Category:Videos of theoretical biology

Subcategories

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

M

Media from Theoretical Biology & Medical Modelling (11 F)

R

Refractory Period Modulates the Spatiotemporal Evolution of Cortical Spreading Depression: A Computational Study (4 F)

Media in category "Videos of theoretical biology"

The following 196 files are in this category, out of 196 total.

A-Density-Dependent-Switch-Drives-Stochastic-Clustering-and-Polarization-of-Signaling-Molecules-pcbi.1002271.s005.ogv 29 s, 361 × 272; 4.46 MB
A-Density-Dependent-Switch-Drives-Stochastic-Clustering-and-Polarization-of-Signaling-Molecules-pcbi.1002271.s006.ogv 17 s, 361 × 272; 2.34 MB
A-Developmental-Model-for-Branching-Morphogenesis-of-Lake-Cress-Compound-Leaf-pone.0111615.s001.ogv 9.4 s, 950 × 300; 164 KB
A-Developmental-Model-for-Branching-Morphogenesis-of-Lake-Cress-Compound-Leaf-pone.0111615.s002.ogv 9.2 s, 360 × 306; 494 KB
A-Developmental-Model-for-Branching-Morphogenesis-of-Lake-Cress-Compound-Leaf-pone.0111615.s003.ogv 9.9 s, 897 × 300; 128 KB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s003.ogv 50 s, 1,000 × 1,000; 9.53 MB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s004.ogv 50 s, 1,000 × 1,000; 11.97 MB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s005.ogv 50 s, 1,000 × 1,000; 5.61 MB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s006.ogv 50 s, 1,024 × 330; 8.24 MB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s007.ogv 50 s, 1,024 × 330; 9.13 MB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s008.ogv 50 s, 1,024 × 330; 3.75 MB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s009.ogv 10 s, 330 × 330; 441 KB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s010.ogv 10 s, 330 × 330; 364 KB
A-Study-of-Early-Afterdepolarizations-in-a-Model-for-Human-Ventricular-Tissue-pone.0084595.s011.ogv 10 s, 330 × 330; 529 KB
An-Individual-Oriented-Model-on-the-Emergence-of-Support-in-Fights-Its-Reciprocation-and-Exchange-pone.0037271.s008.ogv 4.1 s, 640 × 480; 153 KB
Automated-Reconstruction-Algorithm-for-Identification-of-3D-Architectures-of-Cribriform-Ductal-pone.0044011.s001.ogv 8.2 s, 640 × 480; 2.28 MB
Automated-Reconstruction-Algorithm-for-Identification-of-3D-Architectures-of-Cribriform-Ductal-pone.0044011.s002.ogv 14 s, 640 × 480; 2.65 MB
Barriers-to-Diffusion-in-Dendrites-and-Estimation-of-Calcium-Spread-Following-Synaptic-Inputs-pcbi.1002182.s001.ogv 12 s, 3,200 × 2,400; 20.35 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
Catastrophic-Collapse-Can-Occur-without-Early-Warning-Examples-of-Silent-Catastrophes-in-Structured-pone.0062033.s001.ogv 24 s, 850 × 650; 4.97 MB
Catastrophic-Collapse-Can-Occur-without-Early-Warning-Examples-of-Silent-Catastrophes-in-Structured-pone.0062033.s002.ogv 24 s, 850 × 650; 5.22 MB
Chaste-An-Open-Source-C++-Library-for-Computational-Physiology-and-Biology-pcbi.1002970.s003.ogv 30 s, 1,348 × 772; 7.48 MB
Chaste-An-Open-Source-C++-Library-for-Computational-Physiology-and-Biology-pcbi.1002970.s004.ogv 1 min 15 s, 1,036 × 852; 17.99 MB
Chaste-An-Open-Source-C++-Library-for-Computational-Physiology-and-Biology-pcbi.1002970.s005.ogv 20 s, 455 × 455; 1.65 MB
Chaste-An-Open-Source-C++-Library-for-Computational-Physiology-and-Biology-pcbi.1002970.s006.ogv 3.7 s, 1,412 × 952; 229 KB
Chemotaxis-in-Densely-Populated-Tissue-Determines-Germinal-Center-Anatomy-and-Cell-Motility-A-New-pone.0027650.s008.ogv 5.9 s, 580 × 520; 552 KB
Chemotaxis-in-Densely-Populated-Tissue-Determines-Germinal-Center-Anatomy-and-Cell-Motility-A-New-pone.0027650.s009.ogv 25 s, 324 × 424; 9.68 MB
Chemotaxis-in-Densely-Populated-Tissue-Determines-Germinal-Center-Anatomy-and-Cell-Motility-A-New-pone.0027650.s010.ogv 22 s, 336 × 364; 7.33 MB
Confining-Domains-Lead-to-Reaction-Bursts-Reaction-Kinetics-in-the-Plasma-Membrane-pone.0032948.s006.ogv 44 s, 1,280 × 480; 6.34 MB
Domestic-Dogs-Use-Contextual-Information-and-Tone-of-Voice-when-following-a-Human-Pointing-Gesture-pone.0021676.s001.ogv 28 s, 375 × 288; 521 KB
Dynamics-between-Cancer-Cell-Subpopulations-Reveals-a-Model-Coordinating-with-Both-Hierarchical-and-pone.0084654.s006.ogv 1 min 40 s, 678 × 679; 2.19 MB
Dynamics-between-Cancer-Cell-Subpopulations-Reveals-a-Model-Coordinating-with-Both-Hierarchical-and-pone.0084654.s007.ogv 1 min 40 s, 678 × 679; 2.04 MB
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
Evidence-for-a-Time-Invariant-Phase-Variable-in-Human-Ankle-Control-pone.0089163.s001.ogv 41 s, 856 × 480; 6.04 MB
Fast-Synchronization-of-Ultradian-Oscillators-Controlled-by-Delta-Notch-Signaling-with-Cis-pcbi.1003843.s007.ogv 29 s, 248 × 248; 3 MB
Fast-Synchronization-of-Ultradian-Oscillators-Controlled-by-Delta-Notch-Signaling-with-Cis-pcbi.1003843.s008.ogv 21 s, 276 × 260; 2.17 MB
Fast-Synchronization-of-Ultradian-Oscillators-Controlled-by-Delta-Notch-Signaling-with-Cis-pcbi.1003843.s009.ogv 10 s, 1,360 × 172; 2.78 MB
Fast-Synchronization-of-Ultradian-Oscillators-Controlled-by-Delta-Notch-Signaling-with-Cis-pcbi.1003843.s010.ogv 16 s, 1,360 × 176; 2.55 MB
Fast-Synchronization-of-Ultradian-Oscillators-Controlled-by-Delta-Notch-Signaling-with-Cis-pcbi.1003843.s011.ogv 13 s, 1,360 × 172; 2.87 MB
Fast-Synchronization-of-Ultradian-Oscillators-Controlled-by-Delta-Notch-Signaling-with-Cis-pcbi.1003843.s012.ogv 12 s, 1,360 × 160; 3.23 MB
Filament-Depolymerization-Can-Explain-Chromosome-Pulling-during-Bacterial-Mitosis-pcbi.1002145.s009.ogv 54 s, 1,036 × 690; 20.84 MB
Filament-Depolymerization-Can-Explain-Chromosome-Pulling-during-Bacterial-Mitosis-pcbi.1002145.s010.ogv 22 s, 1,036 × 690; 10.5 MB
Filament-Depolymerization-Can-Explain-Chromosome-Pulling-during-Bacterial-Mitosis-pcbi.1002145.s011.ogv 32 s, 1,036 × 690; 11.71 MB
From-Molecular-Signal-Activation-to-Locomotion-An-Integrated-Multiscale-Analysis-of-Cell-Motility-pone.0018423.s002.ogv 1.6 s, 285 × 236; 16 KB
From-Molecular-Signal-Activation-to-Locomotion-An-Integrated-Multiscale-Analysis-of-Cell-Motility-pone.0018423.s003.ogv 3.0 s, 297 × 174; 17 KB
Functional-Motions-of-Candida-antarctica-Lipase-B-A-Survey-through-Open-Close-Conformations-pone.0040327.s013.ogv 0.0 s, 656 × 816; 14.42 MB
Functional-Motions-of-Candida-antarctica-Lipase-B-A-Survey-through-Open-Close-Conformations-pone.0040327.s014.ogv 0.0 s, 656 × 688; 8.09 MB
Fusion-of-Protein-Aggregates-Facilitates-Asymmetric-Damage-Segregation-pbio.1001886.s005.ogv 8.7 s, 212 × 218; 280 KB
Fusion-of-Protein-Aggregates-Facilitates-Asymmetric-Damage-Segregation-pbio.1001886.s006.ogv 8.7 s, 224 × 242; 239 KB
Fusion-of-Protein-Aggregates-Facilitates-Asymmetric-Damage-Segregation-pbio.1001886.s007.ogv 8.7 s, 220 × 180; 535 KB
Interstitial-Fluid-Flow-and-Drug-Delivery-in-Vascularized-Tumors-A-Computational-Model-pone.0070395.s014.ogv 21 s, 1,200 × 1,200; 6.64 MB
Interstitial-Fluid-Flow-and-Drug-Delivery-in-Vascularized-Tumors-A-Computational-Model-pone.0070395.s015.ogv 21 s, 1,200 × 1,200; 6.77 MB
Interstitial-Fluid-Flow-and-Drug-Delivery-in-Vascularized-Tumors-A-Computational-Model-pone.0070395.s016.ogv 9.7 s, 480 × 480; 652 KB
Interstitial-Fluid-Flow-and-Drug-Delivery-in-Vascularized-Tumors-A-Computational-Model-pone.0070395.s017.ogv 9.7 s, 480 × 480; 1.35 MB
Interstitial-Fluid-Flow-and-Drug-Delivery-in-Vascularized-Tumors-A-Computational-Model-pone.0070395.s018.ogv 9.7 s, 480 × 480; 1.32 MB
Interstitial-Fluid-Flow-and-Drug-Delivery-in-Vascularized-Tumors-A-Computational-Model-pone.0070395.s019.ogv 9.7 s, 480 × 480; 589 KB
Live-Imaging-Based-Model-Selection-Reveals-Periodic-Regulation-of-the-Stochastic-G1S-Phase-pcbi.1003957.s010.ogv 6.0 s, 512 × 512; 4.9 MB
Live-Imaging-Based-Model-Selection-Reveals-Periodic-Regulation-of-the-Stochastic-G1S-Phase-pcbi.1003957.s011.ogv 20 s, 1,000 × 80; 111 KB
Live-Imaging-Based-Model-Selection-Reveals-Periodic-Regulation-of-the-Stochastic-G1S-Phase-pcbi.1003957.s012.ogv 20 s, 1,000 × 80; 120 KB
Live-Imaging-Based-Model-Selection-Reveals-Periodic-Regulation-of-the-Stochastic-G1S-Phase-pcbi.1003957.s013.ogv 20 s, 1,000 × 80; 120 KB
Magneto-Chemotaxis-in-Sediment-First-Insights-pone.0102810.s003.ogv 12 s, 960 × 540; 2.07 MB
Magneto-Chemotaxis-in-Sediment-First-Insights-pone.0102810.s004.ogv 1 min 5 s, 768 × 576; 14 MB
Magneto-Chemotaxis-in-Sediment-First-Insights-pone.0102810.s005.ogv 1 min 49 s, 1,920 × 1,080; 10.53 MB
Mathematical-Modeling-of-Human-Glioma-Growth-Based-on-Brain-Topological-Structures-Study-of-Two-pone.0039616.s001.ogv 41 s, 640 × 480; 1.34 MB
Mathematical-Modeling-of-Human-Glioma-Growth-Based-on-Brain-Topological-Structures-Study-of-Two-pone.0039616.s002.ogv 37 s, 640 × 480; 1.32 MB
Mechanistic-Basis-of-Branch-Site-Selection-in-Filamentous-Bacteria-pcbi.1002423.s012.ogv 10 s, 372 × 579; 63 KB
Mechanistic-Basis-of-Branch-Site-Selection-in-Filamentous-Bacteria-pcbi.1002423.s013.ogv 8.0 s, 578 × 578; 56 KB
Melanoma-Cells-Break-Down-LPA-to-Establish-Local-Gradients-That-Drive-Chemotactic-Dispersal-pbio.1001966.s004.ogv 12 s, 476 × 724; 2.72 MB
Melanoma-Cells-Break-Down-LPA-to-Establish-Local-Gradients-That-Drive-Chemotactic-Dispersal-pbio.1001966.s005.ogv 10 s, 1,044 × 780; 2.66 MB
Melanoma-Cells-Break-Down-LPA-to-Establish-Local-Gradients-That-Drive-Chemotactic-Dispersal-pbio.1001966.s006.ogv 12 s, 448 × 722; 2.03 MB
Melanoma-Cells-Break-Down-LPA-to-Establish-Local-Gradients-That-Drive-Chemotactic-Dispersal-pbio.1001966.s007.ogv 18 s, 968 × 612; 2.12 MB
Melanoma-Cells-Break-Down-LPA-to-Establish-Local-Gradients-That-Drive-Chemotactic-Dispersal-pbio.1001966.s008.ogv 2.6 s, 668 × 636; 1,010 KB
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
Multi-scale-Inference-of-Interaction-Rules-in-Animal-Groups-Using-Bayesian-Model-Selection-pcbi.1002961.s014.ogv 6 min 41 s, 640 × 480; 7.65 MB
Multicellular-Computing-Using-Conjugation-for-Wiring-pone.0065986.s010.ogv 22 s, 640 × 480; 7.46 MB
Multicellular-Computing-Using-Conjugation-for-Wiring-pone.0065986.s011.ogv 22 s, 640 × 480; 3.51 MB
New-Mechanism-of-Spiral-Wave-Initiation-in-a-Reaction-Diffusion-Mechanics-System-pone.0027264.s001.ogv 0.0 s, 428 × 402; 1.77 MB
New-Mechanism-of-Spiral-Wave-Initiation-in-a-Reaction-Diffusion-Mechanics-System-pone.0027264.s002.ogv 6.9 s, 300 × 282; 1.46 MB
New-Mechanism-of-Spiral-Wave-Initiation-in-a-Reaction-Diffusion-Mechanics-System-pone.0027264.s003.ogv 20 s, 428 × 402; 6.05 MB
On-Lattice-Simulation-of-T-Cell-Motility-Chemotaxis-and-Trafficking-in-the-Lymph-Node-Paracortex-pone.0045258.s001.ogv 1 min 36 s, 512 × 512; 4.35 MB
On-Lattice-Simulation-of-T-Cell-Motility-Chemotaxis-and-Trafficking-in-the-Lymph-Node-Paracortex-pone.0045258.s002.ogv 1 min 36 s, 512 × 512; 3.99 MB
On-Lattice-Simulation-of-T-Cell-Motility-Chemotaxis-and-Trafficking-in-the-Lymph-Node-Paracortex-pone.0045258.s003.ogv 32 s, 512 × 512; 2.56 MB
On-Lattice-Simulation-of-T-Cell-Motility-Chemotaxis-and-Trafficking-in-the-Lymph-Node-Paracortex-pone.0045258.s004.ogv 1 min 36 s, 512 × 512; 1.35 MB
On-Lattice-Simulation-of-T-Cell-Motility-Chemotaxis-and-Trafficking-in-the-Lymph-Node-Paracortex-pone.0045258.s005.ogv 1 min 36 s, 512 × 512; 939 KB
Oscillatory-Behavior-of-Neutrophils-under-Opposing-Chemoattractant-Gradients-Supports-a-Winner-Take-pone.0085726.s013.ogv 12 s, 1,388 × 1,040; 1.66 MB
Oscillatory-Behavior-of-Neutrophils-under-Opposing-Chemoattractant-Gradients-Supports-a-Winner-Take-pone.0085726.s014.ogv 12 s, 1,388 × 1,040; 2.09 MB
Oscillatory-Behavior-of-Neutrophils-under-Opposing-Chemoattractant-Gradients-Supports-a-Winner-Take-pone.0085726.s015.ogv 36 s, 1,388 × 1,040; 4.78 MB
Oscillatory-Protein-Expression-Dynamics-Endows-Stem-Cells-with-Robust-Differentiation-Potential-pone.0027232.s006.ogv 0.0 s, 1,280 × 800; 36.22 MB
Oscillatory-Protein-Expression-Dynamics-Endows-Stem-Cells-with-Robust-Differentiation-Potential-pone.0027232.s007.ogv 43 s, 1,280 × 800; 14.18 MB
Oscillatory-Protein-Expression-Dynamics-Endows-Stem-Cells-with-Robust-Differentiation-Potential-pone.0027232.s008.ogv 0.0 s, 1,280 × 800; 36.07 MB
Oscillatory-Protein-Expression-Dynamics-Endows-Stem-Cells-with-Robust-Differentiation-Potential-pone.0027232.s009.ogv 1 min 24 s, 1,440 × 896; 44.12 MB
Persistent-Symmetry-Frustration-in-Pollen-Tubes-pone.0048087.s001.ogv 6.6 s, 560 × 420; 793 KB
Persistent-Symmetry-Frustration-in-Pollen-Tubes-pone.0048087.s002.ogv 7.3 s, 560 × 420; 826 KB
Persistent-Symmetry-Frustration-in-Pollen-Tubes-pone.0048087.s003.ogv 2.9 s, 567 × 411; 64 KB
Predictive-Models-of-Type-1-Diabetes-Progression-Understanding-T-Cell-Cycles-and-Their-Implications-pone.0093326.s002.ogv 15 s, 888 × 764; 1.72 MB
Predictive-Models-of-Type-1-Diabetes-Progression-Understanding-T-Cell-Cycles-and-Their-Implications-pone.0093326.s003.ogv 15 s, 888 × 764; 1.55 MB
Preserving-Neural-Function-under-Extreme-Scaling-pone.0071540.s002.ogv 2.1 s, 947 × 948; 594 KB
Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s001.ogv 27 s, 600 × 716; 7.98 MB
Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s002.ogv 27 s, 600 × 750; 5.3 MB
Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s003.ogv 1 min 7 s, 600 × 750; 8.04 MB
Quantifying-and-Tracing-Information-Cascades-in-Swarms-pone.0040084.s004.ogv 1 min 7 s, 600 × 750; 4.96 MB
Quantifying-the-Dynamics-of-Coupled-Networks-of-Switches-and-Oscillators-pone.0029497.s001.ogv 8.3 s, 560 × 420; 368 KB
Quantifying-the-Dynamics-of-Coupled-Networks-of-Switches-and-Oscillators-pone.0029497.s002.ogv 6.7 s, 560 × 420; 206 KB
Quantifying-the-Dynamics-of-Coupled-Networks-of-Switches-and-Oscillators-pone.0029497.s003.ogv 6.7 s, 560 × 420; 168 KB
Quantifying-the-Dynamics-of-Coupled-Networks-of-Switches-and-Oscillators-pone.0029497.s004.ogv 8.3 s, 560 × 420; 734 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s010.ogv 28 s, 242 × 236; 459 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s011.ogv 28 s, 242 × 236; 688 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s012.ogv 28 s, 242 × 236; 730 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s013.ogv 28 s, 242 × 236; 832 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s014.ogv 25 s, 435 × 294; 6.75 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s015.ogv 19 s, 339 × 294; 4.76 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s016.ogv 15 s, 276 × 267; 3.21 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s017.ogv 18 s, 342 × 285; 4.26 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s018.ogv 23 s, 153 × 153; 2.41 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s019.ogv 13 s, 276 × 231; 2.23 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s020.ogv 16 s, 285 × 216; 2.57 MB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s021.ogv 7.1 s, 333 × 325; 364 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s022.ogv 10 s, 324 × 331; 239 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s023.ogv 10 s, 346 × 330; 271 KB
Reaction-Diffusion-Pattern-in-Shoot-Apical-Meristem-of-Plants-pone.0018243.s024.ogv 9.2 s, 323 × 316; 220 KB
Shape-Self-Regulation-in-Early-Lung-Morphogenesis-pone.0036925.s007.ogv 18 s, 834 × 1,668; 2.09 MB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s002.ogv 11 s, 1,346 × 780; 787 KB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s003.ogv 32 s, 798 × 348; 2.92 MB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s004.ogv 38 s, 1,920 × 1,080; 22.52 MB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s005.ogv 6.8 s, 1,920 × 1,080; 1.33 MB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s006.ogv 22 s, 1,450 × 758; 2.37 MB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s007.ogv 8.0 s, 1,294 × 512; 541 KB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s008.ogv 24 s, 1,698 × 730; 4.28 MB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s009.ogv 18 s, 960 × 540; 594 KB
Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s010.ogv 6.9 s, 1,024 × 768; 715 KB
Smart-Swarms-of-Bacteria-Inspired-Agents-with-Performance-Adaptable-Interactions-pcbi.1002177.s005.ogv 44 s, 362 × 272; 4.23 MB
Smart-Swarms-of-Bacteria-Inspired-Agents-with-Performance-Adaptable-Interactions-pcbi.1002177.s006.ogv 34 s, 362 × 272; 3.5 MB
Smart-Swarms-of-Bacteria-Inspired-Agents-with-Performance-Adaptable-Interactions-pcbi.1002177.s007.ogv 26 s, 362 × 272; 2.31 MB
Smart-Swarms-of-Bacteria-Inspired-Agents-with-Performance-Adaptable-Interactions-pcbi.1002177.s008.ogv 34 s, 362 × 272; 3.16 MB
Smart-Swarms-of-Bacteria-Inspired-Agents-with-Performance-Adaptable-Interactions-pcbi.1002177.s009.ogv 37 s, 362 × 272; 3.45 MB
Smart-Swarms-of-Bacteria-Inspired-Agents-with-Performance-Adaptable-Interactions-pcbi.1002177.s010.ogv 24 s, 362 × 272; 2.18 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s004.ogv 9.4 s, 640 × 480; 4.42 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s005.ogv 13 s, 640 × 480; 9 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s006.ogv 23 s, 320 × 216; 4.69 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s007.ogv 14 s, 640 × 480; 1.02 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s008.ogv 6.3 s, 640 × 480; 2.47 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s009.ogv 7.1 s, 624 × 416; 6.42 MB
Some-Causes-of-the-Variable-Shape-of-Flocks-of-Birds-pone.0022479.s010.ogv 29 s, 320 × 240; 1.92 MB
Spatial-Organization-of-Mesenchymal-Stem-Cells-In-Vitro—Results-from-a-New-Individual-Cell-Based-pone.0021960.s008.ogv 30 s, 512 × 512; 10.4 MB
Spatial-Organization-of-Mesenchymal-Stem-Cells-In-Vitro—Results-from-a-New-Individual-Cell-Based-pone.0021960.s009.ogv 30 s, 512 × 512; 857 KB
Spatial-Organization-of-Mesenchymal-Stem-Cells-In-Vitro—Results-from-a-New-Individual-Cell-Based-pone.0021960.s010.ogv 30 s, 512 × 512; 10.84 MB
Spatial-Organization-of-Mesenchymal-Stem-Cells-In-Vitro—Results-from-a-New-Individual-Cell-Based-pone.0021960.s011.ogv 30 s, 182 × 1,448; 3.55 MB
Spatial-Organization-of-Mesenchymal-Stem-Cells-In-Vitro—Results-from-a-New-Individual-Cell-Based-pone.0021960.s012.ogv 30 s, 512 × 512; 10.66 MB
Spatial-Organization-of-Mesenchymal-Stem-Cells-In-Vitro—Results-from-a-New-Individual-Cell-Based-pone.0021960.s013.ogv 30 s, 512 × 512; 1.56 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s002.ogv 16 s, 150 × 572; 1.04 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s003.ogv 16 s, 150 × 572; 1.36 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s004.ogv 17 s, 150 × 572; 1.24 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s005.ogv 17 s, 150 × 572; 1.21 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s006.ogv 11 s, 156 × 572; 1,023 KB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s007.ogv 16 s, 156 × 572; 2.25 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s008.ogv 21 s, 156 × 572; 1.11 MB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s009.ogv 5.3 s, 156 × 572; 232 KB
Stability-of-Multispecies-Bacterial-Communities-Signaling-Networks-May-Stabilize-Microbiomes-pone.0057947.s010.ogv 13 s, 156 × 572; 798 KB
Structure-based-Molecular-Simulations-Reveal-the-Enhancement-of-Biased-Brownian-Motions-in-Single-pcbi.1002907.s009.ogv 1 min 2 s, 304 × 160; 2.86 MB
Structure-based-Molecular-Simulations-Reveal-the-Enhancement-of-Biased-Brownian-Motions-in-Single-pcbi.1002907.s010.ogv 1 min 25 s, 304 × 160; 3.72 MB
The-Neuronal-Transition-Probability-(NTP)-Model-for-the-Dynamic-Progression-of-Non-REM-Sleep-EEG-pone.0023593.s004.ogv 1 min 56 s, 640 × 480; 5.09 MB
The-Origin-of-Minus-end-Directionality-and-Mechanochemistry-of-Ncd-Motors-pcbi.1002783.s001.ogv 0.0 s, 976 × 832; 35.96 MB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s004.ogv 20 s, 96 × 106; 94 KB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s005.ogv 1 min 22 s, 80 × 80; 229 KB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s006.ogv 14 s, 100 × 100; 146 KB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s007.ogv 10 s, 100 × 100; 59 KB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s008.ogv 2 min 3 s, 100 × 103; 856 KB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s009.ogv 12 s, 59 × 45; 66 KB
The-Toxoplasma-Acto-MyoA-Motor-Complex-Is-Important-but-Not-Essential-for-Gliding-Motility-and-Host-pone.0091819.s010.ogv 39 s, 102 × 98; 403 KB
Two-Dimensionality-of-Yeast-Colony-Expansion-Accompanied-by-Pattern-Formation-pcbi.1003979.s015.ogv 1.6 s, 1,392 × 1,040; 13.54 MB
Two-Dimensionality-of-Yeast-Colony-Expansion-Accompanied-by-Pattern-Formation-pcbi.1003979.s016.ogv 1.6 s, 1,392 × 1,040; 10.63 MB
Two-Dimensionality-of-Yeast-Colony-Expansion-Accompanied-by-Pattern-Formation-pcbi.1003979.s017.ogv 4.3 s, 854 × 480; 419 KB
Two-Dimensionality-of-Yeast-Colony-Expansion-Accompanied-by-Pattern-Formation-pcbi.1003979.s018.ogv 6.3 s, 854 × 480; 2.6 MB
Two-Dimensionality-of-Yeast-Colony-Expansion-Accompanied-by-Pattern-Formation-pcbi.1003979.s019.ogv 21 s, 854 × 480; 146 KB
Two-Dimensionality-of-Yeast-Colony-Expansion-Accompanied-by-Pattern-Formation-pcbi.1003979.s020.ogv 10 s, 854 × 480; 73 KB
Understanding-the-Melanocyte-Distribution-in-Human-Epidermis-An-Agent-Based-Computational-Model-pone.0040377.s001.ogv 1 min 0 s, 640 × 480; 12.47 MB
Understanding-the-Melanocyte-Distribution-in-Human-Epidermis-An-Agent-Based-Computational-Model-pone.0040377.s002.ogv 1 min 0 s, 640 × 480; 9.77 MB
Understanding-the-Melanocyte-Distribution-in-Human-Epidermis-An-Agent-Based-Computational-Model-pone.0040377.s003.ogv 1 min 0 s, 640 × 480; 9.29 MB
Vocabulary-Learning-in-a-Yorkshire-Terrier-Slow-Mapping-of-Spoken-Words-pone.0030182.s001.ogv 38 s, 320 × 240; 3.69 MB
Vocabulary-Learning-in-a-Yorkshire-Terrier-Slow-Mapping-of-Spoken-Words-pone.0030182.s002.ogv 1 min 3 s, 320 × 240; 6.72 MB
Vocabulary-Learning-in-a-Yorkshire-Terrier-Slow-Mapping-of-Spoken-Words-pone.0030182.s003.ogv 56 s, 320 × 240; 4.06 MB
Vocabulary-Learning-in-a-Yorkshire-Terrier-Slow-Mapping-of-Spoken-Words-pone.0030182.s004.ogv 53 s, 320 × 240; 1.96 MB
Vocabulary-Learning-in-a-Yorkshire-Terrier-Slow-Mapping-of-Spoken-Words-pone.0030182.s005.ogv 59 s, 320 × 240; 2.13 MB