Category:Biophysical simulations

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

Media in category "Biophysical simulations"

The following 200 files are in this category, out of 534 total.

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A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s009.ogv 5.0 s, 512 × 512; 972 KB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s010.ogv 5.0 s, 800 × 800; 2.1 MB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s011.ogv 16 s, 512 × 512; 1.88 MB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s012.ogv 5.1 s, 800 × 800; 2.4 MB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s013.ogv 8.4 s, 512 × 512; 1.04 MB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s014.ogv 3.7 s, 800 × 800; 1.23 MB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s015.ogv 16 s, 512 × 512; 2.29 MB
A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s016.ogv 3.1 s, 800 × 800; 666 KB
A-Causal-Relation-between-Bioluminescence-and-Oxygen-to-Quantify-the-Cell-Niche-pone.0097572.s011.ogv 11 s, 360 × 640; 363 KB
A-Kinematic-Approach-for-Efficient-and-Robust-Simulation-of-the-Cardiac-Beating-Motion-pone.0036706.s001.ogv 57 s, 640 × 480; 15.79 MB
A-Kinematic-Approach-for-Efficient-and-Robust-Simulation-of-the-Cardiac-Beating-Motion-pone.0036706.s002.ogv 47 s, 640 × 480; 18.37 MB
A-Kinematic-Approach-for-Efficient-and-Robust-Simulation-of-the-Cardiac-Beating-Motion-pone.0036706.s003.ogv 32 s, 720 × 360; 10.13 MB
A-Kinematic-Approach-for-Efficient-and-Robust-Simulation-of-the-Cardiac-Beating-Motion-pone.0036706.s004.ogv 41 s, 640 × 480; 11.73 MB
A-New-Coarse-Grained-Model-for-E.-coli-Cytoplasm-Accurate-Calculation-of-the-Diffusion-Coefficient-pone.0106466.s002.ogv 36 s, 512 × 288; 3.68 MB
A-Physiologically-Motivated-Compartment-Based-Model-of-the-Effect-of-Inhaled-Hypertonic-Saline-on-pone.0111972.s006.ogv 1.0 s, 1,392 × 1,040; 1.65 MB
A-Quantitative-Comparison-of-Single-Dye-Tracking-Analysis-Tools-Using-Monte-Carlo-Simulations-pone.0064287.s002.ogv 4.3 s, 320 × 320; 1.73 MB
A-Quantitative-Comparison-of-Single-Dye-Tracking-Analysis-Tools-Using-Monte-Carlo-Simulations-pone.0064287.s003.ogv 4.3 s, 321 × 321; 917 KB
A-Quantitative-Comparison-of-Single-Dye-Tracking-Analysis-Tools-Using-Monte-Carlo-Simulations-pone.0064287.s004.ogv 22 s, 214 × 205; 2.51 MB
A-Quantitative-Comparison-of-Single-Dye-Tracking-Analysis-Tools-Using-Monte-Carlo-Simulations-pone.0064287.s005.ogv 22 s, 216 × 206; 753 KB
A-Small-Physiological-Electric-Field-Mediated-Responses-of-Extravillous-Trophoblasts-Derived-from-pone.0092252.s002.ogv 11 s, 1,280 × 1,024; 1.34 MB
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
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s003.ogv 26 s, 760 × 398; 4.04 MB
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s004.ogv 26 s, 1,044 × 686; 2.17 MB
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s005.ogv 26 s, 718 × 394; 2.55 MB
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s006.ogv 26 s, 636 × 562; 3.06 MB
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s007.ogv 26 s, 1,324 × 568; 3.97 MB
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s008.ogv 26 s, 614 × 550; 3 MB
A-Three-Dimensional-Computational-Model-of-Collagen-Network-Mechanics-pone.0111896.s009.ogv 16 s, 1,254 × 690; 1.21 MB
A-Three-Dimensional-Human-Atrial-Model-with-Fiber-Orientation.-Electrograms-and-Arrhythmic-pone.0050883.s001.ogv 33 s, 404 × 280; 5.14 MB
A-Three-Dimensional-Human-Atrial-Model-with-Fiber-Orientation.-Electrograms-and-Arrhythmic-pone.0050883.s002.ogv 33 s, 404 × 280; 3.92 MB
A-Three-Dimensional-Human-Atrial-Model-with-Fiber-Orientation.-Electrograms-and-Arrhythmic-pone.0050883.s003.ogv 33 s, 404 × 280; 4.14 MB
A-Three-Dimensional-Human-Atrial-Model-with-Fiber-Orientation.-Electrograms-and-Arrhythmic-pone.0050883.s004.ogv 33 s, 404 × 280; 4.64 MB
Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s007.ogv 7.1 s, 435 × 343; 162 KB
Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s008.ogv 7.1 s, 435 × 343; 142 KB
Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s009.ogv 22 s, 389 × 734; 492 KB
Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s010.ogv 22 s, 389 × 734; 521 KB
Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s011.ogv 27 s, 389 × 734; 507 KB
Adding-Diverse-Noncanonical-Backbones-to-Rosetta-Enabling-Peptidomimetic-Design-pone.0067051.s003.ogv 35 s, 720 × 576; 76 KB
Agent-based-modeling-of-competence-phenotype-switching-in-Bacillus-subtilis-1742-4682-10-23-S1.ogv 49 s, 320 × 240; 2.5 MB
An-Advanced-Coarse-Grained-Nucleosome-Core-Particle-Model-for-Computer-Simulations-of-Nucleosome-pone.0054228.s011.ogv 30 s, 1,024 × 768; 21.42 MB
An-Advanced-Coarse-Grained-Nucleosome-Core-Particle-Model-for-Computer-Simulations-of-Nucleosome-pone.0054228.s012.ogv 30 s, 1,024 × 768; 29.01 MB
An-Advanced-Coarse-Grained-Nucleosome-Core-Particle-Model-for-Computer-Simulations-of-Nucleosome-pone.0054228.s013.ogv 30 s, 1,024 × 768; 30.61 MB
An-Induced-Pocket-for-the-Binding-of-Potent-Fusion-Inhibitor-CL-385319-with-H5N1-Influenza-Virus-pone.0041956.s001.ogv 3 min 36 s, 1,440 × 1,080; 35.13 MB
An-Intrinsically-Disordered-Region-of-the-Adenovirus-Capsid-Is-Implicated-in-Neutralization-by-pone.0061571.s004.ogv 37 s, 640 × 480; 10.39 MB
An-Intrinsically-Disordered-Region-of-the-Adenovirus-Capsid-Is-Implicated-in-Neutralization-by-pone.0061571.s005.ogv 22 s, 640 × 480; 9.14 MB
An-Osmotic-Model-of-the-Growing-Pollen-Tube-pone.0036585.s004.ogv 9.6 s, 512 × 512; 1.93 MB
Analysis-of-Initial-Cell-Spreading-Using-Mechanistic-Contact-Formulations-for-a-Deformable-Cell-pcbi.1003267.s005.ogv 5.4 s, 1,100 × 868; 4.2 MB
Analysis-of-Initial-Cell-Spreading-Using-Mechanistic-Contact-Formulations-for-a-Deformable-Cell-pcbi.1003267.s006.ogv 5.6 s, 1,000 × 868; 10.75 MB
Analysis-of-Initial-Cell-Spreading-Using-Mechanistic-Contact-Formulations-for-a-Deformable-Cell-pcbi.1003267.s007.ogv 1 min 30 s, 1,912 × 954; 5.41 MB
Angiogenesis-An-Adaptive-Dynamic-Biological-Patterning-Problem-pcbi.1002983.s001.ogv 27 s, 500 × 520; 3.41 MB
Antibodies-Covalently-Immobilized-on-Actin-Filaments-for-Fast-Myosin-Driven-Analyte-Transport-pone.0046298.s005.ogv 9.2 s, 512 × 512; 56 KB
Antibodies-Covalently-Immobilized-on-Actin-Filaments-for-Fast-Myosin-Driven-Analyte-Transport-pone.0046298.s006.ogv 17 s, 512 × 512; 382 KB
Antibodies-Covalently-Immobilized-on-Actin-Filaments-for-Fast-Myosin-Driven-Analyte-Transport-pone.0046298.s007.ogv 5.2 s, 512 × 512; 99 KB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s007.ogv 17 s, 504 × 478; 9.8 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s008.ogv 17 s, 504 × 478; 7.72 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s012.ogv 17 s, 504 × 478; 8.43 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s013.ogv 17 s, 504 × 478; 8.52 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s014.ogv 17 s, 504 × 478; 8.65 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s015.ogv 17 s, 504 × 478; 8.66 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s019.ogv 17 s, 503 × 323; 1.06 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s020.ogv 17 s, 503 × 323; 1.08 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s021.ogv 17 s, 503 × 323; 1.16 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s022.ogv 17 s, 504 × 478; 7.94 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s023.ogv 17 s, 504 × 478; 8.04 MB
Are-Coiled-Coils-of-Dimeric-Kinesins-Unwound-during-Their-Walking-on-Microtubule?-pone.0036071.s024.ogv 17 s, 504 × 478; 8.22 MB
Asymmetric-PTEN-Distribution-Regulated-by-Spatial-Heterogeneity-in-Membrane-Binding-State-pcbi.1002862.s008.ogv 12 s, 372 × 250; 1.81 MB
Asymmetric-PTEN-Distribution-Regulated-by-Spatial-Heterogeneity-in-Membrane-Binding-State-pcbi.1002862.s009.ogv 10 s, 378 × 284; 1.44 MB
BioMA layers.png 457 × 383; 20 KB
BioMA ModelingSolution packages.png 1,800 × 1,267; 608 KB
BioMA ModelLayer libraries.png 1,063 × 670; 229 KB
BioMA multi-layer architecture.png 315 × 227; 33 KB
Bisphenol-A-Binds-to-the-Local-Anesthetic-Receptor-Site-to-Block-the-Human-Cardiac-Sodium-Channel-pone.0041667.s002.ogv 0.0 s, 503 × 332; 6.25 MB
Bisphenol-A-Binds-to-the-Local-Anesthetic-Receptor-Site-to-Block-the-Human-Cardiac-Sodium-Channel-pone.0041667.s003.ogv 0.0 s, 503 × 332; 6.27 MB
Bisphenol-A-Binds-to-the-Local-Anesthetic-Receptor-Site-to-Block-the-Human-Cardiac-Sodium-Channel-pone.0041667.s004.ogv 17 s, 533 × 440; 7.91 MB
Bisphenol-A-Binds-to-the-Local-Anesthetic-Receptor-Site-to-Block-the-Human-Cardiac-Sodium-Channel-pone.0041667.s005.ogv 0.0 s, 533 × 440; 7.26 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-Induced-Regulation-of-Skeletal-Troponin----Computational-Insights-from-Molecular-Dynamics-pone.0058313.s005.ogv 28 s, 1,680 × 1,032; 10.14 MB
Calcium-Induced-Regulation-of-Skeletal-Troponin----Computational-Insights-from-Molecular-Dynamics-pone.0058313.s006.ogv 28 s, 1,680 × 1,032; 9.24 MB
Calcium-Induced-Regulation-of-Skeletal-Troponin----Computational-Insights-from-Molecular-Dynamics-pone.0058313.s007.ogv 28 s, 1,680 × 1,032; 9.14 MB
Cell-Sorting-at-the-AP-Boundary-in-the-Drosophila-Wing-Primordium-A-Computational-Model-to-pcbi.1002025.s005.ogv 38 s, 576 × 432; 23.73 MB
Cell-Sorting-at-the-AP-Boundary-in-the-Drosophila-Wing-Primordium-A-Computational-Model-to-pcbi.1002025.s006.ogv 55 s, 640 × 480; 21.85 MB
Cell-Sorting-at-the-AP-Boundary-in-the-Drosophila-Wing-Primordium-A-Computational-Model-to-pcbi.1002025.s007.ogv 35 s, 600 × 452; 8.3 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s005.ogv 17 s, 768 × 576; 3.57 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s006.ogv 19 s, 768 × 576; 5.02 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s007.ogv 19 s, 768 × 576; 7.29 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s008.ogv 19 s, 768 × 576; 7.07 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s009.ogv 27 s, 768 × 576; 10.86 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s010.ogv 9.6 s, 768 × 576; 3.7 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s011.ogv 9.6 s, 768 × 576; 3.59 MB
Changes-in-Dynamics-upon-Oligomerization-Regulate-Substrate-Binding-and-Allostery-in-Amino-Acid-pcbi.1002201.s012.ogv 19 s, 768 × 576; 6.31 MB
Characterization-of-K-Complexes-and-Slow-Wave-Activity-in-a-Neural-Mass-Model-pcbi.1003923.s005.ogv 37 s, 1,920 × 1,080; 3.06 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
Collective-Behaviour-without-Collective-Order-in-Wild-Swarms-of-Midges-pcbi.1003697.s005.ogv 12 s, 1,952 × 1,226; 1.76 MB
Collective-Behaviour-without-Collective-Order-in-Wild-Swarms-of-Midges-pcbi.1003697.s006.ogv 12 s, 800 × 800; 2.53 MB
Collective-Behaviour-without-Collective-Order-in-Wild-Swarms-of-Midges-pcbi.1003697.s007.ogv 12 s, 800 × 800; 2.71 MB
Collective-Behaviour-without-Collective-Order-in-Wild-Swarms-of-Midges-pcbi.1003697.s008.ogv 28 s, 800 × 800; 7.17 MB
Collective-Behaviour-without-Collective-Order-in-Wild-Swarms-of-Midges-pcbi.1003697.s009.ogv 28 s, 800 × 800; 9.37 MB
Collective-Cell-Motion-in-an-Epithelial-Sheet-Can-Be-Quantitatively-Described-by-a-Stochastic-pcbi.1002944.s014.ogv 5.3 s, 360 × 347; 2.28 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s002.ogv 8.0 s, 600 × 535; 696 KB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s003.ogv 6.9 s, 1,100 × 880; 4.88 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s004.ogv 7.3 s, 960 × 720; 7.18 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s005.ogv 9.0 s, 600 × 535; 1.15 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s006.ogv 6.8 s, 1,100 × 900; 7.12 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s007.ogv 9.0 s, 650 × 475; 1.45 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s008.ogv 5.4 s, 1,000 × 700; 3.29 MB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s009.ogv 5.2 s, 737 × 550; 79 KB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s010.ogv 5.2 s, 730 × 550; 65 KB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s011.ogv 5.2 s, 728 × 550; 82 KB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s012.ogv 5.2 s, 751 × 560; 64 KB
Combinatorial-Guidance-by-CCR7-Ligands-for-T-Lymphocytes-Migration-in-Co-Existing-Chemokine-Fields-pone.0018183.s013.ogv 5.2 s, 746 × 560; 88 KB
Compact-Conformations-of-Human-Protein-Disulfide-Isomerase-pone.0103472.s006.ogv 9.6 s, 688 × 544; 14.92 MB
Compound-Ex-Vivo-and-In-Silico-Method-for-Hemodynamic-Analysis-of-Stented-Arteries-pone.0058147.s006.ogv 30 s, 1,747 × 800; 18.43 MB
Compound-Ex-Vivo-and-In-Silico-Method-for-Hemodynamic-Analysis-of-Stented-Arteries-pone.0058147.s007.ogv 27 s, 1,362 × 848; 18.23 MB
Computational microscopy focusing on the drug binding to GPCR.webm 1 min 30 s, 1,920 × 1,080; 110.72 MB
Computational-Estimates-of-Membrane-Flow-and-Tension-Gradient-in-Motile-Cells-pone.0084524.s011.ogv 20 s, 800 × 600; 3.35 MB
Computational-Estimates-of-Membrane-Flow-and-Tension-Gradient-in-Motile-Cells-pone.0084524.s012.ogv 20 s, 800 × 600; 2.28 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s001.ogv 17 s, 492 × 492; 699 KB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s002.ogv 51 s, 496 × 492; 1.1 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s003.ogv 47 s, 496 × 492; 1.68 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s004.ogv 35 s, 496 × 492; 1.26 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s005.ogv 56 s, 476 × 476; 1.51 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s006.ogv 38 s, 476 × 476; 890 KB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s007.ogv 44 s, 476 × 476; 1.02 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s008.ogv 36 s, 476 × 476; 871 KB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s009.ogv 36 s, 476 × 476; 880 KB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s010.ogv 30 s, 496 × 492; 673 KB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s011.ogv 42 s, 496 × 492; 1.3 MB
Computational-Model-of-Erratic-Arrhythmias-in-a-Cardiac-Cell-Network-The-Role-of-Gap-Junctions-pone.0100288.s012.ogv 41 s, 496 × 492; 1.3 MB
Computational-Study-of-Synthetic-Agonist-Ligands-of-Ionotropic-Glutamate-Receptors-pone.0058774.s003.ogv 3.3 s, 1,920 × 1,168; 6.4 MB
Computational-Study-of-Synthetic-Agonist-Ligands-of-Ionotropic-Glutamate-Receptors-pone.0058774.s004.ogv 3.3 s, 1,920 × 1,168; 6.51 MB
Computational-Study-of-Synthetic-Agonist-Ligands-of-Ionotropic-Glutamate-Receptors-pone.0058774.s005.ogv 3.3 s, 1,920 × 1,168; 6.68 MB
Computational-Study-on-the-Different-Ligands-Induced-Conformation-Change-of-2-Adrenergic-Receptor-pone.0068138.s007.ogv 16 s, 720 × 480; 2.56 MB
Conformational-Analysis-of-Clostridium-difficile-Toxin-B-and-Its-Implications-for-Substrate-pone.0041518.s003.ogv 48 s, 614 × 440; 12.29 MB
Conformational-Analysis-of-Clostridium-difficile-Toxin-B-and-Its-Implications-for-Substrate-pone.0041518.s004.ogv 1 min 1 s, 474 × 351; 14.64 MB
Conformational-Analysis-of-Clostridium-difficile-Toxin-B-and-Its-Implications-for-Substrate-pone.0041518.s005.ogv 1 min 4 s, 531 × 433; 18.29 MB
Conformational-Dynamics-of-Dry-Lamellar-Crystals-of-Sugar-Based-Lipids-An-Atomistic-Simulation-Study-pone.0101110.s009.ogv 2 min 13 s, 320 × 240; 57.99 MB
Conformational-Dynamics-of-Dry-Lamellar-Crystals-of-Sugar-Based-Lipids-An-Atomistic-Simulation-Study-pone.0101110.s010.ogv 1 min 3 s, 640 × 480; 31.99 MB
Continuum-Molecular-Simulation-of-Large-Conformational-Changes-during-Ion–Channel-Gating-pone.0020186.s005.ogv 31 s, 1,280 × 720; 1.29 MB
Continuum-Molecular-Simulation-of-Large-Conformational-Changes-during-Ion–Channel-Gating-pone.0020186.s006.ogv 28 s, 1,280 × 720; 1.18 MB
Continuum-Molecular-Simulation-of-Large-Conformational-Changes-during-Ion–Channel-Gating-pone.0020186.s007.ogv 18 s, 1,280 × 720; 1.89 MB
Contribution-of-Stochastic-Partitioning-at-Human-Embryonic-Stem-Cell-Division-to-NANOG-Heterogeneity-pone.0050715.s009.ogv 3.2 s, 640 × 480; 180 KB
Contribution-of-Stochastic-Partitioning-at-Human-Embryonic-Stem-Cell-Division-to-NANOG-Heterogeneity-pone.0050715.s010.ogv 3.2 s, 960 × 720; 318 KB
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
Coupled-Protein-Diffusion-and-Folding-in-the-Cell-pone.0113040.s002.ogv 4.0 s, 103 × 124; 18 KB
CryoEM-Visualization-of-an-Adenovirus-Capsid-Incorporated-HIV-Antigen-pone.0049607.s006.ogv 17 s, 512 × 512; 570 KB
Crystal structure of the FLS2-BAK1 receptor complex bound to flg22.webm 24 s, 1,313 × 1,080; 7.97 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
Dendritic-Slow-Dynamics-Enables-Localized-Cortical-Activity-to-Switch-between-Mobile-and-Immobile-pone.0024007.s005.ogv 30 s, 480 × 480; 1.61 MB
Dendritic-Slow-Dynamics-Enables-Localized-Cortical-Activity-to-Switch-between-Mobile-and-Immobile-pone.0024007.s006.ogv 40 s, 480 × 480; 2.54 MB
Dendritic-Slow-Dynamics-Enables-Localized-Cortical-Activity-to-Switch-between-Mobile-and-Immobile-pone.0024007.s007.ogv 40 s, 480 × 480; 2.69 MB
Design-and-Analysis-of-a-Petri-Net-Model-of-the-Von-Hippel-Lindau-(VHL)-Tumor-Suppressor-pone.0096986.s006.ogv 1 min 32 s, 1,280 × 720; 5.32 MB
Design-Rules-for-Selective-Binding-of-Nuclear-Localization-Signals-to-Minor-Site-of-Importin-pone.0091025.s015.ogv 13 s, 1,328 × 1,664; 43.39 MB
Different-Inward-and-Outward-Conduction-Mechanisms-in-NaVMs-Suggested-by-Molecular-Dynamics-pcbi.1003746.s006.ogv 26 s, 625 × 480; 19.91 MB
Different-Inward-and-Outward-Conduction-Mechanisms-in-NaVMs-Suggested-by-Molecular-Dynamics-pcbi.1003746.s007.ogv 30 s, 625 × 480; 6.24 MB
Differential-Cargo-Mobilisation-within-Weibel-Palade-Bodies-after-Transient-Fusion-with-the-Plasma-pone.0108093.s001.ogv 50 s, 211 × 221; 1,006 KB
Dimer-Formation-Enhances-Structural-Differences-between-Amyloid-β-Protein-(1–40)-and-(1–42)-An-pone.0034345.s012.ogv 33 s, 610 × 626; 10.45 MB
Dimer-Formation-Enhances-Structural-Differences-between-Amyloid-β-Protein-(1–40)-and-(1–42)-An-pone.0034345.s013.ogv 33 s, 610 × 626; 8.64 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
Dynamic-Excitatory-and-Inhibitory-Gain-Modulation-Can-Produce-Flexible-Robust-and-Optimal-Decision-pcbi.1003099.s007.ogv 5.0 s, 560 × 420; 108 KB
Dynamic-Modeling-of-Cell-Migration-and-Spreading-Behaviors-on-Fibronectin-Coated-Planar-Substrates-pcbi.1002926.s007.ogv 6.2 s, 380 × 380; 174 KB
Dynamic-Modeling-of-Cell-Migration-and-Spreading-Behaviors-on-Fibronectin-Coated-Planar-Substrates-pcbi.1002926.s008.ogv 6.2 s, 380 × 380; 171 KB
Dynamic-Modeling-of-Cell-Migration-and-Spreading-Behaviors-on-Fibronectin-Coated-Planar-Substrates-pcbi.1002926.s009.ogv 6.2 s, 380 × 380; 170 KB
Dynamic-Modeling-of-Cell-Migration-and-Spreading-Behaviors-on-Fibronectin-Coated-Planar-Substrates-pcbi.1002926.s010.ogv 6.2 s, 520 × 520; 245 KB

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