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3,136 results for “Terrestrialization”
Image 1 in Ecology and population structure of a terrestrial mycoheterotrophic orchid, Aphyllorchis montana Rchb.f. (Orchidaceae) in Soppinabetta forests of the Western Ghats, India
Image 1. Morphology of Aphyllorchis montana. © P.A. Sinu A - a clump of the orchid; B - a single flower; C - terminal part of an inflorescence with mature capsules.
FIG. 3 in Checklist of the terrestrial and freshwater arthropods of French Polynesia (Chelicerata; Myriapoda; Crustacea; Hexapoda)
FIG. 3. — Number of described species from the French Polynesia fauna by five year period from Linnaeus to 2016.
Figure 4 in Deforestation affects biogeographical regionalization: a case study contrasting potential and extant distributions of Mexican terrestrial mammals
Figure 4. Map of Mexican provinces based on models of species' distributions in t1: baj, Baja California Chiapas; ist, Isthmus of Tehuantepec; mgu, Mexican Gulf; mpa, Mexican Pacific Coast; mpl, Mexican Sierra Madre Occidental; sms, Sierra Madre del Sur; son, Sonora; tam, Tamaulipas; vol, Transmexican
Figure 2 in Deforestation affects biogeographical regionalization: a case study contrasting potential and extant distributions of Mexican terrestrial mammals
Figure 2. Simplified consensus cladograms of (a) t1 (natural vegetation), and (b) t2 (land use and vegetation map based on the 2000 Inventario Forestal Nacional (SEMARNAT 2001).
Figure 1 in Deforestation affects biogeographical regionalization: a case study contrasting potential and extant distributions of Mexican terrestrial mammals
Figure 1. Ecological niche modelling projected as potential (based on the natural vegetation, t1) and extant (based on land use and natural vegetation, t2) distribution of two terrestrial mammals. Black areas depict part of distributions of (a) Chaetodipus spinatus in the Baja California Peninsula, and (b) Cabassous centralis in Chiapas.
Figure 2 in Terrestrial and communal nesting in Eupemphix nattereri (Anura, Leiuperidae): interactions with predators and pond structure
Figure 2. Several aspects of the predation of Eupemphix nattereri by the whistling heron (Syrigna sibilatrix). Above: a couple of herons, each one with an adult E. nattereri in the beak. Middle: a male heron with an amplectant pair of E. nattereri in his beak (the male frog did not release the female and both escaped predation). Below: a female heron washing an adult E. nattereri prior to consumption; note the foam released by the frog while being washed. Note also in the above and middle pictures, the communal foam nests at the pond's margin. More illustrations on several aspects of the natural history of the species are at the Amphibiaweb (http://elib.cs.berkeley.edu).
Figure 1 in Terrestrial and communal nesting in Eupemphix nattereri (Anura, Leiuperidae): interactions with predators and pond structure
Figure 1. Above: foam nest anchoring in Eupemphix nattereri. Note that the foam nest (, 40 h old) is on a platform excavated in the soil and far from the water level (thin arrow). There are also platforms (thick arrow) to the left that are unoccupied. Bar,9 cm. Below: a nearly 40-h-old collapsing foam nest. Note the wet mucous string through which the early tadpoles moved towards the water. Scale bar, 6 cm.
Figure 4 in Four new species of terrestrial earthworms belonging to the genus Amynthas (Megascolecidae: Oligochaeta) from Taiwan with discussion on speculative synonyms and species delimitation in oligochaete taxonomy
Figure 4. Amynthas cruxus sp. nov., holotype, 170 mm. (A) Ventral view of right male pore region (gp, genital papilla; ma, male aperture; md, male disc); (B) spermathecal pore; (C) dorsal view of right spermathecae (amp, ampulla; dv, diverticulum); (D) dorsal view of right prostate gland (pg) (pd, prostatic duct); (E) dorso-lateral view of right testis sacs (ts) and seminal vesicles (sv) of a 122-mm specimen (coll. no. 2000-81-Shen) (dl, dorsal lobe; vd, vas deferens; ve, vas efferens).
Figure 13 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 13. Microplana scharffi. The numbers of specimens of each colour category. (a) Using 23 colour categories: figure in parentheses indicates the eight-colour category that the colour is assigned to; (b) using eight colour categories (1–8). Data are ranked from highest to lowest totals.
Figure 11 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 11. Kitchen site: numbers of hatchlings seen each month for 2003 and 2004. (a) Microplana scharffi; (b) Microplana terrestris; (c) khaki Microplana species.
Figure 5 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 5. Microplana scharffi. (a) Monthly occurrence (corrected numbers) over 48 months from March 2001 to February 2005: 1 to 5 on the x-axis are years 2001 to 2005; (b) mean ¡ SE monthly numbers from January (J) to December (D) over 4 years.
Figure 4 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 4. Soil temperature (°C) at the kitchen site. (a) Monthly average from March 2001 to February 2005: 1 to 5 on the x-axis are years 2001 to 2005; (b) mean¡SE values from January (J) to December (D) over 4 years.
Figure 6 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 6. Microplana terrestris. (a) Monthly occurrence (corrected numbers) over 48 months from March 2001 to February 2005: 1 to 5 on the x-axis are years 2001 to 2005; (b) mean¡SE monthly numbers from January (J) to December (D) over 4 years.
Figure 3 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 3. Rainfall (mm). (a) Monthly totals from March 2001 to February 2005: 1 to 5 on the x-axis are years 2001 to 2005; (b) mean¡SE monthly values from January (J) to December (D) over 4 years.
Figure 1 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 1. The kitchen site. (a) General view, with one of the authors (J.M.); (b) close-up of traps.
Figure 12 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 12. Microplana terrestris. Kitchen site. The mean ¡ SE number of flatworms seen feeding per day per calendar month over 4 years.
Figure 10. Microplana terrestris and M in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 10. Microplana terrestris and M. scharffi. The time taken for cocoons to hatch after shedding or collection at different dates. Collected cocoons were within 1 day of being shed so that the maximum error in the time taken to hatch is 1 day.
Figure 7 in Abundance, reproduction, and feeding of three species of British terrestrial planarians: Observations over 4 years
Figure 7. Khaki Microplana species. (a) Monthly occurrence (corrected numbers) over 48 months from March 2001 to February 2005: 1 to 5 on the x-axis are years 2001 to 2005; (b) mean¡SE monthly numbers from January (J) to December (D) over 4 years.
Figure 3 in Four new species of terrestrial earthworms belonging to the genus Amynthas (Megascolecidae: Oligochaeta) from Taiwan with discussion on speculative synonyms and species delimitation in oligochaete taxonomy
Figure 3. Amynthas bilineatus sp. nov. (A) Ventral view of preclitellar region (gp, genital papilla) of holotype; (B) ventral view of male pore (mp) region of holotype; (C) ventral view of male pore region of a 113-mm specimen (coll. no. 2000-3-Shen); (D) dorsal view of preclitellar accessory glands (ag) of holotype; (E) dorsal view of right sperm sacs (ss) and seminal vesicles (sv) of holotype (dl, dorsal lobe); (F) dorsal view of right prostate gland of holotype; (G) dorsal view of right prostate gland and accessory gland of a 113-mm specimen (coll. no. 2000-3- Shen); (H) dorsal view of right caecum of holotype.
Figure 2 in Four new species of terrestrial earthworms belonging to the genus Amynthas (Megascolecidae: Oligochaeta) from Taiwan with discussion on speculative synonyms and species delimitation in oligochaete taxonomy
Figure 2. Amynthas chilanensis sp. nov. (A) Ventral view of right male pore region (gp, genital papilla); (B) dorsal view of spermatheca in VI of holotype (amp, ampulla; dv, diverticulum); (C) dorso-lateral view of left testis sacs (ts) and seminal vesicles (sv) of a 133-mm specimen (coll. no. 2002-25-Shen) (dl, dorsal lobe; vd, vas deferens; ve, vas efferens); (D) dorsal view of right prostatic duct (pd) of a 133-mm specimen (coll. no. 2002-25-Shen).
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)
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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.