Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
53
datasets available to search
ShareScore release 0.9.0
Dataset results
53 results for “morphological polymorphism”
FIGURES 8A–E in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 8A–E. Leiobunum hiraiwai, penis, ventral (left) and lateral view (right). Races: A. Tsushima race. B–E. KyushuHiroshima race. Localities: A. Mt Ariake, Is. Tsushima (1). B. Mt Hikosan (2). C. Yoshiwamura (4). D. Sandankyô (5). E. Mt Azuma (7). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURES 3A–I in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 3A–I. Leiobunum hiraiwai (Sato & Suzuki), palp of male, mesal view. Races: A. KyushuHiroshima race. B–C. Kinki race. D. Kamikôchi race. E. Fuji race. F. Utsukushigahara race. G–H. Western Kantô race. I. Izu race. Localities: A. Mt Hikosan (2). B. Mt Bunagatake (10). C. Tsuetsukitôge (22). D. Kamikôchi (26). E. Lake Kawaguchi (31). F. Mt Utsukushigahara (42). G. Kurumasakatôge (51). H. Mt BushûMitake (57). I. Mt Amagi (40). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURES 13A–G in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 13A–G. Leiobunum hiraiwai, penis, ventral (left) and lateral view (right). Races: A–C. Izu race. D–G. Utsukushigahara race. Localities: A. Mt Takanosu (36). B. Mt Amagi (40). C. Amagitôge Pass (41). D–E. Umegashima Spa (49). F. Mt Nôtori to Mt Ainodake (48). G. Mt Kitadake, Hirogawara (47). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURE 7 in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURE 7. Distribution and chromosome numbers of eight races of Leiobunum hiraiwai. Localities: 1. Mt Ariake, Is. Tsushima. 2. Mt Hikosan. 3. Is. Miyajima. 4. Yoshiwamura. 5. Sandankyô. 6. Mt Shiraki. 7. Mt Azuma. 8. Mt Hyônosen. 9. Mt Hieizan. 10. Mt Bunagatake. 11. Mt Ibuki. 12. Mt Gozaisho. 13. Mt Hakusan. 14. Mt Hoko. 15. Kisokomakôgen. 16. Kôzenji, Kisofukushima. 17. Mt Ontake. 18. Narai. 19. Mt Kokuzô. 20. Kôzenji, Komagane. 21. InaTakatô. 22. Tsuetsukitôge Pass. 23. Mt Kirigamine, Ikenokurumi. 24. Sakaitôge Pass. 25. Suzuran, Mt Norikura. 26–28. Kamikôchi (26 Konashidaira, 27 Myôjin, 28 Yokoo Hütte). 29. Ariake Spa. 30. Nakabusa Spa. 31. Lake Kawaguchi. 32. Lake Yamanaka. 33. FujiYoshida. 34. Mt Kintoki, Hakone. 35. Yabitsutôge Pass. 36. Mt Takanosu, Hakone. 37. Lake Ashinoko, Hakone. 38. Mt Yahazu. 39. Mt Tôgasa. 40. Mt Amagi. 41. Amagitôge Pass. 42. Mt Utsukushigahara. 43. Tobiratôge Pass. 44–45. Mt Kirigamine, Kowashimizu, populations at 1630–1660 m. 46. Yashajintôge Pass. 47. Hirogawara, Mt Kitadake. 48. Mt Nôtori to Mt Ainodake. 49. Umegashima Spa. 50. Togakushikôgen. 51. Kurumasakatôge Pass. 52. Mt Haruna, Haruna Shrine. 53. Mt Hiuchigatake. 54. Yumoto Spa, Nikko. 55. Daibosatsutôge Pass. 56. Nippara, Okutama. 57. Mt BushûMitake. Dotted line indicates distribution areas of cool temperate broadleaved forest (mainly beech).
FIGURE 16 in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURE 16. Summary of geographic variation in penis morphology of Leiobunum hiraiwai. Localities: 1. Mt Ariake, Is. Tsushima. 2. Mt Hiko. 3. Mt Azuma. 4. Mt Bunagadake. 5. Mt Hakusan. 6. Kôzenji Temple, Komagane. 7. Kamikôchi. 8. Lake Kawaguchi. 9. Mt Amagi, Izu. 10. Umegashima Spa. 11. Kowashimizu, Mt Kirigamine (Kowashimizu population). 12. Mt Bushû Mitake, Tokyo. 13. Yumoto Spa, Nikko. Populations circumscribed by the same enclosure represents a race. Arrow head denotes barbs on the alate part of the penis.
FIGURES 15A–G in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 15A–G. Leiobunum hiraiwai, penis, ventral (left) and lateral view (right), Western Kantô race. Localities: A. TogakushiChûsha (50). B. Kurumasaka Pass (51). C. Mt Haruna (52). D. Mt Hiuchi (53). E. Yumoto Spa (54). F. Nippara (56). G. Mt BushuMitake (57). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURES 12A–F in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 12A–F. Leiobunum hiraiwai, penis, ventral (left) and lateral view (right). Races: A–D. Kamikôchi race. E–F. Fuji race. Localities: A. Sakaitôge Pass (24). B. Suzuran (25). C. Kamikôchi (26). D. Ariake Spa (29). E. Lake Kawaguchi (31). F. Tanzawa (35). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURES 11A–F in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 11A–F. Leiobunum hiraiwai, penis, ventral (left) and tip of penis, lateral view (right). Races: A–D. Kinki race. E–F. Intermediate populations. Localities: A. KomaganeKôzenji (20). B. Takatô (21). C. Tsuetsukitôge Pass (22). D. Ikenokurumi (23). E. Todai (59). F. Mt Nyûgasa (58). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURES 2A–Q in Geographic variation of chromosomes and somatic morphology in the Japanese polymorphic species Leiobunum hiraiwai (Arachnida: Opiliones: Sclerosomatidae)
FIGURES 2A–Q. Leiobunum hiraiwai (Sato & Suzuki). Labrum of male, lateral (above) and ventral (below) views. Races: A. Tsushima race. B–D. KyushuHiroshima race. E–G. Kinki race. H–I. Kamikôchi race. J–K. Fuji race. L–M. Izu race. N–O. Utsukushigahara race. P–Q. Western Kantô race. Localities: A. Mt Ariake (1). B. Mt Hiko (2). C. Yoshiwamura (4). D. Sandankyô (5). E. Mt Hyônosen (8). F. Mt Bunagatake (10). G. Tsuetsukitôge (22). H. Suzuran (25). I. Kamikôchi (26). J. Lake Kawaguchi (31). K. Tanzawa (35). L. Mt Takanosu (36). M. Mt Amagi (40). N. Mt Utsukushigahara (42). O. Mt Nôtori to Mt Ainodake (48). P. Kurumasakatôge Pass (51). Q. Mt BushûMitake (57). Numerals in parentheses denote code numbers of localities given in Fig. 7.
FIGURE 12 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 12. Dorsal (A) and ventral (B) views of body of the lectotype of Rabdosoma torquatum (RMNH 114).
FIGURE 11 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 11. Original plate of the holotype of Rabdosoma varium (RMNH 114), modified from Jan and Sordelli (1865).
FIGURE 10. Bivariate plots with 95 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 10. Bivariate plots with 95% confidence regions for the first two axes derived from scores of PCA analyses for male (A–B) and female (C–D) of Atractus torquatus complex.
FIGURE 13 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 13. Geographical distribution of the Atractus torquatus. Black triangle corresponds to doubtful and circles to literature records. Literature records were taken from Dixon & Soini (1977, 1986), Hoogmoed (1980) and Abuys (1984).
FIGURE 8 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 8. Pattern of the geographic variation for polymorphic qualitative character along of the Atractus torquatus complex. The number of supralabials = 1, number of infralabials = 2 and number of maxillary teeth = 3. The colour represents the frequency for each state of characters: blue correspond to six; green correspond to seven and red correspond to eight. The frequencies of the character states are from our own sample plus from the Dixon & Soini (1986). The total sample comprises 81 individuals and the traits were counted in both sides for each specimen.
FIGURE 9 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 9. Morphological variation in the hemipenial morphology along the Atractus torquatus populations. Sulcate (left) and asulcate (right) sides of the organ of FMT 1286 from municipality of Manaus, state of Amazonas, Brazil (A–B); INPA 14670 from Lago Ayapuá, Rio Purus, municipality of Beruri, state of Amazonas, Brazil (C–D); FMT 1201 from municipality of Manaus, state of Amazonas, Brazil (e–f); and MPEG 23684 from Serra do Acari, municipality of Oriximiná, state of Pará, Brazil (g–h). Scale = 5 mm.
FIGURE 7 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 7. Dorsal (left) and ventral (right) views of preserved specimens of Atractus torquatum from Parque Nacional de Amacayacu, municipality of Leticia, department of Amazonas, Colombia (A–B) and km 38 of the El Dorado–Santa Elena de Uairén road, state of Bolívar, Venezuela, photo by D. Calcaño (C).
FIGURE 6 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 6. Lateral view of head (A) and dorsal (B) and ventral (C) views of body of the holotype of Atractus davidhardi (ICN 10096) from Muniyamena, municipality of Leticia, department of Amazonas, Colombia.
FIGURE 5 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 5. General view in life of Atractus torquatus from Reserva Ducke, municipality of Manaus, state of Amazonas, Brazil, photo by M. Martins (a); Moiobamba, Rio Purus, Arumã district, municipality of Beruri, state of Amazonas, Brazil, photo by M. Senna (b); Balbina Hydroelectric Plant, municipality of Presidente Figueiredo, state of Amazonas, Brazil, photo by M. Martins (c); Parque Nacional do Pico da Neblina, municipality of São Grabriel da Cachoeira, state of Amazonas, Brazil, photo by V. Carvalho (d); Rio Madeira, Abunã district, Porto Velho, state of Rondônia, Brazil, photo by M. Senna (e); Moiobamba, Rio Purus, Arumã district, municipality of Beruri, state of Amazonas, Brazil, photo by M. Senna (g); Río Uey, middle basin of Río Cuyuní, state of Bolívar, Venezuela, photo by C. Barrio-Amorós (g–h).
FIGURE 3 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 3. Dorsal (A) and ventral (B) views of body of the holotype of Atractus janethae (ICN 10104) from La Chorera, municipality of Puerto Córdoba, department of Amazonas, Colombia.
FIGURE 4 in Morphological variation, polymorphism, and Taxonomy of the Atractus torquatus complex (Serpentes: Dipsadidae)
FIGURE 4. Variation of the blotch condition on the nuchal region to the specimens of the Atractus torquatus from Balbina Hydroelectric Plant, municipality of Presidente Figueredo (FMT 1358) (A), municipality of Manaus (FMT 338) (B) and municipality of São Miguel da Cachoeira (INPA 15760) (C). All specimens come from localities in the state of Amazonas in Brazil and they are part of Guiana Shield populations.
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.