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12,393 results for “materiality”
FIGURE 5 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 5. Live colonies of Sansibia species. S. flava (May, 1898) on the reef: (A) Colony with expanded brown polyps and bright, almost white polyp body. (B) Colony with expanded polyps. S. claereboudti sp. nov.: (C, D) Encrusting colonies with expanded polyps and distinct pinnules along the margins of the tentacles (photos C, D: courtesy of M. Claereboudt).
FIGURE 8 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 8. Latissimia opalia gen. nov. sp. nov. (A) Holotype (QM G339447) with expanded polyps emerging from the encrusting spreading membrane. (B–H) Paratype colonies.
FIGURE 1 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 1. Distribution map of the material examined in the current study. Color shades on the background represent different marine realms. TA = Tropical Atlantic, TSAM = Temperate Southern America, TSA = Temperate Southern Africa, WI-P = Western Indo-Pacific, CI-P = Central Indo-Pacific, and TAA = Temperate Australasia.
FIGURE 4 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 4. Sansibia flava (May, 1898) (SMNHTAU_Co_36007): (A) Ellipsoid platelets. (B) Tips of calcite rods providing a granular appearance to the sclerite surface.
FIGURE 6 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 6. Sansibia claereboudti sp. nov.: (A) Holotype (RMNH Coel. 42915). (B) Enlarged portion of (A) marked by dashed rectangle, arrows indicate clusters of polyps. (C) Paratype colonies (RMNH Coel. 42916) attached to calcareous substrate.
FIGURE 3 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 3. Scanning electron micrographs of sclerites of Sansibia flava (May, 1898). Holotype (ZMH C 2570): (A) Ellipsoid platelets. (B) Tips of calcite rods more or less perpendicular to the surface of the sclerite, giving it a granular appearance.
FIGURE 2 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 2. Sansibia flava (May, 1898): morphology of colonies. (A) Holotype (ZMH C 2570) comprises three fragments, one shown here. SMNHTAU_Co_36007: (B) Colony attached to calcareous substrate. (C) Magnified part of colony.
FIGURE 7 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 7. Scanning electron micrographs of sclerites of Sansibia claereboudti sp. nov. Holotype (RMNH Coel. 42915): (A) Ellipsoid platelets. (B) Tips of calcite rods provide uniform granular appearance to the sclerite surface.
The data for the 'The Distribution of Underlying Electrical Materials in Mainland China Using Geomagnetic Data'
<p>The raw geomagnetic data are provided by the Geomagnetic Network Center of China,Institute of Geophysics, China Earthquake Administration. The raw data for this research are not publicly available due to government policies and laws. In order to allow researchers to reproduce the results in this work, we upload the processed coefficients of the magnetic <br> transfer function complex A and B of the study.</p> <p>The format of the data is ’.mat’, please open it by MATLAB software. The initial cell array of data is one column, including successively six frequency bands:</p> <p>0.001–0.005 Hz,<br> 0.005–0.01 Hz,<br> 0.01–0.05 Hz,<br> 0.05–0.1 Hz,<br> 0.1–0.2 Hz,<br> 0.2–0.5 Hz</p> <p>Every frequency band contains four columns. The first and second columns are longitude and latitude of the stations, and the third and fourth columns are the coefficients of the magnetic transfer function complex A and B, respectively. There are 98 rows, which indicates 98 stations in Mainland China. The QZ station which is utilized to demonstrate the processes is on eighteenth row.</p>
Supplementary material for "Spatio-temporal modelling of abundance from multiple data sources in an integrated spatial distribution model"
<p><strong>Abstract</strong></p> <p><strong>Aim:</strong> In biodiversity monitoring, observational data are often collected in multiple, disparate schemes with greatly varying degrees of standardization and possibly at different spatial and temporal scales. Technical advances also change the type of data over time. The resulting heterogeneous data sets are often deemed to be incompatible. Consequently, many available data sets may be ignored in practical analyses. Here, we propose a more efficient use of disparate biodiversity data to assess species distributions and population trends.<br> <br> <strong>Location:</strong> Switzerland (Europe)<br> <br> <strong>Taxon:</strong> Birds</p> <p><strong>Methods: </strong>We developed an integrated, hierarchical species distribution model with a joint likelihood for all data sets using a shared state process (e.g., latent species abundance or occurrence), but distinct observation process for each data set. We show how the abundance submodel of a binomial N-mixture model can fuse four different data types (count, detection/non-detection, presence-only, and absence-only data) and enable improved inferences about spatio-temporal patterns in abundance. As case studies, we use data from multiple avian biodiversity monitoring schemes. In the first, the goal is estimating abundance-based species distribution maps. In the second, we infer trends in population abundance across time.</p> <p><strong>Results: </strong>Accuracy and precision of abundance estimates increased when combining data from different sources compared to using a single data source alone. This is particularly valuable when data from each single data source is too sparse for reliable parameter estimation.<br> Main conclusions: We show that exploiting the complementary nature of "cheap", but abundant, citizen-science data and less abundant, but more information-rich, data from structured monitoring programs might be ideal to estimate distribution and population trends more accurately, especially for rare species. Joint likelihoods allow to include a wide variety of different data sets to (1) combine all the available information and to (2) mitigate weaknesses of one by the strength of another.</p> <p> </p> <p> </p>
DFT raw data for "Investigations on electron beam irradiated rare-earth doped SrF2 for application as low fading dosimeter material: Evidence for and DFT simulation of a radiation-induced phase"
<p>This is the DFT data for "<a href="https://pubs.rsc.org/en/content/articlehtml/2022/tc/d2tc01773c">Investigations on electron beam irradiated rare-earth doped SrF2 for application as low fading dosimeter material: Evidence for and DFT simulation of a radiation-induced phase</a>" https://doi.org/10.1039/D2TC01773C . </p> <p>It includes all predicted structures, the structure optimizations and the phonon computations in VASP format. Phonon computations were performed with the finite displacement method.</p>
FIGURE 11 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 11. Majority rule consensus tree of the parsimony analysis showing the Khok Pha Suam iguanodontian UB1-A to nest within non-hadrosauriform styracosternan Iguanodontia.
FIGURE 10 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 10. Comparison of metacarpal IV (A–E), femur (F–M), and fibula (N–T) in various iguanodontian ornithopods. Right metacarpal IV in dorsal view of (A) UB1-A; (B) Eolambia; (C) Gilmoreosaurus (reversed); (D) Probactrosaurus; (E) Gobihadros. Right femur in distal view of (F) UB1-A; (G) UB1-B (reversed); (H) Mantellisaurus (reversed); (I) Camptosaurus (reversed); (J) Ouranosaurus (reversed); (K) Eolambia (reversed); (L–M) "M. laosensis". Right fibula in lateral view of (N) UB1- A; (O) Eolambia (reversed); (P) Gilmoreosaurus (reversed); (Q) Mantellisaurus; (R) Tanius; (S) Camptosaurus (reversed); (T) Ouranosaurus (reversed). Not to scale.
FIGURE 9 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 9. The Khok Pha Suam iguanodontian UB1-B. Left femur UB1-B-1 in medial (A), posterior (B), proximal (C), anterior (D), lateral (E), and distal (F) views. Abbreviations: 4t = fourth trochanter, aigr = anterior intercondylar groove, gt = greater trochanter, lc = lateral condyle, ltr = lesser trochanter, mc = medial condyle, pigr = posterior intercondylar groove. Scale bar = 10 cm.
FIGURE 8 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 8. The Khok Pha Suam iguanodontian UB1-A. Pedal phalanx UB1-A-15 (A–F) in posterior (A), lateral (B), dorsal (C), anterior (D), medial (E), and ventral (F) view. Scale bar = 1 cm.
FIGURE 7 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 7. The Khok Pha Suam iguanodontian UB1-A. Right femur UB1-A-12, tibia UB1-A-13, and fibula UB1-A-14. Right femur in posterior (A), antero-medial (B), proximal (C), postero-lateral (D), anterior (E), and distal (F) views. Right tibia in anterior (G), medial (H), posterior (I), and lateral (J) views. Right fibula in lateral (K), anterior (L), and medial (M) views. Abbreviations: 4t = fourth trochanter, aigr = anterior intercondylar groove, cmc = caudomedial condyle, cnc = cnemial crest, gt = greater trochanter, lc = lateral condyle, ltr = lesser trochanter, mc = medial condyle, pigr = posterior intercondylar groove. Scale bar = 10 cm.
FIGURE 6 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 6. The Khok Pha Suam iguanodontian UB1-A. Metacarpal IV UB1-A-10 in lateral (A), anterior (B), medial (C), posterior (D), proximal (E), distal (F) view. Scale bar = 10 cm.
FIGURE 5 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 5. The Khok Pha Suam iguanodontian UB1-A. Dorsal vertebra UB1-A-4 (A–F); proximal caudal vertebrae UB1-A-5 and UB1-A-6 (G–N); mid-to-distal caudal vertebra UB1-A-7 (O–Q); and distal caudal vertebrae UB1-A-8 and UB1-A-9 (R–U) in anterior (A, G, Q, R, T), right lateral (D, J, O), left lateral (C, I, M, P, S, U), posterior (B, H, N), ventral (F, L), and dorsal (E, K) views. Abbreviations: dia = diapophysis, gr = groove, ns = neural spine, prz = prezygapophysis, poz = postzygapophysis, vk = ventral keel, arrow = anterior slot-and-ridge margin to the neural spine (asr). Scale bar = 10 cm.
FIGURE 2 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 2. Skeleton elements of the Khok Pha Suam iguanodontian UB1-A adult individual (left) and UB1-B juvenile individual (right) assume to be the same taxon. Gray indicates the reconstruction part of the ischium. Scale bar = 0.5 m.
FIGURE 1 in New materials of iguanodontians (Dinosauria: Ornithopoda) from the Lower Cretaceous Khok Kruat Formation, Ubon Ratchathani, Thailand
FIGURE 1. (A) Map of Thailand (left) and a close-up of north-eastern Thailand (right) showing the location of Khok Pha Suam Locality (star), Ubon Ratchathani Province (circle). Gray indicates Khok Kruat Formation outcrops. (B) Khok Pha Suam Locality and (C) a small hill where the specimens were found (pictures from © Suravech Suteethorn).
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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.