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Figure 7 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 7. Haplotype network from COI data for Basterotia bonelliphila from Kushimoto and Okinawa, Japan. Each connection represents one inferred base-pair change.
Figure 9 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 9. Bayesian phylogenetic tree of Leucothoe amphipods, including Leucothoe bonelliae, based on the 18S rRNA gene. Numbers above branches indicate Bayesian posterior probabilities followed by maximum likelihood bootstrap support values.
Figure 11 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 11. Basterotia bonelliphila (holotype NSMT-Mo 79470). A, B, Dorsal and ventral views. Anterior is right. C, D, External view of right and left valves. E, F, Internal view of right and left valves. The tip of the foot was removed for DNA analysis. G, H, Hinge structure of left and right valves. Abbreviations: aa, anterior adductor muscle; ac, anterior cardinal tooth; apa, anterior-venral pedal aperture; d, demibranches; dg, digestive gland; exl, external ligament; f, foot; lp, labial palps; pa, posterior adductor muscle; p2, prodissoconch II; s, exhalant and inhalant siphons. Scale bars = 1 mm (A–F), 100 µm (G, H).
Figure 10 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 10. Bonellia sp. aff. minor. A, B, Whole body of living (A) and ethanol-fixed (B) specimens, ventral view. C, Anterior part of the trunk, ventral view. D, Base of the ventral chaetae connected by interbasal muscles. E, A gonoduct containing numerous eggs. F, Anal vesicle sacs. G, Dwarf male (1.5 mm in length). Abbreviations: ac, anterior chaetae; av, anal vesicle sac; gd, gonoduct; gm, gonostomal lip; gp, genital pore; pr, proboscis; tr, trunk. Scale bars = 5 mm (A, B), 1 mm (C–G). Specimen ID (see Supporting Information, Table S2): BM16 (B, C, E, F), BM09 (D, G).
Figure 4 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 4. Macrosymbiotic fauna associated with Bonellia sp. aff. minor. Macrosymbionts with hosts in the burrows (A, C, E). White arrowheads indicate macrosymbionts on the host's burrow wall (A, E) or trunk (C). Close-up view of the living specimens of each macrosymbiont (B, D, F). A, B, Basterotia bonelliphila (holotype: NSMT-Mo 79470). C, D, Leucothoe bonelliae (SMBL-V0666). E, F, Oxydromus fauveli. Scale bar = 1 mm (B, D, F).
Figure 16 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 16. Leucothoe bonelliae: (A) holotype (SMBL-V0661), (B) paratype (SMBL-V0662), (C) paratype (SMBL-V0663): (A–C) left gnathopod 1, lateral. Scale bar = 100 µm.
Figure 17 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 17. Leucothoe bonelliae: (A, B) holotype (SMBL-V0661), (C, D) paratype SMBL-V0662: (A) left gnathopod 2, medial; (B) left gnathopod 2, lateral, omitted setae; (C) left gnathopod 2, medial; (D) left gnathopod, 2, lateral, omitted setae. Scale bar = 100 µm.
Figure 5 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 5. Bonellia sp. aff. minor and its burrow associates (Basterotia bonelliphila, Leucothoe bonelliae, and Oxydromus fauveli) in dead coral rock. The inside of the burrows is partly occupied by sandy sediments collected by Bo. sp. aff. minor.
Figure 8 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 8. Bayesian phylogenetic tree of Basterotia bivalves, including Basterotia bonelliphila, based on the combined dataset of four genes (18S + 28S + COI + H3). Numbers above branches indicate Bayesian posterior probabilities followed by maximum likelihood bootstrap support values.
Figure 19 in Living together in dead coral rocks: macrosymbiotic communities associated with Bonellia echiuran worms (Annelida: Thalassematidae: Bonelliinae), involving new commensal bivalve and amphipod species
Figure 19. Leucothoe bonelliae holotype (SMBL-V0661): (A) left pleopod 1, dorsal, omitted plumose setae; (B) left pleopod 2, dorsal, omitted plumose setae; (C) left pleopod 3, dorsal, omitted plumose setae; (D) left uropod 1, lateral; (E) left uropod 2, lateral; (F) left uropod 3, lateral. Scale = 100 µm.
FIGURES 1–9 in New Scuttle flies (Diptera: Phoridae) reared from dead Termite, Odontotermes formosanus (Shiraki, 1909) (Isoptera: Termitidae) in China
FIGURES 1–9. Megaselia nigrifinis sp. nov. 1–4. Male; 5–8. female. 1. body lateral view; 2. wing; 3. abdominal tergites; 4. hypopygium; 5. body lateral view; 6. wing; 7. Dufour's crop mechanism; 8. tergites V–VII; 9. notopleural cleft. Scale bar = 1 mm (Figs 1,4); scale bar = 0.5 mm (Figs 2,6,9); scale bar=0.1 mm (Figs 3–4,7–8).
FIGURES 10–17 in New Scuttle flies (Diptera: Phoridae) reared from dead Termite, Odontotermes formosanus (Shiraki, 1909) (Isoptera: Termitidae) in China
FIGURES 10–17. Megaselia setidifferitatis sp. nov. 10–12. male; 13–17. female. 10. body lateral view; 11. wing; 12. hypopygium; 13. body lateral view; 14. wing; 15. Dufour's crop mechanism; 16–17. Abdominal tergites. Scale bar = 1 mm (Figs 10,13); scale bar = 0.5 mm (Figs 11,14); scale bar=0.1 mm (Figs 12,15–17).
Live and dead cells in strong and weak biofilms of Klebsiella pneumoniae
<p>Video of CLSM Z-stack of strong and weak biofilm showing the arrangement of live and dead cells inside the biofilm matrix. </p>
FIGURE 1 in Microfungi associated with dead caterpillars and spiders in Xishuangbanna Tropical Botanical Garden, P.R. China
FIGURE 1. The Curvularia phylogram was constructed based on combined LSU, ITS, gapdh, and tef1-α sequences. The tree is rooted with Johnalcornia aberrans (CBS 510.91 and CBS 281.91). The BI and ML bootstrap support values equal to or greater than 0.90 BYPP and 60 % are shown at the first and second positions above the nodes, respectively. Type strains are in bold, and newly generated strains are in red.
FIGURE 3 in Microfungi associated with dead caterpillars and spiders in Xishuangbanna Tropical Botanical Garden, P.R. China
FIGURE 3. Curvularia geniculata (HKAS 129046). a Mycelia on a dead caterpillar; b,c obverse and reverse in PDA; d–f stromata on PDA; g–j conidiophores, and conidiogenous cells bearing conidia; k–n conidia.
FIGURE 4 in Microfungi associated with dead caterpillars and spiders in Xishuangbanna Tropical Botanical Garden, P.R. China
FIGURE 4. Purpureocillium atypicola (HKAS 129045). a P. atypicola colonized on a dead spider; b,c close-up of colonies; d–f,h,i conidiophores bearing conidiogenous cells and conidia stained by congo red reagent; g mycelium stained by congo red reagent; j conidia stained by congo red reagent; k germinated conidia; l,m colonies on PDA.
FIGURE 2 in Microfungi associated with dead caterpillars and spiders in Xishuangbanna Tropical Botanical Garden, P.R. China
FIGURE 2. Purpureocillium phylogram was constructed based on combined LSU, ITS, SSU, tef1-α, and rpb1 sequences. The tree is rooted with Tolypocladium cylindrosporum (YFCC 1805001), and T. inusitaticapitatum (HKAS 112152). The BI and ML bootstrap support values equal to or greater than 0.95 BYPP and 60% are shown at the first and second positions above the nodes, respectively. Type strains are in bold, and newly generated strains are in red.
FIG. 3 in Dead Spadefoot Tadpoles Adaptively Modify Development in Future Generations: A Novel Form of Nongenetic Inheritance?
FIG. 3. Evidence of genetic variation in plasticity. Different sibships varied in propensity to produce carnivores in response to the absence vs. presence of desiccated conspecifics. Similar-shaded boxes are siblings (i.e., similar genotypes; within each soil type, the four boxes refer to sibships 1–4 reading from left to right). Box plots show quintiles and median (middle horizontal line). Groups not connected by the same letter above the box plots are significantly different from each other (P, 0.05; Tukey HSD test).
FIG. 1 in Dead Spadefoot Tadpoles Adaptively Modify Development in Future Generations: A Novel Form of Nongenetic Inheritance?
FIG. 1. Study system. Mexican Spadefoots, Spea multiplicata, breed in (A) ephemeral pools that (B) dry rapidly (this is the same pond as in panel 'A,' but nine days later). (C) Consequently, the tadpoles often desiccate before reaching metamorphosis. (D) To speed development, Spea tadpoles have evolved phenotypic plasticity to shift from an 'omnivore' morph (left) to a more rapidly developing 'carnivore' morph (right).
FIG. 2 in Dead Spadefoot Tadpoles Adaptively Modify Development in Future Generations: A Novel Form of Nongenetic Inheritance?
FIG. 2. Effects of soil type on growth, development, and trophic morphology. Compared to their siblings reared in the absence of tadpole remains (control soil), by the end of the experiment, those reared in the presence of desiccated conspecifics (tadpole-remains soil) were: (A) larger, (B) more developmentally advanced, and (C) more carnivore-like in trophic morphology. Box plots show quintiles and median (middle horizontal line).
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.