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17 results for “Anthus”
Nest survival data of Anthus hellmayri
<p><strong>File 1: a_hellmayri_survival.csv</strong></p> <p>Nest survival data of <em>Anthus hellmayri </em>collected during 2017-2018, 2018-2019, and 2019-2020 breeding seasons in Punta Indio, Buenos Aires, Argentina. Used to estimate daily nest survival rates and include covariates in the models.</p> <p><strong>File 2: Readme_a_hellmayri_survival.docx</strong></p> <p>File conainting information about the columns and data</p> <p><strong>File 3: script_ah.R</strong></p> <p>Example code to be used in R software. This code leads to the main result of the paper.</p>
Fig. 1 in Winter Diet Of The Common Genet, Genetta Genetta (Carnivora, Viverridae), And The African Golden Wolf, Canis Anthus (Carnivora, Canidae), In Altitudinal Locality Of The Edough Forest (Northeastern Algeria)
Fig. 1. Geographical situation of the study locality. (with indication of the three transects: 1, 2 and 3). Source: https://journals.openedition.org/physio-geo/docannexe/image/4217/img-1.jpg. Modified by Boukheroufa (present work).
Fig. 3 in Winter Diet Of The Common Genet, Genetta Genetta (Carnivora, Viverridae), And The African Golden Wolf, Canis Anthus (Carnivora, Canidae), In Altitudinal Locality Of The Edough Forest (Northeastern Algeria)
Fig. 3. Occurrence frequency of different food categories for both species.
Fig. 4 in Winter Diet Of The Common Genet, Genetta Genetta (Carnivora, Viverridae), And The African Golden Wolf, Canis Anthus (Carnivora, Canidae), In Altitudinal Locality Of The Edough Forest (Northeastern Algeria)
Fig. 4. Diets of the African golden wolf (left) and the common genet (right) in the study area.
Fig. 2 in Winter Diet Of The Common Genet, Genetta Genetta (Carnivora, Viverridae), And The African Golden Wolf, Canis Anthus (Carnivora, Canidae), In Altitudinal Locality Of The Edough Forest (Northeastern Algeria)
Fig. 2. All food categories consumed by the two predators (©: M. Boukheroufa).
Figure 6. Burned area per month detected between 1985 and 2020 in Breeding biology of the Ochre-breasted pipit (Anthus nattereri), with notes on its conservation in the Upper Rio Grande Grasslands, south-eastern Brazil
Figure 6. Burned area per month detected between 1985 and 2020 in São João del-Rei, south-eastern Brazil. Data from the MapBiomas (2022). The dotted line indicates the average across months.
Figure 5 in Breeding biology of the Ochre-breasted pipit (Anthus nattereri), with notes on its conservation in the Upper Rio Grande Grasslands, south-eastern Brazil
Figure 5. Arrangement diagram of the Ochre-breasted pipit nesting sites and unused sites in a grassland habitat in São João del-Rei, south-eastern Brazil. The first two components of a principal component analysis are shown: square = nesting sites located in small patches of grassland vegetation with more than 2 years of post-burn regeneration; triangle = nesting sites located in vegetation with> 1 year <2 years of regeneration; and cross = unused sites. PC = principal component. Attribute legend: liveveg = covered with living vegetation; deadveg = covered with dead vegetation; bareground = exposed soil; dens10 = vegetation density between 0 and 10 cm in height; dens = average vegetation density; height = height below which 90% of the vegetation density is located (cm).
Figure 4. Ochre-breasted pipit nestlings with about 6 in Breeding biology of the Ochre-breasted pipit (Anthus nattereri), with notes on its conservation in the Upper Rio Grande Grasslands, south-eastern Brazil
Figure 4. Ochre-breasted pipit nestlings with about 6 (a) and 11 (b) days of life, as photographed in nest #3. Nest found in a grassland in São João del-Rei, south-eastern Brazil, in October 2016. Photos: VTL.
Figure 3 in Breeding biology of the Ochre-breasted pipit (Anthus nattereri), with notes on its conservation in the Upper Rio Grande Grasslands, south-eastern Brazil
Figure 3. Variation in the shape and colour of eggs of the Ochre-breasted pipit. Nests found in a grassland habitat of São João del-Rei, south-eastern Brazil, between October and November 2016: (a) one of the eggs of nest #2; (b) the two-egg clutch of nest #4; (c) the three-egg clutch of nest #3, showing a more round-shaped egg on the left. The white bar is 10 mm in scale. Photos: VTL.
Figure 2 in Breeding biology of the Ochre-breasted pipit (Anthus nattereri), with notes on its conservation in the Upper Rio Grande Grasslands, south-eastern Brazil
Figure 2. Nest #4 illustrating the two poorly defined layers of the structural zone of the Ochrebreasted pipit nests found in São João del-Rei, south-eastern Brazil, between October and November 2016: (a) outermost layer composed of small basal meristems of tussock grasses and/or by (b) thin grass stems with their leaves still attached. This outermost layer envelops the innermost layer (c), which is built with narrow filiform grass leaves tightly intertwined. Photos: VTL.
FIGURE 6. Principal component analysis of the nine call measurements for various species selections. A: all small Anthus species except A. cervinus; B: two types of calls of A. r. rubescens and A. [r.] japonicus. C: only common-type calls of A. r. rubescens and A. [r.] japonicus; D: A. petrosus and different A. spinoletta subspecies; E: A. petrosus and A. s. spinoletta. in --Molecular--and--acoustic--evidence--support--the--species--status--of--Anthus rubescens rubescens and--Anthus [rubescens] japonicus--(Passeriformes:--Motacillidae)
FIGURE 6. Principal component analysis of the nine call measurements for various species selections. A: all small Anthus species except A. cervinus; B: two types of calls of A. r. rubescens and A. [r.] japonicus. C: only common-type calls of A. r. rubescens and A. [r.] japonicus; D: A. petrosus and different A. spinoletta subspecies; E: A. petrosus and A. s. spinoletta.
FIGURE5. Sonograms of various calls from Anthus [rubescens] japonicus: A) M-shaped calls (xeno-canto.org: XC267502); B) and C) common calls (xeno-canto.org: XC437043 & The Sound Approach: 02.050. MR. 01938.02) and A. r. rubescens: D and E common calls (xeno-canto.org: XC598639, XC599314). in --Molecular--and--acoustic--evidence--support--the--species--status--of--Anthus rubescens rubescens and--Anthus [rubescens] japonicus--(Passeriformes:--Motacillidae)
FIGURE5. Sonograms of various calls from Anthus [rubescens] japonicus: A) M-shaped calls (xeno-canto.org: XC267502); B) and C) common calls (xeno-canto.org: XC437043 & The Sound Approach: 02.050. MR. 01938.02) and A. r. rubescens: D and E common calls (xeno-canto.org: XC598639, XC599314).
FIGURE4. Maximum-likelihood tree inferred from 694 bp of COI using a HKY+G substitution model implemented in MEGAX (Kumar et al. 2018). Bootstrap values are indicated on the nodes. in --Molecular--and--acoustic--evidence--support--the--species--status--of--Anthus rubescens rubescens and--Anthus [rubescens] japonicus--(Passeriformes:--Motacillidae)
FIGURE4. Maximum-likelihood tree inferred from 694 bp of COI using a HKY+G substitution model implemented in MEGAX (Kumar et al. 2018). Bootstrap values are indicated on the nodes.
FIGURE 2. Call measurements: 1) number of frequency peaks; 2) maximum frequency; 3) rising or falling call; 4) start frequency; 5) amplitude of the largest modulation; 6) duration up to the largest modulation; 7) minimum frequency; 8) end frequency; 9) call duration. in --Molecular--and--acoustic--evidence--support--the--species--status--of--Anthus rubescens rubescens and--Anthus [rubescens] japonicus--(Passeriformes:--Motacillidae)
FIGURE 2. Call measurements: 1) number of frequency peaks; 2) maximum frequency; 3) rising or falling call; 4) start frequency; 5) amplitude of the largest modulation; 6) duration up to the largest modulation; 7) minimum frequency; 8) end frequency; 9) call duration.
FIGURE3. Maximum-likelihood tree inferred from 998 bp of CR using a HKY+G substitution model implemented in MEGAX (Kumar et al. 2018). Bootstrap values are indicated on the nodes. in --Molecular--and--acoustic--evidence--support--the--species--status--of--Anthus rubescens rubescens and--Anthus [rubescens] japonicus--(Passeriformes:--Motacillidae)
FIGURE3. Maximum-likelihood tree inferred from 998 bp of CR using a HKY+G substitution model implemented in MEGAX (Kumar et al. 2018). Bootstrap values are indicated on the nodes.
FIGURE1. Breeding, migrating and wintering distributions of Palearctic Anthus [rubescens] japonicus and Nearctic Anthus rubescens rubescens/alticola subspecies groups (from BirdLife International 2022; illustration @Andrew Birch). Circles indicate origins of sequenced individuals and triangles indicate origins of analysed recordings of calls. Localities outside of the usual range of the species complex (e.g., Ireland, Oman and Israel) are not figured here. in --Molecular--and--acoustic--evidence--support--the--species--status--of--Anthus rubescens rubescens and--Anthus [rubescens] japonicus--(Passeriformes:--Motacillidae)
FIGURE1. Breeding, migrating and wintering distributions of Palearctic Anthus [rubescens] japonicus and Nearctic Anthus rubescens rubescens/alticola subspecies groups (from BirdLife International 2022; illustration @Andrew Birch). Circles indicate origins of sequenced individuals and triangles indicate origins of analysed recordings of calls. Localities outside of the usual range of the species complex (e.g., Ireland, Oman and Israel) are not figured here.
Figure 1 in Breeding biology of the Ochre-breasted pipit (Anthus nattereri), with notes on its conservation in the Upper Rio Grande Grasslands, south-eastern Brazil
Figure 1. Nests #2 (a) and #3 (b) of the Ochre-breasted pipit found in October and November 2016, respectively, in a grassland habitat in São João del-Rei, south-eastern Brazil. Note the likely female incubating the eggs in nest #3 (c). Photos: VTL.
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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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.