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9,798 results for “muscles”
Processed data from "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"
<p>This is the processed data from our manscript "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"</p>
Processed data from "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"
<p>This is the processed data from our manscript "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"</p>
Processed data from "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"
<p>This is the processed data from our manscript "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"</p>
Processed data from "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"
<p>This is the processed data from our manscript "Human and rat skeletal muscle single-nuclei multi-omic integrative analyses nominate causal cell types, regulatory elements, and SNPs for complex traits"</p>
DrosophilaMuscleFunction: Dataset for Drosophila Muscle Function Studies
<p>This is the data and code at the time of publication of Hatfield et al. in Scientific Reports.</p>
FIGURES 2A–G. Pisidium dorbignyi, anatomy. A. Siphonal and mantle edge musculature. B. Inner radial mantle muscles, lateral view. C in Anatomical characteristics of two enigmatic and two poorly known Pisidium species (Bivalvia: Sphaeriidae) from Southern South America
FIGURES 2A–G. Pisidium dorbignyi, anatomy. A. Siphonal and mantle edge musculature. B. Inner radial mantle muscles, lateral view. C. Distribution of scars of inner radial mantle muscles. D. Inner view of inner demibranch showing the upper position of brood sac. E–G. Nephridium (11, 13: dorsal view of left and right portions; 12: lateral view). (al: ascending lamellae; as: anal siphon; bs: brood sac; dl: descending lamellae; dln: dorsal lobe of nephridium; irm: inner radial mantle muscles; irms: inner radial mantle muscle scars; ll: lateral loop of nephridium; pa: posterior adductor muscle; pl: pallial line; pss: pre-siphonal; sr1: anal siphon retractor; sr2: retractor muscles corresponding to lacking inhalant opening).
FIGURE 7. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 7. A Buccal tube of Ramajendas (Isohypsibiidae); arrows indicate the long, uninterrupted, ridge-shaped AISM; B, Dastychius gen. nov. (Isohypsibiidae); arrows indicate the long, uninterrupted, ridge-shaped AISM with an incision and a septum. C, Isohypsibius and, D, Thulinius (Isohypsibiidae); arrows indicate the ridge-shaped AISM. Scale bar = 10 µm.
FIGURE 4. Buccal tubes with ventral lamina and without dorsal AISM. A, B in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 4. Buccal tubes with ventral lamina and without dorsal AISM. A, B, Doryphoribius (Isohypsibiidae). C, Hexapodibius (Calohysibiidae). D, Apodibius (Necopinatidae). Scale bar = 10 µm.
FIGURE 3. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 3. A, Buccal tube of Ramajendas (Isohypsibiidae); arrows indicate the dorsal and ventral long, uninterrupted, ridgeshaped AISM. B, C, Buccal tube of Halobiotus (Isohypsibiidae); arrows indicates hook-shaped AISM followed by a longitudinal thickening of the buccal tube wall. D-F, Buccal tube of Mixibius (Isohypsibiidae); arrows indicates hook-shaped AISM followed by a longitudinal thickening of the buccal tube wall. Scale bar = 10 µm.
FIGURE 6 in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 6. Buccal tubes of A, Hypsibius, B, Diphascon, C, Hebesuncus, D, Bindius (Hypsibiidae); arrows indicate the hookshaped dorsal and ventral AISM. Scale bar = 10 µm.
FIGURE 2. Dastychius gen. nov. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 2. Dastychius gen. nov. A, (photo), Buccal tube in lateral view showing the long, ridge-shaped, dorsal and ventral AISM; arrows indicate an incision. B (drawing), Buccal tube in lateral view showing the long, ridge-shaped, dorsal and ventral AISM and one of the stylet furcae; arrows indicate the septum that can be interpreted as a line of subdivision. C, (drawing), Buccal tube in dorsal view shows the long, dorsal, ridge-shaped AISM which almost reaches the level of the stylet supports. Arrow indicates the backward and sideways pointing processes of the dorsal AISM. D, Peribuccal papulae: E, Claws of the hind leg (arrow indicates a lunule). Scale bar = 10 µm.
FIGURE 5. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 5. A, Buccal tube of Acutuncus and, B, Ramazzottius (Hypsibiidae); arrows indicate the hook-shaped dorsal and ventral AISM. C, Buccal tube of Fractonotus (Microhypsibiidae) and, D, Calohypsibius (Calohypsibiidae); arrows indicate the hook-shaped dorsal AISM followed by a longitudinal thickening of the buccal tube wall, and the ridge-shaped ventral AISM. Scale bar = 10 µm.
FIGURE 1. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 1. A, Buccal tube of Isohpsibius (Isohypsibiidae); arrows indicate the dorsal and ventral ridge-shaped AISM. B, of Hypsibius (Hypsibiinae); (arrows indicate the dorsal and ventral AISM); C, of Ramazzottius (Ramazzottidae); (arrows indicate the dorsal and ventral, asymmetrical hook-shaped AISM. D, Buccal tube of Macrobiotus (Macrobiotidae); no dorsal apophysis is present; arrow indicates the ventral lamina. E, Buccal tube of Adorybiotus and, F, of Richtersius (Macrobiotidae); a dorsal AISM and the ventral lamina are present (arrows). Scale bar = 10 µm.
FIGURE 9. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 9. A, Itaquascon (Hypsibiidae); arrows indicate the wide and flat ridge-shaped, AISM. B, Paradiphascon (Hypsibiidae); arrows indicate the triangular AISM. C, Borealibius (Isohypsibiidae) arrows indicate the cylindrical (sometimes with bilobed extremity) AISM. D, Eohypsibius (Eohypsibiidae) arrows indicate the wing-shaped AISM. Scale bar = 10 µm.
FIGURE 8. A in The taxonomic value of the structures for the insertion of the stylet muscles in the Eutardigrada, and description of a new genus
FIGURE 8. A, Pseudobiotus (Isohypsibiidae) and, B, Necopinatum (Necopinatidae); arrows indicate the ridge-shaped AISM. C Mesocrista and, D, Platicrista (Hypsibiidae); arrows indicate the wide and flat ridge-shaped, AISM. Scale bar = 10 µm.
Dataset for paper "Motoneuron-driven computational muscle modelling with motor unit resolution and subject-specific musculoskeletal anatomy"
<p>This dataset collects all the material that was used to create the personalised musculoskeletal model employed in the publication by Caillet et al. "Motoneuron-driven computational muscle modelling with motor unit resolution and subject-specific musculoskeletal anatomy" published in PLOS Computational Biology in 2023. The aim of sharing this material is to allow reproducibility of the results and increase adoption of the semi-automatic techniques for musculoskeletal modelling that were used in the publication.</p>
Microscopy imaging of smooth muscle cells upon isolation and further culture.
<p>Microscopy imaging of smooth muscle cells upon isolation and further culture.</p>
Data on mitochondrial respiratory function in skeletal muscle of adult male mice in response to 3-weeks heat stress
Open the record for dataset details and reuse information.
Datasets for Muscle : semi-non negative joint decomposition of multiple single cell tensors
<p>This link contains the processed single cell Hi-C (scHi-C) and DNA methylation datasets of <a href="https://www.nature.com/articles/s41592-019-0502-z">Li et al. 2019</a> and <a href="https://www.nature.com/articles/s41586-020-03182-8">Liu et al. 2021. </a>in two separate folders. The datasets are used for the <a href="https://github.com/kp223/Muscle">Github page</a> of <a href="https://scholar.google.com/citations?view_op=view_citation&hl=en&user=gUgGLY0AAAAJ&citation_for_view=gUgGLY0AAAAJ:u5HHmVD_uO8C">Muscle</a>, which employs a semi-non negative joint tensor decomposition framework for multi-omics data analysis, incorporating scHi-C tensors. The datasets are uploaded in '.qs' format in R (gzipped for the Liu et al. 2021 data), and the chromosome size files are in text format. Further details about the data can be found on the GitHub page. The files </p>
Data from: A Deep Learning Approach for Fast Muscle Water T2 Mapping with Subject Specific Fat T2 Calibration from Multi-Spin-Echo Acquisitions
<p>This repository contains the imaging data (in NIfTI) and analysis code to reproduce the work presented in <em>"A Deep Learning Approach for Fast Muscle Water T2 Mapping with Subject Specific Fat T2 Calibration from Multi-Spin-Echo Acquisitions"</em> by <strong>Marco Barbieri, Melissa T. Hooijmans, Kevin Moulin, Tyler E. Cork, Daniel B. Ennis, Garry E. Gold, Feliks Kogan and Valentina Mazzoli.</strong></p> <p>Citation: "Barbieri, M., Hooijmans, M.T., Moulin, K. <em>et al.</em> A deep learning approach for fast muscle water T2 mapping with subject specific fat T2 calibration from multi-spin-echo acquisitions. <em>Sci Rep</em> 14, 8253 (2024). https://doi.org/10.1038/s41598-024-58812-2"</p> <p>The source code for setting up the Deep Learning application can be found in the GitHub repository https://github.com/barma7/Deep_Learning_for_Muscle_T2_mapping.git</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.