Category:Cell mechanics

**cell mechanics**
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This category has the following 2 subcategories, out of 2 total.

C

Cell motility (1 C, 970 F)

V

Videos of cell mechanics (1 C)

Media in category "Cell mechanics"

The following 200 files are in this category, out of 267 total.

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A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s003.ogv 2.0 s, 295 × 202; 344 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s004.ogv 6.0 s, 253 × 212; 475 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s005.ogv 8.0 s, 241 × 319; 2.5 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s006.ogv 2.9 s, 834 × 855; 1.75 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s007.ogv 3.2 s, 810 × 808; 1.25 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s008.ogv 4.0 s, 1,200 × 900; 875 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s009.ogv 3.6 s, 1,200 × 900; 955 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s010.ogv 20 s, 1,122 × 764; 15.29 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s011.ogv 20 s, 1,122 × 764; 11.35 MB
A-Possible-Role-for-Integrin-Signaling-in-Diffuse-Axonal-Injury-pone.0022899.s011.ogv 3.4 s, 640 × 480; 605 KB
A-Possible-Role-for-Integrin-Signaling-in-Diffuse-Axonal-Injury-pone.0022899.s012.ogv 3.0 s, 560 × 992; 815 KB
A-Possible-Role-for-Integrin-Signaling-in-Diffuse-Axonal-Injury-pone.0022899.s013.ogv 1.3 s, 1,024 × 1,024; 1.02 MB
An-Intact-Centrosome-Is-Required-for-the-Maintenance-of-Polarization-during-Directional-Cell-pone.0015462.s004.ogv 46 s, 630 × 480; 4.56 MB
An-Intact-Centrosome-Is-Required-for-the-Maintenance-of-Polarization-during-Directional-Cell-pone.0015462.s005.ogv 13 s, 640 × 480; 728 KB
An-Intact-Centrosome-Is-Required-for-the-Maintenance-of-Polarization-during-Directional-Cell-pone.0015462.s006.ogv 11 s, 640 × 480; 967 KB
An-Osmotic-Model-of-the-Growing-Pollen-Tube-pone.0036585.s004.ogv 9.6 s, 512 × 512; 1.93 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s003.ogv 22 s, 512 × 384; 2.31 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s004.ogv 10 s, 715 × 536; 1.2 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s005.ogv 8.5 s, 512 × 384; 2.1 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s006.ogv 14 s, 512 × 349; 2.83 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s007.ogv 22 s, 312 × 234; 2.31 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s008.ogv 8.5 s, 715 × 536; 918 KB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s009.ogv 20 s, 512 × 384; 1.26 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s010.ogv 24 s, 512 × 384; 1.25 MB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s011.ogv 7.2 s, 580 × 512; 468 KB
Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s012.ogv 7.2 s, 622 × 512; 761 KB
Atomic-Force-Mechanobiology-of-Pluripotent-Stem-Cell-Derived-Cardiomyocytes-pone.0037559.s002.ogv 5.1 s, 768 × 576; 654 KB
Atomic-Force-Mechanobiology-of-Pluripotent-Stem-Cell-Derived-Cardiomyocytes-pone.0037559.s003.ogv 4.9 s, 768 × 576; 1.18 MB
Automated-Cell-Identification-and-Tracking-Using-Nanoparticle-Moving-Light-Displays-pone.0040835.s002.ogv 35 s, 1,280 × 720; 945 KB
Automated-Cell-Identification-and-Tracking-Using-Nanoparticle-Moving-Light-Displays-pone.0040835.s003.ogv 48 s, 1,280 × 720; 10.38 MB
Automated-Cell-Identification-and-Tracking-Using-Nanoparticle-Moving-Light-Displays-pone.0040835.s004.ogv 45 s, 1,280 × 720; 1.73 MB
Automated-Cell-Identification-and-Tracking-Using-Nanoparticle-Moving-Light-Displays-pone.0040835.s005.ogv 49 s, 960 × 720; 4.6 MB
Biomechanics-and-the-Thermotolerance-of-Development-pone.0095670.s001.ogv 43 s, 980 × 480; 4.76 MB
Biomechanics-and-the-Thermotolerance-of-Development-pone.0095670.s002.ogv 5.8 s, 408 × 200; 4.15 MB
Bistable-Forespore-Engulfment-in-Bacillus-subtilis-by-a-Zipper-Mechanism-in-Absence-of-the-Cell-Wall-pcbi.1003912.s001.ogv 12 s, 134 × 137; 104 KB
Bistable-Forespore-Engulfment-in-Bacillus-subtilis-by-a-Zipper-Mechanism-in-Absence-of-the-Cell-Wall-pcbi.1003912.s002.ogv 1.8 s, 818 × 716; 829 KB
Bistable-Forespore-Engulfment-in-Bacillus-subtilis-by-a-Zipper-Mechanism-in-Absence-of-the-Cell-Wall-pcbi.1003912.s003.ogv 5.6 s, 1,000 × 484; 1.09 MB
Bistable-Forespore-Engulfment-in-Bacillus-subtilis-by-a-Zipper-Mechanism-in-Absence-of-the-Cell-Wall-pcbi.1003912.s004.ogv 12 s, 218 × 116; 55 KB
Calcium-Signaling-in-Live-Cells-on-Elastic-Gels-under-Mechanical-Vibration-at-Subcellular-Levels-pone.0026181.s001.ogv 15 s, 800 × 600; 3.12 MB
Calcium-Signaling-in-Live-Cells-on-Elastic-Gels-under-Mechanical-Vibration-at-Subcellular-Levels-pone.0026181.s002.ogv 29 s, 816 × 600; 1.66 MB
Calcium-Signaling-in-Live-Cells-on-Elastic-Gels-under-Mechanical-Vibration-at-Subcellular-Levels-pone.0026181.s003.ogv 29 s, 496 × 760; 532 KB
Calcium-Signaling-in-Live-Cells-on-Elastic-Gels-under-Mechanical-Vibration-at-Subcellular-Levels-pone.0026181.s004.ogv 29 s, 524 × 766; 333 KB
Calcium-Signaling-in-Live-Cells-on-Elastic-Gels-under-Mechanical-Vibration-at-Subcellular-Levels-pone.0026181.s005.ogv 8.3 s, 1,024 × 512; 846 KB
Calcium-Signaling-in-Live-Cells-on-Elastic-Gels-under-Mechanical-Vibration-at-Subcellular-Levels-pone.0026181.s006.ogv 18 s, 1,024 × 512; 429 KB
Cardiomyocyte-Imaging-Using-Real-Time-Spatial-Light-Interference-Microscopy-(SLIM)-pone.0056930.s001.ogv 12 s, 512 × 512; 2.84 MB
Cation-Type-Specific-Cell-Remodeling-Regulates-Attachment-Strength-pone.0102424.s008.ogv 5 min 17 s, 719 × 542; 1.82 MB
Cation-Type-Specific-Cell-Remodeling-Regulates-Attachment-Strength-pone.0102424.s009.ogv 4 min 57 s, 719 × 542; 1.16 MB
Cell-Elasticity-Determines-Macrophage-Function-pone.0041024.s001.ogv 15 s, 640 × 480; 1.44 MB
Cell-Elasticity-Determines-Macrophage-Function-pone.0041024.s002.ogv 11 s, 640 × 480; 1.99 MB
Cell-Elasticity-Determines-Macrophage-Function-pone.0041024.s003.ogv 8.7 s, 640 × 480; 952 KB
Cell-Origami-Self-Folding-of-Three-Dimensional-Cell-Laden-Microstructures-Driven-by-Cell-Traction-pone.0051085.s001.ogv 8.3 s, 320 × 240; 161 KB
Cell-Origami-Self-Folding-of-Three-Dimensional-Cell-Laden-Microstructures-Driven-by-Cell-Traction-pone.0051085.s002.ogv 8.1 s, 320 × 240; 131 KB
Cell-Origami-Self-Folding-of-Three-Dimensional-Cell-Laden-Microstructures-Driven-by-Cell-Traction-pone.0051085.s003.ogv 8.5 s, 320 × 240; 204 KB
Cell-Origami-Self-Folding-of-Three-Dimensional-Cell-Laden-Microstructures-Driven-by-Cell-Traction-pone.0051085.s004.ogv 13 s, 320 × 240; 202 KB
Cell-Origami-Self-Folding-of-Three-Dimensional-Cell-Laden-Microstructures-Driven-by-Cell-Traction-pone.0051085.s005.ogv 9.3 s, 320 × 240; 126 KB
Cell-Origami-Self-Folding-of-Three-Dimensional-Cell-Laden-Microstructures-Driven-by-Cell-Traction-pone.0051085.s006.ogv 9.4 s, 640 × 480; 4.82 MB
Chemotaxis-of-Dictyostelium-discoideum-Collective-Oscillation-of-Cellular-Contacts-pone.0054172.s008.ogv 20 s, 336 × 256; 6.58 MB
Chemotaxis-of-Dictyostelium-discoideum-Collective-Oscillation-of-Cellular-Contacts-pone.0054172.s009.ogv 20 s, 403 × 307; 425 KB
Chemotaxis-of-Dictyostelium-discoideum-Collective-Oscillation-of-Cellular-Contacts-pone.0054172.s010.ogv 20 s, 403 × 307; 9.4 MB
Collective-Dynamics-of-Active-Cytoskeletal-Networks-pone.0023798.s003.ogv 17 s, 336 × 358; 1.36 MB
Collective-Dynamics-of-Active-Cytoskeletal-Networks-pone.0023798.s004.ogv 17 s, 336 × 256; 197 KB
Collective-Dynamics-of-Active-Cytoskeletal-Networks-pone.0023798.s005.ogv 17 s, 336 × 256; 354 KB
Computational-Estimates-of-Membrane-Flow-and-Tension-Gradient-in-Motile-Cells-pone.0084524.s012.ogv 20 s, 800 × 600; 2.28 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s006.ogv 1 min 10 s, 192 × 224; 5.43 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s007.ogv 1 min 10 s, 180 × 220; 6.13 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s008.ogv 1 min 10 s, 184 × 183; 3.73 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s009.ogv 1 min 10 s, 163 × 154; 1.68 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s010.ogv 8.6 s, 494 × 265; 1.3 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s011.ogv 5.0 s, 490 × 352; 1.79 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s012.ogv 8.6 s, 486 × 242; 1.4 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s013.ogv 5.0 s, 506 × 344; 1.91 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s014.ogv 8.6 s, 489 × 243; 1.38 MB
Contractile-and-Mechanical-Properties-of-Epithelia-with-Perturbed-Actomyosin-Dynamics-pone.0095695.s015.ogv 5.0 s, 494 × 342; 2.48 MB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s006.ogv 10 s, 834 × 418; 1.9 MB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s007.ogv 10 s, 834 × 418; 2.13 MB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s008.ogv 27 s, 188 × 233; 969 KB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s009.ogv 10 s, 834 × 418; 1.88 MB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s010.ogv 10 s, 834 × 418; 1.68 MB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s011.ogv 10 s, 834 × 418; 1.85 MB
Deconvolution-of-the-Cellular-Force-Generating-Subsystems-that-Govern-Cytokinesis-Furrow-Ingression-pcbi.1002467.s012.ogv 44 s, 154 × 180; 464 KB
Deformation-of-Filamentous-Escherichia-coli-Cells-in-a-Microfluidic-Device-A-New-Technique-to-Study-pone.0083775.s009.ogv 4.2 s, 1,392 × 1,040; 1.98 MB
Deformation-of-Filamentous-Escherichia-coli-Cells-in-a-Microfluidic-Device-A-New-Technique-to-Study-pone.0083775.s010.ogv 1.4 s, 1,392 × 1,040; 127 KB
Deformation-of-Filamentous-Escherichia-coli-Cells-in-a-Microfluidic-Device-A-New-Technique-to-Study-pone.0083775.s011.ogv 1 min 40 s, 508 × 508; 782 KB
Dissecting-the-Nanoscale-Distributions-and-Functions-of-Microtubule-End-Binding-Proteins-EB1-and-ch-pone.0051442.s008.ogv 5.0 s, 729 × 443; 3.18 MB
Dissecting-the-Nanoscale-Distributions-and-Functions-of-Microtubule-End-Binding-Proteins-EB1-and-ch-pone.0051442.s009.ogv 4.9 s, 729 × 443; 2.85 MB
Dissecting-the-Nanoscale-Distributions-and-Functions-of-Microtubule-End-Binding-Proteins-EB1-and-ch-pone.0051442.s010.ogv 5.0 s, 735 × 443; 5.67 MB
Dissecting-the-Nanoscale-Distributions-and-Functions-of-Microtubule-End-Binding-Proteins-EB1-and-ch-pone.0051442.s011.ogv 4.9 s, 735 × 443; 1.46 MB
Dissecting-the-Nanoscale-Distributions-and-Functions-of-Microtubule-End-Binding-Proteins-EB1-and-ch-pone.0051442.s012.ogv 8.3 s, 600 × 600; 6.53 MB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s001.ogv 11 s, 500 × 400; 1.97 MB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s002.ogv 11 s, 500 × 400; 1.19 MB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s003.ogv 11 s, 500 × 400; 1.78 MB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s005.ogv 5.1 s, 512 × 352; 1.42 MB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s006.ogv 7.2 s, 500 × 350; 1.14 MB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s007.ogv 25 s, 500 × 400; 763 KB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s008.ogv 16 s, 500 × 400; 500 KB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s009.ogv 24 s, 500 × 400; 619 KB
DRhoGEF2-Regulates-Cellular-Tension-and-Cell-Pulsations-in-the-Amnioserosa-during-Drosophila-Dorsal-pone.0023964.s010.ogv 8.8 s, 234 × 188; 268 KB
Effect-of-Cell-Shape-and-Dimensionality-on-Spindle-Orientation-and-Mitotic-Timing-pone.0066918.s004.ogv 13 s, 640 × 480; 146 KB
Effect-of-Cell-Shape-and-Dimensionality-on-Spindle-Orientation-and-Mitotic-Timing-pone.0066918.s005.ogv 14 s, 640 × 480; 88 KB
Effect-of-Cell-Shape-and-Dimensionality-on-Spindle-Orientation-and-Mitotic-Timing-pone.0066918.s006.ogv 10 s, 640 × 480; 106 KB
Effect-of-Cell-Shape-and-Dimensionality-on-Spindle-Orientation-and-Mitotic-Timing-pone.0066918.s007.ogv 21 s, 640 × 480; 130 KB
Effects-of-Adhesion-Dynamics-and-Substrate-Compliance-on-the-Shape-and-Motility-of-Crawling-Cells-pone.0064511.s001.ogv 32 s, 512 × 512; 171 KB
Effects-of-Adhesion-Dynamics-and-Substrate-Compliance-on-the-Shape-and-Motility-of-Crawling-Cells-pone.0064511.s002.ogv 40 s, 512 × 512; 201 KB
Effects-of-Adhesion-Dynamics-and-Substrate-Compliance-on-the-Shape-and-Motility-of-Crawling-Cells-pone.0064511.s003.ogv 32 s, 512 × 512; 242 KB
Effects-of-Adhesion-Dynamics-and-Substrate-Compliance-on-the-Shape-and-Motility-of-Crawling-Cells-pone.0064511.s004.ogv 20 s, 512 × 512; 385 KB
Effects-of-Adhesion-Dynamics-and-Substrate-Compliance-on-the-Shape-and-Motility-of-Crawling-Cells-pone.0064511.s005.ogv 53 s, 512 × 512; 639 KB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s001.ogv 12 s, 388 × 409; 2.73 MB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s002.ogv 12 s, 388 × 409; 2.52 MB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s003.ogv 12 s, 581 × 408; 2.11 MB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s004.ogv 12 s, 583 × 408; 2.27 MB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s005.ogv 12 s, 583 × 408; 2.23 MB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s006.ogv 12 s, 388 × 409; 2.71 MB
Electro-Acoustic-Behavior-of-the-Mitotic-Spindle-A-Semi-Classical-Coarse-Grained-Model-pone.0086501.s007.ogv 12 s, 388 × 409; 2.44 MB
Escherichia-coli-Peptidoglycan-Structure-and-Mechanics-as-Predicted-by-Atomic-Scale-Simulations-pcbi.1003475.s008.ogv 0.0 s, 80 × 928; 2.62 MB
Escherichia-coli-Peptidoglycan-Structure-and-Mechanics-as-Predicted-by-Atomic-Scale-Simulations-pcbi.1003475.s009.ogv 0.0 s, 496 × 784; 47.38 MB
Escherichia-coli-Peptidoglycan-Structure-and-Mechanics-as-Predicted-by-Atomic-Scale-Simulations-pcbi.1003475.s010.ogv 0.0 s, 512 × 720; 20.47 MB
Experimental-Models-for-Investigating-Intra-Stromal-Migration-of-Corneal-Keratocytes-Fibroblasts-jfb-03-00183-s001.ogv 4.5 s, 512 × 512; 291 KB
High-Refractive-Index-Silicone-Gels-for-Simultaneous-Total-Internal-Reflection-Fluorescence-and-pone.0023807.s003.ogv 7.4 s, 256 × 256; 634 KB
High-Refractive-Index-Silicone-Gels-for-Simultaneous-Total-Internal-Reflection-Fluorescence-and-pone.0023807.s004.ogv 5.4 s, 256 × 256; 270 KB
High-Speed-Imaging-of-Amoeboid-Movements-Using-Light-Sheet-Microscopy-pone.0050846.s003.ogv 3.0 s, 600 × 400; 346 KB
High-Speed-Imaging-of-Amoeboid-Movements-Using-Light-Sheet-Microscopy-pone.0050846.s004.ogv 6.0 s, 336 × 256; 833 KB
High-Speed-Imaging-of-Amoeboid-Movements-Using-Light-Sheet-Microscopy-pone.0050846.s005.ogv 5.2 s, 384 × 288; 352 KB
High-Speed-Imaging-of-Amoeboid-Movements-Using-Light-Sheet-Microscopy-pone.0050846.s006.ogv 2.9 s, 336 × 256; 591 KB
High-Speed-Imaging-of-Amoeboid-Movements-Using-Light-Sheet-Microscopy-pone.0050846.s007.ogv 4.3 s, 336 × 256; 1.21 MB
High-Speed-Imaging-of-Amoeboid-Movements-Using-Light-Sheet-Microscopy-pone.0050846.s008.ogv 12 s, 800 × 600; 1.19 MB
Integrin-Dependent-Activation-of-the-JNK-Signaling-Pathway-by-Mechanical-Stress-pone.0026182.s010.ogv 49 s, 592 × 592; 1.13 MB
Lateral-Diffusion-on-Tubular-Membranes-Quantification-of-Measurements-Bias-pone.0025731.s005.ogv 33 s, 436 × 155; 2.36 MB
Lateral-Diffusion-on-Tubular-Membranes-Quantification-of-Measurements-Bias-pone.0025731.s006.ogv 8.1 s, 320 × 235; 373 KB
Magneto-Chemotaxis-in-Sediment-First-Insights-pone.0102810.s003.ogv 12 s, 960 × 540; 2.07 MB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s006.ogv 12 s, 420 × 250; 1.48 MB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s007.ogv 13 s, 200 × 300; 774 KB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s008.ogv 18 s, 178 × 216; 1.16 MB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s009.ogv 13 s, 320 × 320; 469 KB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s010.ogv 7.8 s, 306 × 312; 503 KB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s011.ogv 7.8 s, 220 × 220; 411 KB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s012.ogv 9.4 s, 420 × 250; 1.08 MB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s013.ogv 6.6 s, 312 × 268; 559 KB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s014.ogv 9.4 s, 462 × 228; 236 KB
Maturation-of-Filopodia-Shaft-Adhesions-Is-Upregulated-by-Local-Cycles-of-Lamellipodia-Advancements-pone.0107097.s015.ogv 7.8 s, 302 × 302; 379 KB
Mechanical-Overstimulation-of-Hair-Bundles-Suppression-and-Recovery-of-Active-Motility-pone.0058143.s003.ogv 17 s, 560 × 360; 563 KB
Mechanochemical-Modeling-of-Dynamic-Microtubule-Growth-Involving-Sheet-to-Tube-Transition-pone.0029049.s002.ogv 39 s, 420 × 240; 2.63 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s001.ogv 10 s, 720 × 720; 4.07 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s002.ogv 10 s, 720 × 720; 3.96 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s003.ogv 10 s, 720 × 720; 3.79 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s004.ogv 10 s, 720 × 720; 3.42 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s005.ogv 10 s, 720 × 720; 3.31 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s006.ogv 10 s, 720 × 720; 2.95 MB
Modeling-Filamentous-Cyanobacteria-Reveals-the-Advantages-of-Long-and-Fast-Trichomes-for-Optimizing-pone.0022084.s007.ogv 10 s, 720 × 720; 2.48 MB
Monocytic-Cells-Become-Less-Compressible-but-More-Deformable-upon-Activation-pone.0092814.s005.ogv 18 s, 640 × 480; 1.01 MB
Multi-Patterned-Dynamics-of-Mitochondrial-Fission-and-Fusion-in-a-Living-Cell-pone.0019879.s007.ogv 19 s, 320 × 240; 1.07 MB
Multicomponent-Analysis-of-Junctional-Movements-Regulated-by-Myosin-II-Isoforms-at-the-Epithelial-pone.0022458.s005.ogv 6.0 s, 450 × 343; 223 KB
Multicomponent-Analysis-of-Junctional-Movements-Regulated-by-Myosin-II-Isoforms-at-the-Epithelial-pone.0022458.s006.ogv 6.0 s, 450 × 450; 543 KB
Multicomponent-Analysis-of-Junctional-Movements-Regulated-by-Myosin-II-Isoforms-at-the-Epithelial-pone.0022458.s007.ogv 6.0 s, 450 × 450; 1,003 KB
Multicomponent-Analysis-of-Junctional-Movements-Regulated-by-Myosin-II-Isoforms-at-the-Epithelial-pone.0022458.s008.ogv 6.0 s, 450 × 450; 186 KB
Nuclear-Motility-in-Glioma-Cells-Reveals-a-Cell-Line-Dependent-Role-of-Various-Cytoskeletal-pone.0093431.s012.ogv 19 s, 1,248 × 512; 2.43 MB
Nuclear-Motility-in-Glioma-Cells-Reveals-a-Cell-Line-Dependent-Role-of-Various-Cytoskeletal-pone.0093431.s013.ogv 18 s, 1,344 × 512; 2.56 MB
Nuclear-Motility-in-Glioma-Cells-Reveals-a-Cell-Line-Dependent-Role-of-Various-Cytoskeletal-pone.0093431.s014.ogv 15 s, 672 × 512; 66 KB
Nuclear-Motility-in-Glioma-Cells-Reveals-a-Cell-Line-Dependent-Role-of-Various-Cytoskeletal-pone.0093431.s015.ogv 24 s, 672 × 512; 1.75 MB
Nuclear-Motility-in-Glioma-Cells-Reveals-a-Cell-Line-Dependent-Role-of-Various-Cytoskeletal-pone.0093431.s016.ogv 11 s, 511 × 388; 742 KB
Nuclear-Motility-in-Glioma-Cells-Reveals-a-Cell-Line-Dependent-Role-of-Various-Cytoskeletal-pone.0093431.s017.ogv 11 s, 1,536 × 759; 5.18 MB
Observation-of-Bacterial-Type-I-Pili-Extension-and-Contraction-under-Fluid-Flow-pone.0065563.s006.ogv 1 min 47 s, 320 × 240; 4.91 MB
Persistent-Cellular-Motion-Control-and-Trapping-Using-Mechanotactic-Signaling-pone.0105406.s008.ogv 20 s, 900 × 760; 2.38 MB
Persistent-Cellular-Motion-Control-and-Trapping-Using-Mechanotactic-Signaling-pone.0105406.s009.ogv 24 s, 900 × 760; 3.59 MB
Persistent-Cellular-Motion-Control-and-Trapping-Using-Mechanotactic-Signaling-pone.0105406.s010.ogv 32 s, 900 × 760; 3.54 MB
Persistent-Symmetry-Frustration-in-Pollen-Tubes-pone.0048087.s003.ogv 2.9 s, 567 × 411; 64 KB
Physically-Induced-Cytoskeleton-Remodeling-of-Cells-in-Three-Dimensional-Culture-pone.0045512.s010.ogv 8.0 s, 1,024 × 1,024; 146 KB
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Physically-Induced-Cytoskeleton-Remodeling-of-Cells-in-Three-Dimensional-Culture-pone.0045512.s013.ogv 7.0 s, 1,024 × 1,024; 260 KB
Physically-Induced-Cytoskeleton-Remodeling-of-Cells-in-Three-Dimensional-Culture-pone.0045512.s014.ogv 8.0 s, 1,024 × 1,024; 877 KB
Physically-Induced-Cytoskeleton-Remodeling-of-Cells-in-Three-Dimensional-Culture-pone.0045512.s015.ogv 7.0 s, 1,024 × 1,024; 119 KB
Physically-Induced-Cytoskeleton-Remodeling-of-Cells-in-Three-Dimensional-Culture-pone.0045512.s016.ogv 13 s, 640 × 480; 121 KB
Plithotaxis - Cells trekking rugged stress landscape.gif 876 × 1,039; 11.57 MB
Propagating-Cell-Membrane-Waves-Driven-by-Curved-Activators-of-Actin-Polymerization-pone.0018635.s002.ogv 4.3 s, 418 × 870; 695 KB
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Propagating-Cell-Membrane-Waves-Driven-by-Curved-Activators-of-Actin-Polymerization-pone.0018635.s004.ogv 50 s, 560 × 420; 9.19 MB
Propagating-Cell-Membrane-Waves-Driven-by-Curved-Activators-of-Actin-Polymerization-pone.0018635.s005.ogv 50 s, 560 × 420; 3.35 MB
Propagating-Cell-Membrane-Waves-Driven-by-Curved-Activators-of-Actin-Polymerization-pone.0018635.s006.ogv 1 min 7 s, 560 × 420; 1.45 MB
Quantitative-Characterization-of-Cell-Behaviors-through-Cell-Cycle-Progression-via-Automated-Cell-pone.0098762.s003.ogv 10 s, 406 × 309; 2.58 MB
Quantitative-Characterization-of-Cell-Behaviors-through-Cell-Cycle-Progression-via-Automated-Cell-pone.0098762.s004.ogv 10 s, 372 × 294; 6.43 MB
Quantitative-Characterization-of-Cell-Behaviors-through-Cell-Cycle-Progression-via-Automated-Cell-pone.0098762.s005.ogv 10 s, 385 × 294; 5.5 MB
Quantitative-Live-Imaging-of-Endogenous-DNA-Replication-in-Mammalian-Cells-pone.0045726.s005.ogv 16 s, 1,056 × 768; 8.02 MB
Quantitative-Live-Imaging-of-Endogenous-DNA-Replication-in-Mammalian-Cells-pone.0045726.s006.ogv 16 s, 592 × 576; 7.24 MB
Quantitative-Live-Imaging-of-Endogenous-DNA-Replication-in-Mammalian-Cells-pone.0045726.s007.ogv 15 s, 1,084 × 640; 5.18 MB
Quantitative-Live-Imaging-of-Endogenous-DNA-Replication-in-Mammalian-Cells-pone.0045726.s008.ogv 15 s, 624 × 600; 5.13 MB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s007.ogv 5.2 s, 1,270 × 614; 901 KB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s008.ogv 1 min 17 s, 358 × 336; 3.34 MB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s009.ogv 27 s, 640 × 480; 1.93 MB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s010.ogv 10 s, 410 × 259; 1.25 MB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s011.ogv 0.6 s, 126 × 314; 188 KB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s012.ogv 0.6 s, 126 × 314; 189 KB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s013.ogv 0.6 s, 126 × 314; 149 KB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s014.ogv 0.6 s, 126 × 314; 148 KB
Reconstruction-of-Active-Regular-Motion-in-Amoeba-Extract-Dynamic-Cooperation-between-Sol-and-Gel-pone.0070317.s015.ogv 0.7 s, 192 × 108; 163 KB
Role-of-Actin-Filaments-in-Correlating-Nuclear-Shape-and-Cell-Spreading-pone.0107895.s015.ogv 3.4 s, 826 × 755; 927 KB
Role-of-Actin-Filaments-in-Correlating-Nuclear-Shape-and-Cell-Spreading-pone.0107895.s016.ogv 6.1 s, 525 × 525; 2.15 MB
Role-of-Actin-Filaments-in-Correlating-Nuclear-Shape-and-Cell-Spreading-pone.0107895.s017.ogv 11 s, 850 × 878; 3.35 MB
Role-of-Actin-Filaments-in-Correlating-Nuclear-Shape-and-Cell-Spreading-pone.0107895.s018.ogv 4.8 s, 488 × 482; 3.09 MB
Role-of-Actin-Filaments-in-Correlating-Nuclear-Shape-and-Cell-Spreading-pone.0107895.s019.ogv 9.4 s, 728 × 732; 2.63 MB
Self-Rotation-of-Cells-in-an-Irrotational-AC-E-Field-in-an-Opto-Electrokinetics-Chip-pone.0051577.s003.ogv 20 s, 960 × 720; 2.58 MB

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