Category:Videos of cell migration

Media in category "Videos of cell migration"

The following 200 files are in this category, out of 533 total.

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2D-and-3D-Organized-Cardiac-Cells-Shows-Differences-in-Cellular-Morphology-Adhesion-Junctions-pone.0038147.s002.ogv 1.5 s, 512 × 533; 1.66 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s002.ogv 8.0 s, 1,284 × 982; 26.57 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s003.ogv 8.0 s, 1,284 × 982; 23 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s004.ogv 5.7 s, 1,920 × 1,084; 5.16 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s005.ogv 5.7 s, 1,920 × 1,084; 1.48 MB
A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s002.ogv 2.2 s, 480 × 360; 183 KB
A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s003.ogv 2.2 s, 480 × 360; 228 KB
A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s004.ogv 4.3 s, 480 × 360; 489 KB
A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s005.ogv 8.7 s, 480 × 360; 390 KB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s001.ogv 11 s, 436 × 567; 4.3 MB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s002.ogv 6.0 s, 816 × 2,086; 8.67 MB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s003.ogv 5.0 s, 816 × 1,490; 4.33 MB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s004.ogv 4.7 s, 892 × 339; 449 KB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s005.ogv 14 s, 1,174 × 532; 4.37 MB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s006.ogv 7.1 s, 318 × 268; 1.01 MB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s007.ogv 4.3 s, 446 × 438; 424 KB
A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s008.ogv 10 s, 376 × 310; 3.94 MB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s008.ogv 14 s, 500 × 447; 2.28 MB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s009.ogv 2.9 s, 612 × 598; 1.53 MB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s010.ogv 8.6 s, 1,000 × 522; 5.14 MB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s011.ogv 2.9 s, 1,024 × 1,024; 1.09 MB
A-Mathematical-Model-for-EphEphrin-Directed-Segregation-of-Intermingled-Cells-pone.0111803.s003.ogv 1 min 12 s, 640 × 480; 19.37 MB
A-Mathematical-Model-for-EphEphrin-Directed-Segregation-of-Intermingled-Cells-pone.0111803.s004.ogv 1 min 36 s, 640 × 480; 59.23 MB
A-Mathematical-Model-of-Collective-Cell-Migration-in-a-Three-Dimensional-Heterogeneous-Environment-pone.0122799.s001.ogv 14 s, 812 × 792; 280 KB
A-New-Method-to-Address-Unmet-Needs-for-Extracting-Individual-Cell-Migration-Features-from-a-Large-pone.0022263.s002.ogv 7.6 s, 600 × 450; 473 KB
A-New-Method-to-Address-Unmet-Needs-for-Extracting-Individual-Cell-Migration-Features-from-a-Large-pone.0022263.s003.ogv 13 s, 800 × 600; 2.55 MB
A-New-Method-to-Address-Unmet-Needs-for-Extracting-Individual-Cell-Migration-Features-from-a-Large-pone.0022263.s004.ogv 13 s, 800 × 356; 4.35 MB
A-New-Method-to-Address-Unmet-Needs-for-Extracting-Individual-Cell-Migration-Features-from-a-Large-pone.0022263.s005.ogv 14 s, 800 × 600; 1.4 MB
A-New-Method-to-Address-Unmet-Needs-for-Extracting-Individual-Cell-Migration-Features-from-a-Large-pone.0022263.s006.ogv 22 s, 800 × 600; 2.05 MB
A-New-Method-to-Address-Unmet-Needs-for-Extracting-Individual-Cell-Migration-Features-from-a-Large-pone.0022263.s007.ogv 29 s, 800 × 600; 1.86 MB
A-Novel-Chemotaxis-Assay-in-3-D-Collagen-Gels-by-Time-Lapse-Microscopy-pone.0052251.s001.ogv 12 s, 336 × 238; 121 KB
A-Photoactivatable-Nanopatterned-Substrate-for-Analyzing-Collective-Cell-Migration-with-Precisely-pone.0091875.s001.ogv 12 s, 334 × 334; 794 KB
A-Photoactivatable-Nanopatterned-Substrate-for-Analyzing-Collective-Cell-Migration-with-Precisely-pone.0091875.s002.ogv 12 s, 334 × 334; 658 KB
A-Portable-Chemotaxis-Platform-for-Short-and-Long-Term-Analysis-pone.0044995.s008.ogv 11 s, 800 × 600; 805 KB
A-Quorum-Sensing-Factor-in-Vegetative-Dictyostelium-Discoideum-Cells-Revealed-by-Quantitative-pone.0026901.s009.ogv 4.8 s, 294 × 67; 106 KB
A-Quorum-Sensing-Factor-in-Vegetative-Dictyostelium-Discoideum-Cells-Revealed-by-Quantitative-pone.0026901.s010.ogv 7.5 s, 1,168 × 354; 4.44 MB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s002.ogv 7.2 s, 696 × 520; 237 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s003.ogv 7.2 s, 696 × 520; 226 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s004.ogv 1.8 s, 696 × 520; 231 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s005.ogv 3.6 s, 696 × 520; 286 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s006.ogv 5.1 s, 696 × 520; 208 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s007.ogv 5.1 s, 696 × 520; 155 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s008.ogv 3.6 s, 696 × 520; 222 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s009.ogv 9.0 s, 696 × 520; 263 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s010.ogv 7.0 s, 696 × 520; 371 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s011.ogv 7.2 s, 696 × 520; 434 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s012.ogv 3.6 s, 696 × 520; 252 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s013.ogv 3.6 s, 696 × 520; 309 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s014.ogv 3.6 s, 696 × 520; 125 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s015.ogv 3.6 s, 696 × 520; 225 KB
A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s004.ogv 2.4 s, 346 × 512; 408 KB
A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s005.ogv 2.0 s, 276 × 512; 258 KB
A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s006.ogv 2.0 s, 326 × 511; 226 KB
A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s007.ogv 1.6 s, 333 × 464; 208 KB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s001.ogv 17 s, 1,200 × 800; 2.51 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s002.ogv 21 s, 1,200 × 800; 1.71 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s003.ogv 21 s, 1,200 × 800; 1.38 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s004.ogv 21 s, 1,200 × 800; 2.33 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s005.ogv 21 s, 1,200 × 800; 1.75 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s006.ogv 17 s, 1,200 × 800; 1.6 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s007.ogv 17 s, 1,200 × 800; 1.29 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s008.ogv 21 s, 1,200 × 800; 1.08 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s009.ogv 17 s, 1,200 × 800; 726 KB
Altering-FAK-Paxillin-Interactions-Reduces-Adhesion-Migration-and-Invasion-Processes-pone.0092059.s003.ogv 8.6 s, 241 × 224; 490 KB
Altering-FAK-Paxillin-Interactions-Reduces-Adhesion-Migration-and-Invasion-Processes-pone.0092059.s004.ogv 8.6 s, 300 × 232; 531 KB
Altering-FAK-Paxillin-Interactions-Reduces-Adhesion-Migration-and-Invasion-Processes-pone.0092059.s005.ogv 8.6 s, 274 × 274; 1.23 MB
An-Improved-Chamber-for-Direct-Visualisation-of-Chemotaxis-pone.0015309.s001.ogv 12 s, 316 × 538; 2.13 MB
An-Improved-Chamber-for-Direct-Visualisation-of-Chemotaxis-pone.0015309.s002.ogv 12 s, 316 × 531; 2.29 MB
Angiogenin-Enhances-Cell-Migration-by-Regulating-Stress-Fiber-Assembly-and-Focal-Adhesion-Dynamics-pone.0028797.s003.ogv 1.4 s, 426 × 320; 62 KB
Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s006.ogv 14 s, 1,000 × 200; 1.63 MB
Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s007.ogv 17 s, 848 × 316; 1.78 MB
Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s008.ogv 6.9 s, 970 × 500; 9.07 MB
Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s009.ogv 3.0 s, 500 × 400; 217 KB
Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s010.ogv 15 s, 650 × 364; 1.84 MB
Automated-Screening-of-Microtubule-Growth-Dynamics-Identifies-MARK2-as-a-Regulator-of-Leading-Edge-pone.0041413.s010.ogv 6.1 s, 1,264 × 418; 2.23 MB
Automated-Screening-of-Microtubule-Growth-Dynamics-Identifies-MARK2-as-a-Regulator-of-Leading-Edge-pone.0041413.s011.ogv 6.1 s, 2,268 × 804; 5.61 MB
Automated-Screening-of-Microtubule-Growth-Dynamics-Identifies-MARK2-as-a-Regulator-of-Leading-Edge-pone.0041413.s012.ogv 6.1 s, 1,052 × 574; 3.96 MB
Automated-Screening-of-Microtubule-Growth-Dynamics-Identifies-MARK2-as-a-Regulator-of-Leading-Edge-pone.0041413.s013.ogv 12 s, 1,384 × 518; 7.2 MB
Brain-Derived-Neurotrophic-Factor-Promotes-Vasculature-Associated-Migration-of-Neuronal-Precursors-pone.0055039.s002.ogv 17 s, 640 × 480; 166 KB
Brain-Derived-Neurotrophic-Factor-Promotes-Vasculature-Associated-Migration-of-Neuronal-Precursors-pone.0055039.s003.ogv 17 s, 854 × 480; 370 KB
Brain-Derived-Neurotrophic-Factor-Promotes-Vasculature-Associated-Migration-of-Neuronal-Precursors-pone.0055039.s004.ogv 16 s, 1,024 × 576; 231 KB
C3GRapgef1-Is-Required-in-Multipolar-Neurons-for-the-Transition-to-a-Bipolar-Morphology-during-pone.0154174.s009.ogv 4.6 s, 473 × 732; 1.44 MB
C3GRapgef1-Is-Required-in-Multipolar-Neurons-for-the-Transition-to-a-Bipolar-Morphology-during-pone.0154174.s010.ogv 5.2 s, 368 × 353; 675 KB
C3GRapgef1-Is-Required-in-Multipolar-Neurons-for-the-Transition-to-a-Bipolar-Morphology-during-pone.0154174.s011.ogv 4.6 s, 448 × 414; 197 KB
C3GRapgef1-Is-Required-in-Multipolar-Neurons-for-the-Transition-to-a-Bipolar-Morphology-during-pone.0154174.s012.ogv 4.8 s, 960 × 540; 644 KB
Cadherin-2-Is-Required-Cell-Autonomously-for-Collective-Migration-of-Facial-Branchiomotor-Neurons-pone.0164433.s004.ogv 0.5 s, 264 × 288; 46 KB
Cadherin-2-Is-Required-Cell-Autonomously-for-Collective-Migration-of-Facial-Branchiomotor-Neurons-pone.0164433.s005.ogv 0.6 s, 260 × 268; 26 KB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s001.ogv 20 s, 512 × 512; 4.89 MB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s002.ogv 6.5 s, 1,524 × 992; 427 KB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s003.ogv 39 s, 512 × 512; 3.48 MB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s004.ogv 9.0 s, 512 × 512; 2.03 MB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s005.ogv 9.0 s, 512 × 512; 2.21 MB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s006.ogv 3.0 s, 512 × 512; 145 KB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s007.ogv 22 s, 512 × 512; 2.18 MB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s008.ogv 26 s, 512 × 512; 3.45 MB
CCR2-Acts-as-Scavenger-for-CCL2-during-Monocyte-Chemotaxis-pone.0037208.s009.ogv 26 s, 388 × 392; 4.33 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s002.ogv 20 s, 1,280 × 720; 8.98 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s003.ogv 34 s, 1,280 × 720; 14.12 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s004.ogv 32 s, 1,280 × 720; 14.58 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s005.ogv 34 s, 1,280 × 720; 14.79 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s006.ogv 32 s, 576 × 560; 10.4 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s007.ogv 23 s, 1,280 × 720; 9 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s008.ogv 50 s, 400 × 400; 37.87 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s009.ogv 25 s, 528 × 512; 14.42 MB
Computer-Simulations-of-Cell-Sorting-Due-to-Differential-Adhesion-pone.0024999.s010.ogv 25 s, 512 × 496; 12.92 MB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s008.ogv 10 s, 1,024 × 512; 997 KB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s009.ogv 14 s, 228 × 512; 434 KB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s010.ogv 11 s, 364 × 302; 859 KB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s011.ogv 9.2 s, 1,634 × 637; 1.64 MB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s012.ogv 10 s, 650 × 512; 1.05 MB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s013.ogv 13 s, 1,024 × 512; 1.64 MB
Cooperative-Roles-of-SDF-1-and-EGF-Gradients-on-Tumor-Cell-Migration-Revealed-by-a-Robust-3D-pone.0068422.s001.ogv 12 s, 319 × 512; 3.24 MB
Cooperative-Roles-of-SDF-1-and-EGF-Gradients-on-Tumor-Cell-Migration-Revealed-by-a-Robust-3D-pone.0068422.s002.ogv 12 s, 319 × 512; 2.84 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s003.ogv 0.0 s, 544 × 496; 1.18 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s004.ogv 0.0 s, 544 × 496; 2.12 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s005.ogv 8.4 s, 544 × 496; 2.21 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s006.ogv 0.0 s, 816 × 272; 2.21 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s007.ogv 14 s, 1,824 × 544; 9.47 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s008.ogv 0.0 s, 544 × 496; 3.19 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s009.ogv 0.0 s, 544 × 496; 3.96 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s010.ogv 0.0 s, 608 × 256; 809 KB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s011.ogv 0.0 s, 608 × 256; 871 KB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s012.ogv 0.0 s, 608 × 256; 733 KB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s013.ogv 0.0 s, 800 × 496; 4.94 MB
Coordination-of-Cell-Differentiation-and-Migration-in-Mathematical-Models-of-Caudal-Embryonic-Axis-pone.0022700.s014.ogv 27 s, 1,200 × 496; 6.42 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s003.ogv 25 s, 854 × 480; 1.8 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s004.ogv 24 s, 854 × 480; 1.3 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s005.ogv 55 s, 854 × 480; 10.36 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s006.ogv 38 s, 854 × 480; 7.59 MB
Dictyostelium-Cells-Migrate-Similarly-on-Surfaces-of-Varying-Chemical-Composition-pone.0087981.s002.ogv 6.5 s, 520 × 520; 5.4 MB
Differential-Effects-of-Phosphatase-Inhibitors-on-the-Calcium-Homeostasis-and-Migration-of-HaCaT-pone.0061507.s001.ogv 1 min 35 s, 640 × 480; 18.48 MB
Differential-Effects-of-Phosphatase-Inhibitors-on-the-Calcium-Homeostasis-and-Migration-of-HaCaT-pone.0061507.s002.ogv 15 s, 640 × 480; 4.78 MB
Differential-Effects-of-Phosphatase-Inhibitors-on-the-Calcium-Homeostasis-and-Migration-of-HaCaT-pone.0061507.s003.ogv 16 s, 640 × 480; 2.06 MB
Differential-Effects-of-Tissue-Culture-Coating-Substrates-on-Prostate-Cancer-Cell-Adherence-pone.0112122.s006.ogv 39 s, 1,388 × 1,040; 6.65 MB
Differential-Effects-of-Tissue-Culture-Coating-Substrates-on-Prostate-Cancer-Cell-Adherence-pone.0112122.s007.ogv 39 s, 1,388 × 1,040; 11.03 MB
Differential-Effects-of-Tissue-Culture-Coating-Substrates-on-Prostate-Cancer-Cell-Adherence-pone.0112122.s008.ogv 39 s, 1,388 × 1,040; 6.86 MB
Differential-Effects-of-Tissue-Culture-Coating-Substrates-on-Prostate-Cancer-Cell-Adherence-pone.0112122.s009.ogv 39 s, 1,388 × 1,040; 6.86 MB
Differential-Effects-of-Tissue-Culture-Coating-Substrates-on-Prostate-Cancer-Cell-Adherence-pone.0112122.s010.ogv 39 s, 426 × 240; 2.35 MB
Differential-Effects-of-Tissue-Culture-Coating-Substrates-on-Prostate-Cancer-Cell-Adherence-pone.0112122.s011.ogv 39 s, 1,388 × 1,040; 5.96 MB
Directional-Collective-Cell-Migration-Emerges-as-a-Property-of-Cell-Interactions-pone.0104969.s009.ogv 4.1 s, 1,080 × 523; 1.57 MB
Directional-Collective-Cell-Migration-Emerges-as-a-Property-of-Cell-Interactions-pone.0104969.s010.ogv 4.5 s, 594 × 498; 638 KB
Directional-Collective-Cell-Migration-Emerges-as-a-Property-of-Cell-Interactions-pone.0104969.s011.ogv 5.3 s, 791 × 523; 552 KB
Directional-Collective-Cell-Migration-Emerges-as-a-Property-of-Cell-Interactions-pone.0104969.s012.ogv 5.3 s, 899 × 497; 860 KB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s008.ogv 22 s, 300 × 300; 1.19 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s009.ogv 26 s, 300 × 300; 2.01 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s010.ogv 22 s, 300 × 300; 1.43 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s011.ogv 13 s, 300 × 300; 838 KB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s012.ogv 20 s, 260 × 260; 1.12 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s013.ogv 45 s, 320 × 402; 15.65 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s014.ogv 45 s, 560 × 408; 24.53 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s015.ogv 23 s, 320 × 402; 10.09 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s016.ogv 45 s, 458 × 418; 14.56 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s017.ogv 40 s, 340 × 340; 14.89 MB
Dynamics-of-Cell-Ensembles-on-Adhesive-Micropatterns-Bridging-the-Gap-between-Single-Cell-Spreading-pcbi.1004863.s018.ogv 40 s, 340 × 340; 13.58 MB
Edn1-and-hand2-Interact-in-Early-Regulation-of-Pharyngeal-Arch-Outgrowth-during-Zebrafish-pone.0067522.s004.ogv 4.3 s, 1,100 × 491; 1.01 MB
EGL-20Wnt-and-MAB-5Hox-Act-Sequentially-to-Inhibit-Anterior-Migration-of-Neuroblasts-in-C.-elegans-pone.0148658.s001.ogv 17 s, 251 × 152; 669 KB
EGL-20Wnt-and-MAB-5Hox-Act-Sequentially-to-Inhibit-Anterior-Migration-of-Neuroblasts-in-C.-elegans-pone.0148658.s002.ogv 42 s, 381 × 180; 248 KB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s002.ogv 1 min 9 s, 558 × 450; 18.57 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s003.ogv 15 s, 564 × 450; 11.97 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s004.ogv 21 s, 928 × 450; 19.67 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s005.ogv 9.4 s, 491 × 450; 4.12 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s006.ogv 12 s, 923 × 450; 1.7 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s007.ogv 14 s, 654 × 450; 3.26 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s008.ogv 9.0 s, 818 × 450; 4.37 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s009.ogv 5.0 s, 540 × 450; 616 KB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s010.ogv 17 s, 600 × 450; 5.54 MB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s011.ogv 5.0 s, 512 × 512; 151 KB
Embryogenesis-of-the-First-Circulating-Endothelial-Cells-pone.0060841.s012.ogv 8.0 s, 710 × 450; 1.39 MB
Endocytosis-Regulates-Cell-Soma-Translocation-and-the-Distribution-of-Adhesion-Proteins-in-pone.0017802.s008.ogv 4.3 s, 291 × 303; 88 KB
Endocytosis-Regulates-Cell-Soma-Translocation-and-the-Distribution-of-Adhesion-Proteins-in-pone.0017802.s009.ogv 9.1 s, 352 × 288; 80 KB
Endocytosis-Regulates-Cell-Soma-Translocation-and-the-Distribution-of-Adhesion-Proteins-in-pone.0017802.s010.ogv 9.1 s, 384 × 288; 217 KB
Endocytosis-Regulates-Cell-Soma-Translocation-and-the-Distribution-of-Adhesion-Proteins-in-pone.0017802.s011.ogv 6.6 s, 384 × 288; 53 KB
Endocytosis-Regulates-Cell-Soma-Translocation-and-the-Distribution-of-Adhesion-Proteins-in-pone.0017802.s012.ogv 6.6 s, 353 × 288; 30 KB
Endometrial-Stromal-Cells-of-Women-with-Recurrent-Miscarriage-Fail-to-Discriminate-between-High-pone.0041424.s001.ogv 18 s, 1,388 × 1,040; 8.8 MB
Endometrial-Stromal-Cells-of-Women-with-Recurrent-Miscarriage-Fail-to-Discriminate-between-High-pone.0041424.s002.ogv 15 s, 1,388 × 1,040; 11.63 MB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s013.ogv 9.5 s, 696 × 520; 7.95 MB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s014.ogv 12 s, 480 × 480; 762 KB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s015.ogv 24 s, 696 × 520; 21.41 MB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s016.ogv 24 s, 696 × 520; 11.61 MB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s017.ogv 16 s, 696 × 520; 13.27 MB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s018.ogv 17 s, 696 × 520; 13.69 MB
Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s019.ogv 10 s, 696 × 520; 10.15 MB
ErbB2-Dependent-Chemotaxis-Requires-Microtubule-Capture-and-Stabilization-Coordinated-by-Distinct-pone.0055211.s008.ogv 8.0 s, 748 × 382; 404 KB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s004.ogv 7.8 s, 1,278 × 1,085; 2.22 MB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s005.ogv 6.9 s, 1,279 × 1,086; 3.34 MB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s006.ogv 10 s, 1,279 × 1,086; 2.87 MB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s007.ogv 12 s, 1,350 × 1,631; 21.27 MB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s008.ogv 12 s, 1,346 × 1,629; 17.89 MB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s009.ogv 9.6 s, 1,353 × 569; 7.25 MB
Fibronectin-Modulates-Cell-Adhesion-and-Signaling-to-Promote-Single-Cell-Migration-of-Highly-pone.0151338.s010.ogv 9.8 s, 640 × 632; 3.16 MB
Fluxes-of-Water-through-Aquaporin-9-Weaken-Membrane-Cytoskeleton-Anchorage-and-Promote-Formation-of-pone.0059901.s001.ogv 6.0 s, 1,027 × 504; 582 KB
Fluxes-of-Water-through-Aquaporin-9-Weaken-Membrane-Cytoskeleton-Anchorage-and-Promote-Formation-of-pone.0059901.s002.ogv 7.0 s, 678 × 356; 1.59 MB
Fluxes-of-Water-through-Aquaporin-9-Weaken-Membrane-Cytoskeleton-Anchorage-and-Promote-Formation-of-pone.0059901.s003.ogv 20 s, 630 × 384; 1.55 MB
Fluxes-of-Water-through-Aquaporin-9-Weaken-Membrane-Cytoskeleton-Anchorage-and-Promote-Formation-of-pone.0059901.s004.ogv 11 s, 880 × 341; 2.02 MB
Fluxes-of-Water-through-Aquaporin-9-Weaken-Membrane-Cytoskeleton-Anchorage-and-Promote-Formation-of-pone.0059901.s005.ogv 30 s, 169 × 207; 109 KB
Full-Length-Fibronectin-Drives-Fibroblast-Accumulation-at-the-Surface-of-Collagen-Microtissues-pone.0160369.s006.ogv 4.3 s, 512 × 512; 465 KB
Full-Length-Fibronectin-Drives-Fibroblast-Accumulation-at-the-Surface-of-Collagen-Microtissues-pone.0160369.s007.ogv 3.7 s, 512 × 512; 690 KB
Full-Length-Fibronectin-Drives-Fibroblast-Accumulation-at-the-Surface-of-Collagen-Microtissues-pone.0160369.s008.ogv 9.1 s, 512 × 512; 581 KB
Full-Length-Fibronectin-Drives-Fibroblast-Accumulation-at-the-Surface-of-Collagen-Microtissues-pone.0160369.s009.ogv 6.6 s, 512 × 512; 853 KB
Full-Length-Fibronectin-Drives-Fibroblast-Accumulation-at-the-Surface-of-Collagen-Microtissues-pone.0160369.s010.ogv 5.3 s, 512 × 512; 1.25 MB

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