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Fig. 1 in Fig. 1 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 1. Vizcainocypria viator gen. nov. sp. nov., female (A, C–G, I), male (B, H). A: Mature female specimen. B: Mature male specimen. C: CpL from right side (MUVHNZY0020). D: CpF (MUVHNZY0019). E: CpD (MUVHNZY0018). F: LVi (MUVHNZY0016). G: Detail of the internal tooth (MUVHNZY0016). H: RVi (MUVHNZY0011). I: Detail of the tubercles on RV margin (MUVHNZY0017). Scale bars: A–F, H = 200 µm; G = 10 µm; I = 5 µm.
Fig. 5. Maximum likelihood tree for 28S in Fig. 1 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 5. Maximum likelihood tree for 28S (A) and COX1 (B) genes. Red branches indicate the presence of tubercles on the RV margin.
Fig. 8. The IL-6 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 8. The IL-6 expression levels of Japanese eel and giant mottled eel reared in different spectra. W: white light; B: blue light; G: green light; R: red light; black: dark. Different letters indicate significant differences between different spectra groups of the same eel species (p <0.05).
Fig. 7 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 7. The LZM expression levels of Japanese eel and giant mottled eel reared in different spectra. W: white light; B: blue light; G: green light; R: red light; black: dark. Different letters indicate significant differences between different spectra groups of the same eel species (p <0.05).
Fig. 6 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 6. The SOD expression levels of Japanese eel and giant mottled eel reared in different light spectra. W: white light; B: blue light; G: green light; R: red light; black: dark. Different letters indicate significant differences between different spectra groups of the same eel species (p <0.05).
Fig. 5 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 5. The body weight of giant mottled eel reared in different light spectra for 12 weeks. W: white light; Black: dark; B: blue light; G: green light; R: red light. Different letters indicate significant differences between groups of the same week (p <0.05).
Fig. 3 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 3. The body weight of Japanese eel reared in different light spectra for 12 weeks. W: white light; Black: dark; B: blue light; G: green light; R: red light.
Fig. 2 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 2. The total length of Japanese eel reared in different light spectra for 12 weeks. W: white light; Black: dark; B: blue light; G: green light; R: red light.
Fig. 4 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 4. The total length of giant mottled eel reared in different light spectra for 12 weeks. W: white light; Black: dark; B: blue light; G: green light; R: red light. Different letters indicate significant differences between groups of the same week (p <0.05).
Fig. 1 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 1. Graph of a set of recirculating aquaculture systems (RAS) used in this study. The five tanks were each 40 L in volume and covered by a black board. W: white light; R: red light (622 nm); G: green light (517 nm); B: blue light (467 nm).
Fig. 9 in Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 9. The POD expression levels of Japanese eel and giant mottled eel reared in different spectra. W: white light; B: blue light; G: green light; R: red light; black: dark. Different letters indicate significant differences between different spectra groups of the same eel species (p <0.05).
Fig. 4 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 4. Comparisons of ΔCT values of LOC111853410, kera, and dcn between the "S-Female" (n = 7, four repeats) and "S-Male" (n = 5, four repeats) groups for assessing the threshold for sex typing. (A) LOC111853410, (B) kera, (C) dcn. A solid black circle represented one ΔCT value. The "S-Female" meant the female silver eels, and the "S-Male" meant the male silver eels. For each gene, there were 28 and 20 solid black circles in the "S-Female" group and the "S-Male" group, respectively. The solid red line meant the inferred threshold of ΔCT for sex typing.
Fig. 3 in Identification of Sexually Dimorphic Genes in Pectoral Fin as Molecular Markers for Assessing the Sex of Japanese Silver Eels ().
Fig. 3. Comparisons of relative expression levels of four genes possibly higher expressed in the pectoral fins of male silver eels between the "S-Female" (n = 7, four repeats) and "S-Male" (n = 5, four repeats) groups. (A) kera, (B) dcn, (C) cited1, (D) LOC104575574. The arp was a housekeeping gene, and two female samples (F1 and F2) were used as the internal control for calculating relative expression levels. The y-axis was in log2 scale. The "S-Female" meant the female silver eels, and the "S-Male" meant the male silver eels. The solid black line represented the median value, and the solid black circle represented the outliers. Asterisks indicated significant differences (**P <0.01, ***P <0.001) in relative expression levels between two groups.
Fig. 13 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 13. Phylogenetic analysis based on genetic sequence derived from cytochrome oxidase I (COI) gene of Donax spp. and other related species using the maximum likelihood (ML) method. The bootstrap values were calculated with 1000 replicates.
Fig. 11 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 11. Frequency distribution of Discriminant analysis of two overlapping populations, Donax (Deltachion) bruneirufi (grey) and D. (Deltachion) spinosus (white).
Fig. 12 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 12. Outline overlain, size-normalized average outline of each two species in discriminant analysis; Donax (Latona) solidus (white) and D. (Latona) cuneatus (grey) (A); D. (Latona) solidus (white) and D. (Latona) faba (grey area) (B); D. (Latona) cuneatus (white area) and Donax (Latona) faba (grey area) (C); D. (Deltachion) bruneirufi (white) and D. (Deltachion) spinosus (grey) (D). Arrows highlight distinct position from overlain shape of white area species extend from grey area species.
Fig. 14 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 14. The haplotype network analysis of six species based on COI sequences were constructed in shell morphology picture. Scale in 1 to 10 samples of available localities. The nucleotide diversity was calculated at 0.117006 and Number of segregating sites at 215. Number in parenthesis represents nucleotide substitution difference (A); Colour illustrations of collected Thai Donax species for molecular analysis of cytochrome c oxidase subunit I. Scale bar: B = 1 cm.
Fig. 10 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 10. CVA of EFA coefficients and mean shape outline from three overlapping species of subgenus Deltachion, small size group. Within each species, the specimen is enclosed by a convex hull polygon.
Fig. 6 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 6. Scatterplot of shape, represent by PC I score (y-axis) per centroid size (x-axis) of eight Donax species.
Fig. 8 in Identification and Distribution of Wedge Clams (Donacidae: Bivalvia) in Thailand by Geometric Morphometric and Molecular Analysis.
Fig. 8. CVA of EFA coefficients and mean shape outline from three overlapping species from subgenus Latona, large size species group. Within each species, the specimens are enclosed by a convex hull polygon.
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.