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512 results for “Activity pattern”
Figure 2 in Living in a cold tropical mountain: do the microhabitat use and activity pattern change with elevation in the high-Andean lizard Stenocercus trachycephalus (Squamata: Tropiduridae)?
Figure 2. Frequency of individuals of Stenocercus trachycephalus on each microhabitat by locality.
Figure S3 in Living in a cold tropical mountain: do the microhabitat use and activity pattern change with elevation in the high-Andean lizard Stenocercus trachycephalus (Squamata: Tropiduridae)?
Figure S3. Environmental temperature fluctuation throughout the day in Guanentá.
Figure 2 in Occurrence and temporal activity pattern of Burmese Red Serow (Capricornis rubidus, Bovidae) in Baraiyadhala National Park, Bangladesh: insights from a camera trapping study
Figure 2: Camera trapped photo of Red Serow from the study area. The top image depicts an adult and a juvenile, and the bottom image is of an adult male.
Figure 1 in Occurrence and temporal activity pattern of Burmese Red Serow (Capricornis rubidus, Bovidae) in Baraiyadhala National Park, Bangladesh: insights from a camera trapping study
Figure 1: Study area and camera trap sites, indicating camera trap sites with Burmese Red Serow detection and sites where serows were not detected.
Figure 1 in Notes on the ecology, activity patterns and behavior of the kinkajou (Potos flavus)
Figure 1: Localities where we studied kinkajous in Ecuador and Colombia. Tiputiní Biodiversity Station (TBS) in the Ecuadorian Amazon (red circle), San Juan del Carare in the Magdalena River valley in Colombia (blue circle) and Pijao in the Central Andean Mountains of Colombia (yellow circle).
Figure 3 in Notes on the ecology, activity patterns and behavior of the kinkajou (Potos flavus)
Figure 3: (A) Activity budget for the population of kinkajous from Pijao. (B) Activity budget for the population of kinkajous from San Juan.
Figure 2 in Notes on the ecology, activity patterns and behavior of the kinkajou (Potos flavus)
Figure 2: Activity patterns of kinkajous from 95 independent records of camera traps at Tiputini Biodiversity Station (TBS). The height of the bars represents the frequency of the registers throughout the day.
Figure 3 in Occurrence and temporal activity pattern of Burmese Red Serow (Capricornis rubidus, Bovidae) in Baraiyadhala National Park, Bangladesh: insights from a camera trapping study
Figure 3: Temporal activity pattern and overlap estimates for focal species Burmese Red Serow and sympatric Barking Deer and Wild Boar.
Figure 1 in Activity patterns and habitat use of pudu deer (Pudu puda) in a mountain forest of south-central Chile
Figure 1. (a) Activity time of the pudu deer in Caramávida, Nahuelbuta Mountain Range, southcentral Chile, throughout the entire period of the study. Bold lines indicate the proportions of active behaviour for each hour. (b) Daily activity patterns across seasons.
Figure 2 in Activity patterns and habitat use of pudu deer (Pudu puda) in a mountain forest of south-central Chile
Figure 2. Percentage representation of activity patterns of pudu in Caramávida, Nahuelbuta Mountain Range, according to light availability periods (see text for criteria) during the seasons surveyed.
FIG. 6 in Foraging ecology of the giant Amazonian ant Dinoponera gigantea (Hymenoptera, Formicidae, Ponerinae): activity schedule, diet and spatial foraging patterns
FIG. 6. Ritualized territorial contest between Dinoponera gigantea foragers from diVerent colonies at the border of their foraging areas. (A) Ants lock their mandibles together, vigorously antennate each other's head, and constantly kick one another with the Žrst pair of legs. (B) As the contest escalates the dominant ant (right) directs the tip of the gaster against the opponent's body. The subordinate ant eventually walks away as she breaks free.
FIG. 2 in Foraging ecology of the giant Amazonian ant Dinoponera gigantea (Hymenoptera, Formicidae, Ponerinae): activity schedule, diet and spatial foraging patterns
FIG. 2. Frequency distribution of trip duration relative to diVerent activities performed by workers of Dinoponera gigantea in a Brazilian rainforest site. Although foraging ants may be away from the nest for up to 3 h, successful foragers usually return after 30–60 min of searching. Data are based on continuous 12-h observations at colony Nos 9 and 10, from 6.00 a.m. to 6.00 p.m. Two successful foragers from each colony are not included in the graphs because the duration of their foraging trips could not be recorded.
Motion‐triggered laser photography shows burrowing crayfish activity patterns
<p><span>1. Burrowing crayfish represent </span>15% of total crayfish species and 32% of imperiled species. Few life history studies exist for these species and more information is needed regarding their ecology, population status, distribution, and biogeography for effective conservation efforts. Challenges to gaining such information include sampling difficulty and small sample sizes. <span>Collection efforts may be more efficient if activity patterns can be identified for species of interest. The goal of our study was to assess specific environmental indicators of burrowing crayfish activity patterns.</span></p> <p><span>2. We evaluated activity patterns of two primary burrowing crayfish species, <i>Lacunicambarus</i> <i>erythrodactylus</i> Simon & Morris, 2014 and <i>Procambarus</i> <i>holifieldi</i> Schuster, Taylor & Adams, 2015 using laser-triggered digital photography</span> for one-year periods in the Bogue Chitto Creek floodplain, Dallas County, Alabama, U.S.A<span>. We predicted that activity would be related to time of day, season, groundwater depth, and precipitation.</span></p> <p>3. Activity by<i> <span>L.</span></i><span> <i>erythrodactylus</i> </span>covaried significantly with time of day, daylength, groundwater temperature, and relative air temperature, while activity by <i>P</i>. <i>holifieldi</i> covaried with time of day, season, groundwater temperature, and relative air temperature. Additionally, burrow chimney construction by <i>P</i>. <i>holifieldi</i> covaried with daylength, groundwater temperature, relative air temperature, and precipitation.</p> <p>4. Out-of-burrow activity for both species was greatest at night and during periods of relatively cool groundwater temperatures and relatively warm air temperatures, which may be linked to thermal regulation behavior. The probability of chimney construction by <i>P</i>. <i>holifieldi</i> increased with increasing daylength and decreasing precipitation and was highest during periods of cool groundwater temperatures and air temperatures. A distinct lull in activity from October through March for both species was likely the result of reproductive behaviors such as period of egg production and incubation within burrows.</p> <p>5. Identifying peak out-of-burrow activity periods for burrowing crayfish will allow collection efforts to be focused on periods of greatest activity, thereby facilitating the study of burrowing crayfish behavior.</p>
FIGURE 1 in Faunal study of velvet ants (Hymenoptera: Mutillidae) and their activity patterns and habitat preference at Ash Meadows National Wildlife Refuge, Nye County, Nevada, USA
FIGURE 1. Species accumulation curve (dotted-line) and the estimated species accumulation via the first order jackknife estimator (solid-line), with standard deviation (gray area), for velvet ants of Ash Meadows National Wildlife Refuge.
FIGURES 2–11. Male genitalia. 2 in Faunal study of velvet ants (Hymenoptera: Mutillidae) and their activity patterns and habitat preference at Ash Meadows National Wildlife Refuge, Nye County, Nevada, USA
FIGURES 2–11. Male genitalia. 2. Odontophotopsis acmaea: dorsal view (left) and internal view (right); 3. O. armata: dorsal view and lateral view of cuspis (inset); 4. O. bellona: dorsal view; 5. O. mamata: dorsal view and lateral view of cuspis (inset); 6. O. microdonta: dorsal view (right) and ventral view (left); 7. O. piute: dorsal view; 8. O. serca: dorsal view and lateral view of cuspis (inset); 9. Sphaeropthalma nana: internal view; 10. S. orestes: dorsal view (left) and ventral view (right); and 11. S. parkeri: dorsal view (left) and ventral view (right).
Locomotor activity pattern of the olive fruit fly
<p>LAM_data_repository: Locomotor activity data of olive fruit flies (<em>Bactrocera oleae</em>) <em> </em>recorded with the LAM25H device. Both sexes, virgin and mated, and wild and artificially reared flies were monitored.</p> <p>data_repository: Raw LAM data were analyzed in MATLAB with SCAMP and sleep (inactivity) parameters of olive fruit flies were calculated. Number of sleep episodes and their mean duration during the light and the dark period are given.</p>
Orthogonal light-activated DNA for patterned biocomputing within synthetic cells (Source Data)
<p>Source data for the published version of "Orthogonal light-activated DNA for patterned biocomputing within synthetic cells": Preprint (https://chemrxiv.org/engage/chemrxiv/article-details/63b55bb6ff4651ef52429534)</p>
FIG. 3. Video stills showing B in CCTV enables the discovery of new barbastelle (Barbastella barbastellus) vocalisations and activity patterns near a roost
FIG. 3. Video stills showing B. barbastellus activity near the roost, the entrance of which is in the bottom third of the images. The bats are filmed with infrared light. A) A single bat investigates the roost tree, filmed from the side of the roost tree. This bat was moving slowly, and the image is sharp; B) Four swarming bats, filmed facing the roost entrance. As the bats move at speed when swarming, they appear blurred in a single video frame
FIG. 2 in CCTV enables the discovery of new barbastelle (Barbastella barbastellus) vocalisations and activity patterns near a roost
FIG. 2. Histogram showing the number of spectrograms associated with B. barbastellus swarming around a roost, produced for each time interval from June to September 2016
Active Brownian particles in external force fields: field-theoretical models, generalized barometric law, and programmable density patterns
<p>Supplementary data for the following manuscript: Jens Bickmann, Stephan Bröker, Michael te Vrugt, Raphael Wittkowski, "Active Brownian particles in external force fields: field-theoretical models, generalized barometric law, and programmable density patterns".</p>
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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.