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14 results for “FEA”
FEA result
<p>This dataset includes the stress and position (x, y, z) data at all inspection points along the key curves mentioned in the five finite element analysis (FEA) models presented in the study. The data is provided in an Excel file and contains detailed relationships between stress values and their corresponding spatial coordinates. This comprehensive dataset facilitates replication of results and further analysis by interested researchers.</p>
Simulating flow forming/spinning of as-cast aluminum at elevated temperature: example implicit & explicit FEA
<p>This collection of files largely automates the creation and running of FEA models of rotary forming at temperature. The modelling approaches are detailed further here:</p> <p>M.J. Roy, D.M. Maijer, Analysis and modelling of a rotary forming process for cast aluminium alloy A356, Journal of Materials Processing Technology, Volume 226, 2015, Pages 188-204, ISSN 0924-0136, http://dx.doi.org/10.1016/j.jmatprotec.2015.06.036.<br> </p> <p>Briefly, the multi-stage model was developed with MATLAB 7.2 and Abaqus 11.2 and configured to run on a Linux-based system with PBS functionality, last tested on a muti-node CentOS 5 system. The main script is <strong>FFauto.m</strong>, which will write input files and user subroutines and call <strong>FFauto_Abaqus11Submit.m</strong> to run the input files or intermediate post-processing to set up the next job. More specifically:</p> <ol> <li>FFauto will write an input deck based on 2D implicit heat transfer and then run it.</li> <li>Once the analysis is complete, it will perform some cursory post processing by writing an Abaqus Python script and then submitting that.</li> <li>Based on the post-processing of the implicit analysis, it will then generate a 3D explicit forming analysis input file. Depending on the operator's input, this can include an explicit cooling step as well.</li> <li>It will then submit the 3D analysis.</li> </ol> <p>Note that steps can be skipped - that is, if the results for an implicit heat transfer calculation are available, then it will use those results to generate the explicit step(s).</p> <p>Note that the implicit user subroutine *uhard.f contains a DFLUX subroutine in addition to the UHARD subroutine. This was not employed in the published work. Leave the <em>ArtHeat</em> variable as <em>True</em> to both speed up simulation times and get similar results as published.</p> <p>Running <strong>FFauto.m</strong> is accomplished by submitting the <strong>FFauto4.pbs</strong> file.</p>
Comparative Study of Maxillary and Mandibular Splints Used for the Treatment of Masticatory Muscle Parafunction (FEA)
ClinicalTrials.gov study NCT05007691. IPD Sharing: YES. Countries: 1. Publications: 1.
On following pages: 327. Rufous Tube-nosed Bat (Murina leucogasten; 328. Bicolored Tube-nosed Bat (Murina bicolon); 329. Rongjiang Tube-nosed Bat (Murina rongjiangensis); 330. Fang He Tube-nosed Bat (Murina fanjingshanensis); 331. Shuipu Tube-nosed Bat (Murina shuipuensis); 332. Dusky Tube-nosed Bat (Murina fusca); 333. Hilgendorf's Tube-nosed Bat (Murina hilgendorf); 334. Little Tube-nosed Bat (Murina aurata); 335. Jaintia Tube-nosed Bat (Murina jaintiana); 336. Rainforest Tube-nosed Bat (Murina pluvialis); 337. Fea's Tube-nosed Bat (Murina feae); 338. Beelzebub Tube-nosed Bat (Murina beelzebub); 339. Lorelie's Tube-nosed Bat (Murina lorelieae); 340. Vietnamese Tube-nosed Bat Murina harpioloides); 341. Golden-haired Tube-nosed Bat (Murina chrysochaetes); 342. Harrison's Tube-nosed Bat (Murina harrisoni); 343. Ussuri Tube-nosed Bat (Murina ussuriensis); 344. Gloomy Tube-nosed Bat (Murina tenebrosa); 345. Ryukyu Tube-nosed Bat (Murina ryukyuana); 346. Hutton's Tube-nosed Bat (Murina huttonii); 347. Taiwan Tube-nosed Bat (Murina puta). in Vespertilionidae
On following pages: 327. Rufous Tube-nosed Bat (Murina leucogasten; 328. Bicolored Tube-nosed Bat (Murina bicolon); 329. Rongjiang Tube-nosed Bat (Murina rongjiangensis); 330. Fang He Tube-nosed Bat (Murina fanjingshanensis); 331. Shuipu Tube-nosed Bat (Murina shuipuensis); 332. Dusky Tube-nosed Bat (Murina fusca); 333. Hilgendorf's Tube-nosed Bat (Murina hilgendorf); 334. Little Tube-nosed Bat (Murina aurata); 335. Jaintia Tube-nosed Bat (Murina jaintiana); 336. Rainforest Tube-nosed Bat (Murina pluvialis); 337. Fea's Tube-nosed Bat (Murina feae); 338. Beelzebub Tube-nosed Bat (Murina beelzebub); 339. Lorelie's Tube-nosed Bat (Murina lorelieae); 340. Vietnamese Tube-nosed Bat Murina harpioloides); 341. Golden-haired Tube-nosed Bat (Murina chrysochaetes); 342. Harrison's Tube-nosed Bat (Murina harrisoni); 343. Ussuri Tube-nosed Bat (Murina ussuriensis); 344. Gloomy Tube-nosed Bat (Murina tenebrosa); 345. Ryukyu Tube-nosed Bat (Murina ryukyuana); 346. Hutton's Tube-nosed Bat (Murina huttonii); 347. Taiwan Tube-nosed Bat (Murina puta).
On following pages 4 Grant Muntpac (Munrıacus vuquengensıs) 5 Fea s Munt|ac lMunuacus feaol 6 Gongshan munqakl 9 Leaf Munuac (Mumıecus putaoensıs) 10 Puhoat Muntpac (Muntracus puhoatanslsl Annarnıte Munqac Mumpc (Munrıecus gongshanenslsl 7 Black Munqac (Mumracus cnmfronsl 8 Red Muntpc (Munnacus (Munrıocııs rruongsonensıs) 12 Roosevelt: Munqac (Munuacus rooseveltorurrrl in Cervidae
On following pages 4 Grant Muntpac (Munrıacus vuquengensıs) 5 Fea s Munt|ac lMunuacus feaol 6 Gongshan munqakl 9 Leaf Munuac (Mumıecus putaoensıs) 10 Puhoat Muntpac (Muntracus puhoatanslsl Annarnıte Munqac Mumpc (Munrıecus gongshanenslsl 7 Black Munqac (Mumracus cnmfronsl 8 Red Muntpc (Munnacus (Munrıocııs rruongsonensıs) 12 Roosevelt: Munqac (Munuacus rooseveltorurrrl
FIGURE 3. A in A checklist of the millipedes (Diplopoda) of Myanmar, with an updated list of Leonardo Fea's collecting localities
FIGURE 3. A second map of the collecting trips of Leonardo Fea (1897), including the inset maps of Kachin Hills near Bhamo (top right), Karen Mountains (middle right), and northern Tenasserim (lower right). Reproduced from Fea (1897).
FIGURE 1 in A checklist of the millipedes (Diplopoda) of Myanmar, with an updated list of Leonardo Fea's collecting localities
FIGURE 1. Distribution of millipedes in Myanmar (92 species): 1 Kamaing. 2 Sadon. 3 Kambaiti. 4 Second Defile, Irrawaddy River. 5 Bhamo. 6 Teinzò. 7 Katha and Thigian. 8 Namkham. 9 Kachin Hills. 10 Hosi. 11 Chin Hills. 12 Lashio. 13 Shenmaga. 14 Mountain Oasis Resort and Kampetlet—Mindat Road. 15 Apache cement Factory. 16 Kyauk Khaung (= Stone Cave). 17 Faunggyi. 18 Hopone Spring. 19 Inlé Lake. 20 Pyinmana. 21 Meteleo. 22 Puepoli. 23 Yado. 24 Thao. 25 Chiala. 26 Minhla (Bago). 27 Tharrawaw. 28 Tharrwaddy. 29 Tikekyee in Pegu. 30 Palon in Pegu. 31 Rangoon/Yangon. 32 Yathay Pyan Cave. 33 Farm Caves. 34 Moulmein. 35 Dhammathat Cave. 36 Phabaung Temple. 37 Mekane. 38 Kawkareet. 39 Thingannyinaung. 40 Misty Hollow. 41 Plapoo. 42 Mountain Mooleyit. 43 Sukli. 44 Thagatà. 45 Double Islands. 46 Great Coco Island. 47 Tavoy. 48 Reef Island. 49 Mergui. 50 King Island. 51 Elphinstone Island. 52 Kala. 53 Owen Island. 54 Buddha Cave. 55 Sullivan Island. 56 Malewoon. 57 Thatay Kyun. Blue, pink, orange and green shaded areas indicate Shan State, Pegu, Karennee and Tenasserim area during British Burma period, respectively.
FEA, Biomechanical and Clinical Study of R.O. Peritrochanteric Fractures With PFLP vs Cephalomedullary Nail.
ClinicalTrials.gov study NCT05286905. IPD Sharing: YES. Countries: 1. Publications: 34.
Three datasets containting the solutions of FEA simulations for a 2D Linear Elastic Model, a 2D Hyperelastic Model and a 3D Linear Elastic Model
Open the record for dataset details and reuse information.
Functional and ecomorphological evolution of orbit shape in Mesozoic archosaurs is driven by body size and diet: Geometric morphometric data, 3D models (stl files), FEA models (Hypermesh, Abaqus files)
<p class="MsoNormal">The orbit is one of several skull openings in the archosauromorph skull. Intuitively, it could be assumed that orbit shape would closely approximate the shape and size of the eyeball resulting in a predominantly circular morphology. However, a quantification of orbit shape across Archosauromorpha using a geometric morphometric approach demonstrates a large morphological diversity despite the fact that the majority of species retained a circular orbit. This morphological diversity is nearly exclusively driven by large (skull length > 1000 mm) and carnivorous species in all studied archosauromorph groups, but particularly prominently in theropod dinosaurs. While circular orbit shapes are retained in most herbivores and smaller species, as well as in juveniles and early ontogenetic stages, large carnivores adopted elliptical and keyhole-shaped orbits. Biomechanical modeling using finite element analysis reveals that these morphologies are beneficial in mitigating and dissipating feeding-induced stresses without additional reinforcement of the bony structure of the skull.</p>
FIGURE 4 in A checklist of the millipedes (Diplopoda) of Myanmar, with an updated list of Leonardo Fea's collecting localities
FIGURE 4. Progress in the studies on the Myanmar millipede fauna per decade since 1889.
FIGURE 2. A in A checklist of the millipedes (Diplopoda) of Myanmar, with an updated list of Leonardo Fea's collecting localities
FIGURE 2. A first map of the collecting trips of Leonardo Fea (1896). Reproduced from Fea (1896).
Functional and ecomorphological evolution of orbit shape in Mesozoic archosaurs is driven by body size and diet: Geometric morphometric data, 3D models (stl files), FEA models (Hypermesh, Abaqus files)
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CASSINI JUP UVIS SOLAR STELLAR BRIGHTNESS TIME SERIES 1.0
Photometric observations of stellar occultations by Saturnian rings, satellites, atmospheres, and Jovian atmosphere.
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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.