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FIGURES 30–31 in A phylogenetic analysis of the tribe Zopherini with a review of the species and generic classification (Coleoptera: Zopheridae)
FIGURES 30–31. Ventral surface of the head. 30. Sesaspis sylvatica; 31. Verodes aequalis. Scale bars = 1mm.
FIGURES 22–25. 22–23. Dorsal habiti. 22 in A phylogenetic analysis of the tribe Zopherini with a review of the species and generic classification (Coleoptera: Zopheridae)
FIGURES 22–25. 22–23. Dorsal habiti. 22. Nosoderma echinatum, Cuba; 23. N. turquinense, Cuba. 24. N. echinatum ventral surface of prosternum. 25. N. turquinense leg surface.
FIGURES 20–21. Scoriaderma cordicolle. 20 in A phylogenetic analysis of the tribe Zopherini with a review of the species and generic classification (Coleoptera: Zopheridae)
FIGURES 20–21. Scoriaderma cordicolle. 20. Dorsal surface of head and pronotum; 21. Ventral surface of head and prosternum. Scale bars = 1mm.
FIGURES 16–19. Dorsal habiti. 16 in A phylogenetic analysis of the tribe Zopherini with a review of the species and generic classification (Coleoptera: Zopheridae)
FIGURES 16–19. Dorsal habiti. 16. Scoriaderma cordicolle, Tanzania; 17. Sesaspis denticulata, Mexico, Nuevo Leon; 18. Sesaspis ashei, Mexico, Hidalgo; 19. Sesaspis doyeni, Mexico, Nuevo Leon. Space bar = 5mm.
Figure 3 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 3. Pseudothyretes sp. female habitus: A, Pseudothyretes carnea, holotype; B, Pseudothyretes kamitugensis (Kakamega Forest, Kenya); C, Pseudothyretes mirus sp. nov. (Kalamba, DRC); D, Pseudothyretes obscurus sp. nov. (Putu Range, Liberia); E, Pseudothyretes perpusilla, light form (Bunso Arboretum, Ghana); F, Pseudothyretes perpusilla, dark form (Kakum National Park, Ghana).
Figure 7 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 7. Pseudothyretes sp., distribution: A, Pseudothyretes carnea; B, Pseudothyretes erubescens; C, Pseudothyretes kamitugensis () and Pseudothyretes obscurus sp. nov. (); D, Pseudothyretes mirus sp. nov.; E, Pseudothyretes nigrita; F, Pseudothyretes perpusilla.
Figure 4 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 4. Pseudothyretes sp. male genitalia (A–G) and female genitalia (H–L): A, Pseudothyretes carnea, holotype of Pseudothyretes rubicundula; B, Pseudothyretes erubescens (Ruhuruini National Park, Kenya); C, Pseudothyretes kamitugensis (Kakamega Forest, Kenya); D, Pseudothyretes mirus sp. nov. (Mieri, Cameroon); E, Pseudothyretes nigrita (Multoanga, DRC); F, Pseudothyretes obscurus sp. nov., holotype; G, Pseudothyretes perpusilla, holotype; H, P. carnea; I, P. kamitugensis; J, P. mirus sp. nov.; K, P. obscurus sp. nov.; L, P. perpusilla.
Figure 5 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 5. Pseudothyretes sp., phallus: A, Pseudothyretes carnea; B, Pseudothyretes erubescens; C, Pseudothyretes mirus sp. nov.; D, Pseudothyretes kamitugensis; E, Pseudothyretes nigrita; F, Pseudothyretes obscurus sp. nov.; G, Pseudothyretes kamitugensis, basal portion of vesica with cornuti; H, Pseudothyretes perpusilla; I, Pseudothyretes obscurus sp. nov., basal portion of vesica without cornuti.
Figure 2 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 2. Pseudothyretes sp. male habitus: A, Pseudothyretes carnea (Luki Mayumbe, Nature Reserve, DRC); B, Pseudothyretes erubescens (Gatamayiu Forest, Kenya); C, Pseudothyretes kamitugensis (Gitega, Burundi); D, Pseudothyretes mirus sp. nov., holotype with labels; E, Pseudothyretes nigrita (Kallinzu Forest, Uganda); F, Pseudothyretes obscurus sp. nov., holotype with labels; G, Pseudothyretes perpusilla, dark form (Kakum National Park, Ghana); H, Pseudothyretes perpusilla, light form (Kakum National Park, Ghana); I, Pseudothyretes perpusilla, intermediate form (Nyungwe National Park, Rwanda).
Figure 6 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 6. Pseudothyretes sp., labial palpus: A, Pseudothyretes carnea, male; B, Pseudothyretes erubescens, male; C, Pseudothyretes kamitugensis, male; D, Pseudothyretes mirus sp. nov., male; E, Pseudothyretes nigrita, male; F, Pseudothyretes obscurus sp. nov., male; G, Pseudothyretes perpusilla, male; H, P. carnea, female; I, P. kamitugensis, female; J, P. mirus sp. nov., female; K, P. obscurus sp. nov., female; L, P. perpusilla, female.
Figure 1 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 1. Pattern and marking denotation of the forewing and the hindwing within the genus Pseudothyretes using Pseudothyretes obscurus sp. nov. as an example.
Figure 10 in Strong sexual dimorphism unraveled by DNA analysis - towards a better understanding of Pseudothyretes classification (Lepidoptera: Erebidae: Arctiinae)
Figure 10. Haplotype network of Pseudothyretes spp. constructed using the 61 mitochondrial cytochrome c oxidase subunit I (COI) sequences obtained. The size of the circles is proportional to the haplotype frequency (empty circles represent sizes for one, two, four, and eight individuals). The median vectors that represent hypothetical intermediates or un-sampled haplotypes are shown in black circles. Black dots on particular branches represent nucleotide substitutions between particular haplotypes. Analyses were conducted with the median-joining method in NETWORK 4.6.1.1.
Figure 38. Character 77 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 38. Character 77 and its postulated states. Syrinx, ventrolateral surface, cranial half, sulcus: A, absent – 77.0; B, present – 77.1. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Liosceles thoracicus (MZUSP, uncatalogued) and (B) Scelorchilus rubecula (MCP 2400) in lateral view. Scale bars = 2 mm.
Figure 40. Character 83 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 40. Character 83 and its postulated states. Syrinx and lower trachea, lateral surface, musculature, configuration: A, not forming an intrinsic muscle – 83.0; B, forming a single pair of intrinsic muscles – 83.1; C, forming two pairs of intrinsic muscles – 83.2. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Conopophaga lineata (MCP 2490), (B) Psilorhamphus guttatus (MCP 2699) and (C) Dendrocolaptes platyrostris (MCP 2602) in lateral view (A, B, left side; C, right side). Scale bars = 2 mm.
Figure 41. Character 85 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 41. Character 85 and its postulated states. Syrinx and lower trachea, dorsoventral intrinsic muscle: A, absent – 85.0; B, present – 85.1. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Myornis senilis (QCAZ 3724) and (B) Pteroptochos castaneus (AMNH 11694) in lateral view. Scale bars 2 mm.
Figure 37. Character 75 and its postulated states. A2–A6 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 37. Character 75 and its postulated states. A2–A6 elements, ventral surface, cartilaginous protuberance: A, absent – 75.0; B, present – 75.1. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Myornis senilis (QCAZ 3724) and (B) Merulaxis ater (MCP 2001) in lateral view. Scale bars = 2 mm.
Figure 35. Character 71 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 35. Character 71 and its postulated states. Processus vocalis, left one, size relative to the right processus: A, equal or subequal – 71.0; B, shorter – 71.1. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Liosceles thoracicus (MZUSP, uncatalogued) and (B) Scytalopus pachecoi (MCP 1040) in dorsal view. Scale bars = 2 mm.
Figure 33. Character 67 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 33. Character 67 and its postulated states. Processus vocalis, cranial portion, orientation: A, same as the main axis – 67.0; B, ventrally oriented – 67.1; C, ventrad and then craniad – 67.2. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Acropternis orthonyx (QCAZ 3723), (B) Pteroptochos castaneus (AMNH 11694), and (C) Eleoscytalopus indigoticus (MCP 2332) in lateral view. Scale bars = 2 mm.
Figure 34. Character 70 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 34. Character 70 and its postulated states. Processus vocalis, lateral surface, rectangular ossified plate: A, absent – 70.0; B, present – 70.1. Stippled areas are cartilaginous tissue, non-stippled areas are calcified structures. A1/B1 elements are indicated. Syringes of (A) Merulaxis ater (MCP 2001) and (B) Eleoscytalopus indigoticus (MCP 2332) in lateral view (A, left side; B, right side). Scale bars = 2 mm.
Figure 43 in Morphology-based phylogenetic analysis and classification of the family Rhinocryptidae (Aves: Passeriformes)
Figure 43. Strict consensus of 7428 equally most parsimonious trees derived from the cladistic analysis of the character state matrix in Appendix 2. On each branch, solid circles indicate exclusive synapomorphies and open circles homoplastic traits; numbers above circles represent characters as numbered in the character analysis section, with correspondig character-states appearing below circles. All characters are non-additive (except char. 74, whose states are ordered based on ontogenetic evidence) and unweighted. Bremer support indices are shown in parentheses above character numbers. Vertical bars on the right indicate family boundaries: A, Tyrannidae; B, Conopophagidae; C, Melanopareiidae; D, Grallariidae; E, Thamnophilidae; F, Formicariidae; G, Scleruridae; H, Furnariidae; I, Dendrocolaptidae; J, Rhinocryptidae.
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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)
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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.