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91 results for “creep”
FIGURES 1–9 in The creeping water bugs (Hemiptera: Heteroptera: Naucoridae) of China, with description of a new species
FIGURES 1–9. Dorsal habitus photographs of Naucoridae of China. 1: Cheirochela feana Montandon (♂); 2: Cheirochela tonkina Polhemus et al. (♂); 3: Cheirochela grossa sp. nov. (♂); 4: Cheirochela grossa sp. nov. (♀); 5: Gestroiella limnocoroides Montandon (Brachypterous ♂); 6: G. limnocoroides Montandon (Brachypterous ♀); 7: G. limnocoroides Montandon (Macropterous ♂); 8: G. limnocoroides Montandon (Macropterous ♀); 9: Heleocoris breviceps Montandon (♂).
FIGURES 10–18 in The creeping water bugs (Hemiptera: Heteroptera: Naucoridae) of China, with description of a new species
FIGURES 10–18. Dorsal habitus photographs of Naucoridae of China. 10: Heleocoris breviceps Montandon (♀); 11: H. strabus Montandon (♂); 12: H. strabus Montandon (♀); 13: T. scutellaris (Stål) (♀); 14: H. ovatus Montandon (♂); 15: H. ovatus Montandon (♀); 16: H. bengalensis montandoni Lundblad (♂); 17: H. bengalensis montandoni Lundblad (♀); 18: Ilyocoris cimicoides cimicoides (Linnaeus) (♂).
FIGURES 1–10. 1–8 in The type of the enigmatic creeping water bug Naucoris sumatranus FIEBER, 1851 (Hemiptera: Heteroptera: Naucoridae)
FIGURES 1–10. 1–8 Naucoris sumatranus, lectotype, female. 9, 10 Naucoris obscuripennis, female from Luzon, the Philippines (Natural History Museum Vienna). 1 Habitus, dorsal aspect. 2 Head, prothorax and forelegs, ventral aspect. 3 Abdomen, ventral aspect). 4 Labels. 5 Part of plate I from Fieber (1851); figs. 11 and 12 refer to N. sumatranus. 6 Right foreleg, ventral aspect. 7, 9 Metaxiphus, lateral (left) aspect. 8, 10 Subgenital plate (sternum 7) of female, ventral aspect. (Figs. 1–4: © NHMW Hemiptera Image Collection, published with permission.)
Prominent creep characteristics of thermokarst landslides on the Qinghai-Tibetan Plateau owing to climate warming
<ul><li>Thermokarst landslides inventory </li></ul>
Creep behavior of short glass fiber reinforced poly(butylene terephthalate) and its prediction based on the matrix creep using an elementary volume approach
<p><span>The creep compliances of short glass fiber reinforced poly(butylene terephthalate) composites (SFRC PBT) plates processed by conventional injection molding and push pull processing were determined parallel and perpendicular to the flow direction using a tensile creep stand. The fiber weight contents of the plates were 0, 20 and 30 %. Tensile test bars were taken out of the plates parallel and perpendicular to the flow direction to determine short-term mechanical properties, fiber length distribution and fiber orientation distribution necessary for subsequent modelling. An elementary volume approach was used to calculate the longitudinal and transverse creep compliances in the main axes system showing that their time dependencies are governed by the creep of the PBT matrix only. As the plates hardly exhibit any fiber orientation in the thickness direction, the components of the 2D compliance tensor were transformed according to RM Jones’ <em>Mechanics of composite materials</em> to take into account the fiber misalignment in SFRC. This transformation introduces the unknown shear modulus G<sub>12</sub> to the components of the transformed compliances tensor. This problem could be overcome as G<sub>12</sub> can be expressed in terms of the transverse compliance J<sub>22</sub> and a shear correction factor within the EV approach. Comparing the predicted creep compliances to measured ones resulted in an underestimation of 15 to 30 % parallel and 5 to 15 % perpendicular to the flow direction. This underestimation can be attributed to a large extent to a non-perfect fiber matrix adhesion. Furthermore, SEM pictures of fracture surfaces show different failure behavior parallel to the fiber axis and perpendicular to it. Thus, the fiber matrix adhesion seems to depend on the direction of stress with respect to the fiber axes. The time range of well correspondence of matrix creep and composites creep can be expressed by the creep time limit which decreases exponentially with increasing creep stresses.</span></p>
FIGURE. The Bayesian tree of the Adaintum pedatum complex based on chloroplast markers and corresponding rhizome type. Support values (Bayesian inference posterior probability (BIPP) (upper) ≥ 0.5, and maximum likelihood bootstrap support (MLBS) (nether) ≥ 50%) are shown above the main branches, the thickened branches indicate MLBS=100 and BIPP=1. Yellow bar means erect rhizome; blue bar means creeping rhizome; gray bar means decumbent or short-creeping rhizome. in Adiantum japonicum, a new species of the Adiantum pedatum complex (Pteridaceae) from Japan
FIGURE. The Bayesian tree of the Adaintum pedatum complex based on chloroplast markers and corresponding rhizome type. Support values (Bayesian inference posterior probability (BIPP) (upper) ≥ 0.5, and maximum likelihood bootstrap support (MLBS) (nether) ≥ 50%) are shown above the main branches, the thickened branches indicate MLBS=100 and BIPP=1. Yellow bar means erect rhizome; blue bar means creeping rhizome; gray bar means decumbent or short-creeping rhizome.
Marikina Valley Fault Creeping Segment (Philippines) - Groundwater Extraction Data
<p>This dataset contain information on groundwater extraction for different well locations along the creeping segment of the Marikina Valley Fault System (Philippines). </p>
Frictional Properties of Fault Rocks and Creep Mechanism for the Laohushan Segment of the Haiyuan Fault, Northeastern Tibet
<p>All raw data of XRD analyses of fault rocks, particle size analyses of fault gouges, and mechanical data of fault gouge at different temperature are related to this paper.</p>
Dataset for Brittle Creep and Brittle Failure of Rocks: a reformulation of the wing crack model
<p>brittleCreepScript.nb - Commented Mathematica Notebook script containing the steps needed to plot Figure 8</p> <p>Mechanical_data.mat - mechanical data from tertiary creep of Etna basalt (Mansbach 2022), Iceland basalt (Xing et al. 2022), Inada Granite and Thala limestone (Brantut et al. 2013), Darley Dale sandstone and Etna Basalt (Heap 2009) and glass (Mallet et al. 2015) experiments.</p> <p>Data structure: First column - time (min), second column - axial strain (%), third column (where available) - differential stress (MPa).</p> <p>data_plotting.m - Matlab script for plotting all strain - time data found in Mechanical_data.mat.</p> <p>References:<br> Xing, T., H.O. Ghaffari, U. Mok and M. Pec (2022), Creep of CarbFix basalt: influence of rock-fluid interaction, Solid Earth, 13, 137–160, https://doi.org/10.5194/se-13-137-2022</p> <p>Mansbach, Elias. 2022. “Effect of Carbon Sequestration and Reservoir Conditions on Brittle Creep in Etna Basalt.” Thesis Commons. Doi: 10.31237/osf.io/64gxc<br> <br> Brantut, N., M.J. Heap, P.G. Meredith and P. Baud (2013), Time-dependent cracking and brittle creep in crustal rocks: a review, J. Struct. Geol., 52, 17-43.</p> <p>Heap, M.J. (2009), Creep: Time-dependent Brittle Deformation in Rock, PhD Thesis, University College London, pp. 399.</p>
Wall collision of deformable bubbles in the creeping flow regime (Supporting Data)
<p>The dataset contains sample numerical results of a bubble colliding with a solid wall at small Reynolds number, pertaining to the manuscript under the same title, "Wall collision of deformable bubbles in the creeping flow regime", published in the European Journal of Mechanics - B/Fluids.</p>
LAMMPS output from creep simulation of silica sphere caps with water
<p>Results from creep simulation of silica sphere caps, passivated with hydroxy groups and with water filling the void.</p> <p>38 nanoseconds of data.</p> <p>This description will be updated with a github repo and more information when possible.</p>
LAMMPS output from creep simulation of silica sphere caps, asymmetric system with tdamp=1
<p>Results from creep simulation of silica sphere caps.</p> <p>200 nanoseconds of data.</p> <p>This description will be updated with a github repo and more information when possible.</p>
LAMMPS output from creep simulation of silica sphere caps, symmetric system with tdamp=5
<p>Results from creep simulation of silica sphere caps.</p> <p>200 nanoseconds of data.</p> <p>This description will be updated with a github repo and more information when possible.</p>
LAMMPS output from creep simulation of silica sphere caps
<p>Results from creep simulation of silica sphere caps.</p> <p>1 microsecond of data.</p> <p>This description will be updated with a github repo and more information when possible.</p>
FIGURE 5. Anthurium itacarense. A. Habit with creeping stem detail. B in Two new species of Anthurium sect. Urospadix (Araceae) endemic to the restinga vegetation of Bahia, Brazil
FIGURE 5. Anthurium itacarense. A. Habit with creeping stem detail. B. Detail of creeping stem apex. C. Leaf blade, detail showing cuneate leaf base. D. Inflorescence. E. Flowers showing orange tepals, stamens and stigma droplet. Photos by K. Pimenta.
FIGURE 4 in Ceratopteris shingii, a new species of Ceratopteris with creeping rhizomes from Hainan, China
FIGURE 4. The phylogenetic tree using MrBayes based on the sequences of rbcL, the intergenic spacer regions of trnL(UAA)-trnF(GAA), psbC-trnS(UGA), trnW(CCA)-trnP(UGG), and rbcL-atpB. Numbers on branches are support values PPBI/ML (Bayesian inference posterior probabilities / maximum likelihood). Dash (-) indicates nodes with PPBI or ML <50%. "//" indicates that the branch length of the outgroups is shortened.
FIGURE 3 in Ceratopteris shingii, a new species of Ceratopteris with creeping rhizomes from Hainan, China
FIGURE 3. The habitat of C. shingii (photographed by Yue-Hong Yan). A. The landform in Jiangjunshan in Haikou city, Hainan; B. Morphology of the sporophyte; C. C. shingii plants with creeping rhizomes.
FIGURE 1. Ceratopteris shingii Y.H. Yan & R in Ceratopteris shingii, a new species of Ceratopteris with creeping rhizomes from Hainan, China
FIGURE 1. Ceratopteris shingii Y.H. Yan & R. Zhang. Drawn by Wen Shao based on the holotype Fern 09770 (CSH). A. Habit; B. Enlarged fertile frond anatomy/portion for sporangium; C. Scale; D. Spore.
Data for "Creep enhancement and sliding in a temperate, hard-bedded alpine glacier"
<p>This folder contains the data and ice flow simulation output used in:</p> <p>Creep enhancement and sliding in a temperate, hard-bedded alpine glacier which is submited to "The Cryosphere".</p> <p>The python script "Generate_dudz_and_ud.py" processes raw tiltometer data to generate .csv files containing deformation velocity and deformation rate time series. The timescale over which the data are averaged is specified by the DX parameter, and the time window of interest can be selected. The script also calculates the average profile as a function of depth.</p> <p>Python scripts to create the manuscript figures are also provided (if Python was used).</p>
FIGURE 9. Croton glechomifolius. A. Creeping habit. B. Reniform leaves. C in Croton (Euphorbiaceae) of the Brazilian state of Paraná: an annotated checklist, species distribution, and identification key
FIGURE 9. Croton glechomifolius. A. Creeping habit. B. Reniform leaves. C. Leaf base with blackish trichomes. The arrow points to a stipitate acropetiolar nectary gland. D. Pistillate flowers with bifid styles. E. Hispid capsules. C. gracilipes. F. Sessile acropetiolar nectary glands. G. Inflorescence with unisexual lower cymules. H. Staminate flower. I. Capsule. J. Pistillate flowers, with bifid styles; arrow points to petals transformed into globose glands (colleters). C. grandivelus. K. Leaf. L. Congested inflorescence. M. Staminate flowers. Photos: A.P.N. Pereira.
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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
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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.