Appressoriate mycelium. D. Pycnothyria. E. Conidia. F. Mycelial colony with pycnothyria. G. Conidia. Illustrated by Pratik D. Natekar.
FIGURE 4. Asterostomella salaciae. A. Infected leaf. B. Mycelial colony. C. Appressoriate mycelium. D. Pycnothyria. E. Conidia. F. Mycelial colony with pycnothyria. G in New teleomorphic and anamorphic taxa of Asterinaceous black mildew from Western coast of India
FIGURE 4. Asterostomella salaciae. A. Infected leaf. B. Mycelial colony. C. Appressoriate mycelium. D. Pycnothyria. E. Conidia. F. Mycelial colony with pycnothyria. G. Conidia. Illustrated by Pratik D. Natekar.
FIGURE 1. Asterina dysoxyli. A. Infected leaf. B. Mycelial colony. C. Thyriothecium. D. Asci. E. Ascospores. F. Conidia. G. Mycelial colony with thyriothecium. H. Ascus. I. Ascospores. J in New teleomorphic and anamorphic taxa of Asterinaceous black mildew from Western coast of India
FIGURE 1. Asterina dysoxyli. A. Infected leaf. B. Mycelial colony. C. Thyriothecium. D. Asci. E. Ascospores. F. Conidia. G. Mycelial colony with thyriothecium. H. Ascus. I. Ascospores. J. Conidia. Illustrated by Pratik D. Natekar.
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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.