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Figure 11 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 11. Boasaxius princeps, seventh zoea. (A) Complete larva, dorsal view; (B) same, lateral view; (C) antennule; (D) antenna; (E) mandibles; (F) maxillule; (G) maxilla.
Figure 4 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 4. Boasaxius princeps, third zoea. (A) First maxilliped; (B) second maxilliped; (C) third maxilliped; (D) pereiopod 1; (E) pereiopod 2; (F) pereiopod 3; (G) pereiopod 4; (H) pereiopod 5; (I) telson with uropods, ventral view.
Figure 10 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 10. Boasaxius princeps, sixth zoea. (A) First maxilliped; (B) second maxilliped; (C) third maxilliped; (D) pereiopod 1; (E) pereiopod 2; (F) pereiopod 3; (G) pereiopod 4; (H) pereiopod 5; (I) telson with uropods, dorsal view.
Figure 8 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 8. Boasaxius princeps, fifth zoea. (A) Pereiopod 1; (B) pereiopod 2; (C) pereiopod 3; (D) pereiopod 4; (E) pereiopod 5; (F) telson with uropods, dorsal view; (G) same, ventral view.
Figure 14 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 14. Boasaxius princeps, eighth zoea. (A) First maxilliped; (B) second maxilliped; (C) third maxilliped; (D) pereiopod 1; (E) pereiopod 2; (F) pereiopod 3; (G) pereiopod 4; (H) pereiopod 5; (I) pleopod; (J) telson with uropods, ventral view; (K) telson, dorsal view.
Figure 15 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 15. Boasaxius princeps, megalopa. (A) Complete larva, dorsal view; (A′) rostrum, dorsal view; (B) same, lateral view; (C) antennule; (D) antenna; (E) mandibles; (F) maxillule; (G) maxilla.
Figure 3 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 3. Boasaxius princeps, third zoea. (A) Complete larva, dorsal view; (B) same, lateral view; (C) antennule; (D) antenna; (E) mandibles; (F) maxillule; (G) maxilla.
Figure 13 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 13. Boasaxius princeps, eighth zoea. (A) Complete larva, lateral view; (B) carapace, dorsral view; (C) antennule; (D) antenna; (E) mandibles; (F) maxillule; (G) maxilla.
Figure 2 in The complete larval development of the lobster shrimp Boasaxius princeps Boas, 1880 (Decapoda: Axiidea: Axiidae) obtained in the laboratory
Figure 2. Boasaxius princeps, second zoea. (A) Complete larva, dorsal view; (A′) rostral spine; (B) complete larva, lateral view; (B′) anteroventral carapace margin; (C) antennule; (D) antenna; (E) mandibles; (F) maxillule; (G) maxilla; (H) first maxilliped; (I) second maxilliped; (J) third maxilliped; (K) pereiopods 1 and 2; (L) telson, dorsal view.
Figure 4 in Complete mitogenome of Chinese shrew mole Uropsilus soricipes (Milne- Edwards, 1871) (Mammalia: Talpidae) and genetic structure of the species in the Jiajin Mountains (China)
Figure 4. Expected (solid line) and observed (broken lines) mismatch distribution of Uropsilus soricipes based on cyt b. The x-axis represents the numbers of pairwise differences among sequences and the y-axis represents the relative frequencies of pairwise comparisons. (A) All individuals; (B) Jiajin Mountains population.
Figure 3. Bayesian 50 in Complete mitogenome of Chinese shrew mole Uropsilus soricipes (Milne- Edwards, 1871) (Mammalia: Talpidae) and genetic structure of the species in the Jiajin Mountains (China)
Figure 3. Bayesian 50% majority rule consensus phylogenetic tree of Eulipotyphla species from a phylogenetic analysis by the concatenated nucleotide sequences of 12 heavy strand proteincoding genes. Rattus rattus and Tupaia belangeri used as outgroup. The numbers on the internode branche is bootstrap percentages for ML analyses.
Figure 1 in Complete mitogenome of Chinese shrew mole Uropsilus soricipes (Milne- Edwards, 1871) (Mammalia: Talpidae) and genetic structure of the species in the Jiajin Mountains (China)
Figure 1. Study area and sampling sites for Chinese shrew mole (Uropsilus soricipes) in this study. Sample sizes can be found in Table 1.
Figure 5. Bayesian inference tree using the TIM2 in Complete mitogenome of Chinese shrew mole Uropsilus soricipes (Milne- Edwards, 1871) (Mammalia: Talpidae) and genetic structure of the species in the Jiajin Mountains (China)
Figure 5. Bayesian inference tree using the TIM2 + I + G model depicting the relationship of Uropsilus soricipes. The phylogenetic tree was rooted using Rattus rattus and Neotetracus sinensis. Numbers represent node supports inferred from Bayesian posterior probabilities. Clade A. Jiajin Mountains (JM); Dujiangyan (DJY); Tianquan (TQ); Maoxian (MX); Lixian (LX); Jiuzhaigou (JZG); Clade B. Yuexi (YX).
Figure 1 in The complete mitochondrial genome of the Chinese Sika deer (Cervus nippon Temminck, 1838), and phylogenetic analysis among Cervidae, Moschidae and Bovidae
Figure 1. Molecular phylogenetic tree derived from complete DNA sequence of 12 mitochondrial protein-coding genes using Bayesian inference and maximum parsimony analysis. The numbers beside the nodes are Bayesian posterior probabilities and bootstrap proportions. Equus asinus and Equus caballus were set as out-groups.
Figure 3 in Morphological reply to a DNA call: a new cryptic species of Hydraena from western Europe, with a complete overview of the Hydraena gracilis complex (Coleoptera: Hydraenidae: "Haenydra" lineage)
Figure 3. Comparative morphology of the Hydraena gracilis complex. Aedeagi in right side view of: (A) Hydraena crepidoptera (from Jäch 1995: Turkey, Sinop, W Yenikonak); (B) Hydraena nike (Greece, Samothraki); (C) Hydraena gracilis (Austria, Niederösterreich); (D) Hydraena gracilidelphis (Spain, León, Puerto de Panderrueda); (E) Hydraena graciloides (Turkey, Bolu, Yödigoller N. P.); (F) Hydraena elisabethae (From Jäch 1995: Greece, Thassos); (G) Hydraena anatolica (Turkey, Kastamonu, Küre Daglari). Scale bar 0.25 mm.
Figure 1 in Morphological reply to a DNA call: a new cryptic species of Hydraena from western Europe, with a complete overview of the Hydraena gracilis complex (Coleoptera: Hydraenidae: "Haenydra" lineage)
Figure 1. Aedeagi in right side view of (A) Hydraena gracilidelphis sp. nov. (Spain, León, Puerto de Panderrueda) and (B) Hydraena gracilis (Austria, Niederösterreich). (C) Female elytral terminations of: H. gracilidelphis sp. nov. (Spain, León, Puerto de Panderrueda); (D) H. gracilis (Italy, Friuli, Stregna). Scale bar 0.25 mm; female elytral terminations not scaled.
Figure 2 in Morphological reply to a DNA call: a new cryptic species of Hydraena from western Europe, with a complete overview of the Hydraena gracilis complex (Coleoptera: Hydraenidae: "Haenydra" lineage)
Figure 2. Map of the geographic distribution of Hydraena gracilidelphis sp. nov. The green spot represents type locality.
Figure 1 in Molecular phylogeny of major lineages of the avian family Phasianidae inferred from complete mitochondrial genome sequences
Figure 1. Molecular phylogenetic tree derived from complete DNA sequences of the 12 mitochondrial protein-coding genes using Bayesian inference, maximum parsimony and maximum likelihood analysis. The numbers beside the nodes are Bayesian posterior probabilities (≥ 0.95 retained) and bootstrap proportions (≥ 50% retained). Anas platyrhynchos was set as outgroup. ∗demonstrates that MP analysis does not support this branch.
Figure 2 in Complete mitochondrial genome of Tetraophasis szechenyii Madarász, 1885 (Aves: Galliformes: Phasianidae), and its genetic variation as inferred from the mitochondrial DNA Control Region
Figure 2. Median-joining network of all the control region haplotypes found in Tetraophasis szechenyii. Notes: Missing haplotypes in the network are represented by black dots; circle sizes are proportional to the number of individuals sharing the same haplotypes (n); each mutation step is shown as a short line connecting neighbouring haplotypes; numbers of mutations between haplotypes are indicated near branches if greater than 1.
Figure 1 in Complete mitochondrial genome of Tetraophasis szechenyii Madarász, 1885 (Aves: Galliformes: Phasianidae), and its genetic variation as inferred from the mitochondrial DNA Control Region
Figure 1. Molecular phylogenetic tree derived from the complete DNA sequences of 12 mitochondrial protein-coding genes using Bayesian inference and maximum likelihood analyses. Notes:The numbers beside the nodes are Bayesian posterior probabilities (≥ 0.9 retained) and bootstrap proportions of maximum likelihood analyses calculated with 100 replicates (≥ 50% retained); Anas platyrhynchos and Alectura lathami were set as outgroups; *clades not supported by Bayesian inference.
ScienceDex guides
Understand access before you commit
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.