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13,117 results for “Maps”
Figure 16 in The prickly blade mapped: establishing homologies and a chaetotaxy for macrosetae of penis ventral plate in Gonyleptoidea (Arachnida, Opiliones, Laniatores)
Figure 16. Cladogram depicting proposed phylogenetic relationships for Gonyleptoidea. This is the strict consensus of the 4th analysis (under equal weights). Colour code for branches represent the families and are the same as in Figure 15. Three relevant clades not recovered under equal weights are Gonyleptoidea, Me/Co and GG (see Discussion for details).
Figure 11 in The prickly blade mapped: establishing homologies and a chaetotaxy for macrosetae of penis ventral plate in Gonyleptoidea (Arachnida, Opiliones, Laniatores)
Figure 11. Distal part of penis, dorsal, lateral and ventral views, showing patterns of macrosetae in Cranaidae 2: A–C, Phareicranaus circumlineatus; D–F, Zamora granulata.
Map 1 in Braconidae (Hymenoptera) in the collection of the Institute of Zoology, NAS of Azerbaijan Republic Part IV. Subfamilies Orgilinae, Agathidinae, Ichneutinae, Cheloninae (Hymenoptera)
Map 1: Records of Bracconidae in Azerbaijan, places (open circles) and localities (filled triangles).
Map 3 in A revision of Nazeris. VI. On the fauna of East Yunnan, China (Coleoptera: Staphylinidae: Paederinae)
Map 3: Distribution of Nazeris species in eastern Yunnan (N. zhangi lineage: black symbols): N. clavilobatus sp. n. (black circle); N. conicus sp. n. (black square); N. bulbosus sp. n. (black diamond); N. zhangi WATANABE & XIAO (black triangle), N. fibulatus sp. n. (white circle); N. lamellatus sp. n. (white diamond); N. semifissus sp. n. (white triangle).
Map 2 in A revision of Nazeris. VI. On the fauna of East Yunnan, China (Coleoptera: Staphylinidae: Paederinae)
Map 2: Distribution of the named species of Nazeris brevilobatus group in eastern Yunnan: N. brevilobatus sp. n. (white circle); N. virilis sp. n. (black circles); N. claviger sp. n. (black diamond); N. constrictus sp. n. (white triangles), N. discissus sp. n. (black square).
Map 1 in A revision of Nazeris. VI. On the fauna of East Yunnan, China (Coleoptera: Staphylinidae: Paederinae)
Map 1: Distribution of previously described (black circles) and newly described species (white circles) of Nazeris in Yunnan (white star: Kunming).
Mapping differences in mammalian distributions and diversity using environmental DNA from rivers
<p>Finding more efficient ways to monitor, and estimate the diversity of, mammalian communities is a major step towards their management and conservation. Environmental DNA (eDNA) from river water has recently been shown to be a viable method for biomonitoring mammalian communities. Yet, most of the studies to date have focused on the potential for eDNA to detect individual species, with little focus on describing patterns of community diversity and structure. In this study, we focus on the sampling effort required to reliably map the diversity and distribution of semi-aquatic and terrestrial mammals and allow inferences of community structure surrounding rivers.<br> <br> Location: Southeastern England<br> <br> Methods: We used eDNA metabarcoding on water samples collected along two rivers and a beaver enclosure over two days, targeting terrestrial and semi-aquatic mammals. Mammalian community diversity and composition was assessed based on species richness and β-diversity. Differences between river communities were calculated and partitioned into nestedness and turnover, and the sampling effort required to rapidly detect semi-aquatic and terrestrial species was evaluated based on species accumulation curves and occupancy modelling.<br> <br> Results: eDNA metabarcoding efficiently detected 25 wild mammal species from five orders in two days of sampling, representing the vast majority (82%) of the species expected in the area. The required sampling effort varied between orders, with common species (generally rodents, deer and lagomorph species) more readily detected, with carnivores detected less frequently. Measures of species richness differed between rivers (both overall and within each mammalian order) and patterns of β-diversity revealed the importance of species replacement in sites within each river, against a pattern of species loss between the two rivers.<br> <br> Main conclusions: eDNA metabarcoding demonstrated its capability to rapidly detect mammal species, allowing inferences of community composition that will better inform future sampling strategies for this Class. Importantly, this study highlights the potential use of eDNA data for investigating mammalian community dynamics over different spatial scales.</p>
FIGURE. Map of Mexico, indicating the number of families, genera, and species of Mexican Vascular Epiphytes by state. in Mexican Vascular Epiphytes: Richness and Distribution
FIGURE. Map of Mexico, indicating the number of families, genera, and species of Mexican Vascular Epiphytes by state.
FIGURE. Geographic distribution map. A. Chamaecrista rigidifolia. B. Chamaecista tocantinensis. C. Chamaecrista trichortyrsus. D in Taxonomic review of Chamaecrista sect. Absus subsect. Absus ser. Paniculatae (Benth.) H.S. Irwin & Barneby (Leguminosae, Caesalpinioideae)
FIGURE. Geographic distribution map. A. Chamaecrista rigidifolia. B. Chamaecista tocantinensis. C. Chamaecrista trichortyrsus. D. Chamaecrista ustulata.
FIGURE. Map and phytophysiognomies of occurrence of species of Chamaecrista ser. Paniculatae. A. South America map highlighting the Phytogeographic Domain of Cerrado. B. Transition between Cerrado and Caatinga (Grão Mogol State Park, Minas Gerais). C. Cerrado típico (Chapada dos Veadeiros National Park, Goiás). D. Cerrado ralo (Jalapão State Park, Tocantins). E. Cerrado denso (Serra de Cladas Novas State Park, Goiás). F. Campo rupestre (Chapada dos Veadeiros National Park, Goiás). G. Cerrado rupestre (Chapada dos Veadeiros National Park, Goiás). in Taxonomic review of Chamaecrista sect. Absus subsect. Absus ser. Paniculatae (Benth.) H.S. Irwin & Barneby (Leguminosae, Caesalpinioideae)
FIGURE. Map and phytophysiognomies of occurrence of species of Chamaecrista ser. Paniculatae. A. South America map highlighting the Phytogeographic Domain of Cerrado. B. Transition between Cerrado and Caatinga (Grão Mogol State Park, Minas Gerais). C. Cerrado típico (Chapada dos Veadeiros National Park, Goiás). D. Cerrado ralo (Jalapão State Park, Tocantins). E. Cerrado denso (Serra de Cladas Novas State Park, Goiás). F. Campo rupestre (Chapada dos Veadeiros National Park, Goiás). G. Cerrado rupestre (Chapada dos Veadeiros National Park, Goiás).
FIGURE. Geographic distribution map. A. Chamaecrista celiae. B. Chamaecrista cercidifolia. C. Chamaecrista claussenii. D in Taxonomic review of Chamaecrista sect. Absus subsect. Absus ser. Paniculatae (Benth.) H.S. Irwin & Barneby (Leguminosae, Caesalpinioideae)
FIGURE. Geographic distribution map. A. Chamaecrista celiae. B. Chamaecrista cercidifolia. C. Chamaecrista claussenii. D. Chamaecrista crenulata.
FIGURE. Geographic distribution map. A. Chamaecrista cyclhophylla. B. Chamaecrista megacycla. C. Chamaecrista orbiculata. D in Taxonomic review of Chamaecrista sect. Absus subsect. Absus ser. Paniculatae (Benth.) H.S. Irwin & Barneby (Leguminosae, Caesalpinioideae)
FIGURE. Geographic distribution map. A. Chamaecrista cyclhophylla. B. Chamaecrista megacycla. C. Chamaecrista orbiculata. D. Chamaecista pachyclada.
FIGURE. Myrcia cf. obversa. A: Habit; B–C: Fruits; D. Calyx indumentum in fruit: E: Infrutescence; F. Vegetative branch; G: Leaf abaxial surface; H: Distribution map. (A, B: Hatschbach 16698; C–G: Brotto 2561). in Myrcia (Myrtaceae) in the state of Paraná, Brazil
FIGURE. Myrcia cf. obversa. A: Habit; B–C: Fruits; D. Calyx indumentum in fruit: E: Infrutescence; F. Vegetative branch; G: Leaf abaxial surface; H: Distribution map. (A, B: Hatschbach 16698; C–G: Brotto 2561).
Figure 1. Map showing the 40 in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 1. Map showing the 40 sites yielding the specimens of Praomys tullbergi and Praomys misonnei that were included in the molecular analyses. For the names of the localities, see Table 1. Forests are indicated in light grey (adapted from Mayaux et al., 2004).
Figure 10. Reference topology with mapped dermal sculpture characters showing a phylogenetic signal, continued. A, character 10. B, character 11. C, character 12. For character 12 in Sculpture and vascularization of dermal bones, and the implications for the physiology of basal tetrapods
Figure 10. Reference topology with mapped dermal sculpture characters showing a phylogenetic signal, continued. A, character 10. B, character 11. C, character 12. For character 12, the coloration is similar to that in Figure 9, whereas for character 10 (four character states) and 11 (three character states), the lightest shading refers to character state 1, and the increasingly darker shadings refer to the ascending character states. For definition of characters, see Appendix 2.
FIGURE 1 in Toward a biogeographic regionalization of the Nearctic region: Area nomenclature and digital map
FIGURE 1. Map of the regionalization of the Nearctic region, including three subregions, one transition zone and 29 provinces.
Source data used to reproduce global maps for Ou et al. 2021 (Deep Mitigation of CO2 and non-CO2 Greenhouse Gases towards 1.5°C and 2°C Futures)
<p>Shape file and R code used to reproduce Fig 3d and SI figures with global maps, using an open-source R package "sf" (https://r-spatial.github.io/sf/ ) </p>
A global map of microbial residence time
<p>Soil microbes are the fundamental engine for carbon (C) cycling. Microbial residence time (MRT) therefore determines the mineralization of soil organic C, releasing C as heterotrophic respiration and contributing substantially to the C efflux in terrestrial ecosystems. We took use of a comprehensive dataset (2627 data points) and calculated the MRT based on the basal respiration and microbial biomass C. Large variations in MRT were found among biomes, with the largest MRT in boreal forests and grasslands and smallest in natural wetlands. Biogeographic patterns of MRT were found along climate (temperature and precipitation), vegetation variables (root C density and net primary productivity), and edaphic factors (soil texture, pH, topsoil porosity, soil C, and total nitrogen). Among environmental factors, edaphic properties dominate the MRT variations. We further mapped the MRT at the global scale with an empirical model. The simulated and observed MRT were highly consistent at plot‐ (R<sup>2</sup>=0.86), site‐ (R<sup>2</sup>=0.88), and biome‐ (R<sup>2</sup>=0.99) levels. The global average of MRT was estimated to be 38 (±5) days. A clear latitudinal biogeographic pattern was found for MRT with lower values in tropical regions and higher values in the Arctic. The biome‐ and global‐level estimates of MRT serve as valuable data for parameterizing and benchmarking microbial models.</p>
Constrained Injective Mapping Benchmark
<p>We are glad to release the benchmark dataset in our Siggraph Asia 2021 paper <a href="https://duxingyi-charles.github.io/publication/optimizing-global-injectivity-for-constrained-parameterization/">Optimizing Global Injectivity for Constrained Parameterization</a>. The dataset is used to test various methods on their ability to recover an injective mapping from a non-injective initial mapping while keeping a group of positional constraints in place. The dataset includes <em>1791 </em>triangle mesh examples. Each example consists of an input rest mesh, an initial mesh, several constrained vertices (called handles), and a ground truth injective mapping obtained from the <a href="https://zenodo.org/record/3827969#.YVsE55qZOPp">Locally Injective Mappings Benchmark</a>.</p> <p>For reference, we also share our method's results on the examples in Constrained-Injective-Mappings-Result.zip.</p> <p>We hope that our dataset offers a benchmark for future research in this area.</p>
Minified read mapping asignment dataset for use in Snakemake
<p>This is a minified version of the dataset used in the <a href="https://datacarpentry.org/wrangling-genomics/">Wranging Genomics Data Carpentries</a> lesson for use in the Galaxy Training Network materials on Snakemake and other workflow development.</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)
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.