Category:Media from PLOS Computational Biology

Подкатегории

В этой категории отображается 4 подкатегории из имеющихся 4.

Файлы в категории «Media from PLOS Computational Biology»

Показаны 200 файлов из 2057, находящихся в данной категории.

• 
  2007 May.tif 615 × 615; 584 КБ
  
• 
  A depiction of a reconstructed HSN neuron from the fly rendered with ray-tracing program POV-Ray.png 650 × 650; 702 КБ
  
• 
  A dynamic bistable hidden Markov model.svg 326 × 255; 8 КБ
  
• A-Bio-inspired-Collision-Avoidance-Model-Based-on-Spatial-Information-Derived-from-Motion-Detectors-pcbi.1004339.s018.ogv 26 с, 1034 × 516; 1,86 МБ
  
• A-Bio-inspired-Collision-Avoidance-Model-Based-on-Spatial-Information-Derived-from-Motion-Detectors-pcbi.1004339.s019.ogv 26 с, 1034 × 516; 1,58 МБ
  
• A-Bio-inspired-Collision-Avoidance-Model-Based-on-Spatial-Information-Derived-from-Motion-Detectors-pcbi.1004339.s020.ogv 26 с, 900 × 1200; 27,69 МБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s009.ogv 40 с, 640 × 480; 5,54 МБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s010.ogv 20 с, 640 × 480; 368 КБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s011.ogv 20 с, 640 × 480; 1,16 МБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s012.ogv 20 с, 640 × 480; 1,01 МБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s013.ogv 20 с, 640 × 480; 918 КБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s014.ogv 20 с, 640 × 480; 783 КБ
  
• A-Cell-Based-Model-for-Quorum-Sensing-in-Heterogeneous-Bacterial-Colonies-pcbi.1000819.s015.ogv 20 с, 640 × 480; 1,28 МБ
  
• A-Common-Model-for-Cytokine-Receptor-Activation-Combined-Scissor-Like-Rotation-and-Self-Rotation-of-pcbi.1002427.s009.ogv 13 с, 800 × 600; 364 КБ
  
• A-Comprehensive-Model-of-the-Spatio-Temporal-Stem-Cell-and-Tissue-Organisation-in-the-Intestinal-pcbi.1001045.s004.ogv 54 с, 300 × 400; 12,68 МБ
  
• A-Comprehensive-Model-of-the-Spatio-Temporal-Stem-Cell-and-Tissue-Organisation-in-the-Intestinal-pcbi.1001045.s005.ogv 58 с, 300 × 400; 10,89 МБ
  
• A-Computational-Clonal-Analysis-of-the-Developing-Mouse-Limb-Bud-pcbi.1001071.s009.ogv 18 с, 854 × 722; 16,25 МБ
  
• A-Computational-Clonal-Analysis-of-the-Developing-Mouse-Limb-Bud-pcbi.1001071.s010.ogv 18 с, 917 × 719; 8,64 МБ
  
• A-Computational-Clonal-Analysis-of-the-Developing-Mouse-Limb-Bud-pcbi.1001071.s011.ogv 25 с, 925 × 720; 1,48 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s004.ogv 5,0 с, 800 × 600; 3,26 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s005.ogv 3,2 с, 800 × 592; 1,44 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s006.ogv 4,0 с, 800 × 592; 1,29 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s007.ogv 3,2 с, 800 × 592; 1,32 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s008.ogv 2,8 с, 800 × 592; 1,99 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s009.ogv 2,7 с, 800 × 592; 2,04 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s010.ogv 6,0 с, 800 × 600; 3,98 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s011.ogv 6,0 с, 800 × 592; 3,74 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s012.ogv 6,0 с, 800 × 592; 3,95 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s013.ogv 2,8 с, 800 × 592; 1,96 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s014.ogv 2,8 с, 800 × 592; 2,06 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s015.ogv 2,8 с, 800 × 592; 2,06 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s016.ogv 6,0 с, 800 × 592; 3,36 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s017.ogv 6,0 с, 800 × 592; 3,32 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s018.ogv 6,0 с, 800 × 592; 3,15 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s019.ogv 5,9 с, 800 × 592; 3,2 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s020.ogv 7,4 с, 800 × 600; 4,39 МБ
  
• A-Computational-Framework-for-3D-Mechanical-Modeling-of-Plant-Morphogenesis-with-Cellular-Resolution-pcbi.1003950.s021.ogv 4,4 с, 800 × 592; 760 КБ
  
• A-Density-Dependent-Switch-Drives-Stochastic-Clustering-and-Polarization-of-Signaling-Molecules-pcbi.1002271.s005.ogv 29 с, 361 × 272; 4,46 МБ
  
• A-Density-Dependent-Switch-Drives-Stochastic-Clustering-and-Polarization-of-Signaling-Molecules-pcbi.1002271.s006.ogv 17 с, 361 × 272; 2,34 МБ
  
• A-Detailed-History-of-Intron-rich-Eukaryotic-Ancestors-Inferred-from-a-Global-Survey-of-100-pcbi.1002150.s003.ogv 4 м 4 с, 1280 × 720; 23,55 МБ
  
• A-Digital-Framework-to-Build-Visualize-and-Analyze-a-Gene-Expression-Atlas-with-Cellular-Resolution-pcbi.1003670.s027.ogv 42 с, 1365 × 768; 33,82 МБ
  
• A-Digital-Framework-to-Build-Visualize-and-Analyze-a-Gene-Expression-Atlas-with-Cellular-Resolution-pcbi.1003670.s028.ogv 1 м 38 с, 1365 × 768; 13,4 МБ
  
• A-Digital-Framework-to-Build-Visualize-and-Analyze-a-Gene-Expression-Atlas-with-Cellular-Resolution-pcbi.1003670.s029.ogv 1 м 20 с, 1660 × 1036; 12,9 МБ
  
• A-Digital-Framework-to-Build-Visualize-and-Analyze-a-Gene-Expression-Atlas-with-Cellular-Resolution-pcbi.1003670.s030.ogv 28 с, 1404 × 878; 16,01 МБ
  
• A-Division-in-PIN-Mediated-Auxin-Patterning-during-Organ-Initiation-in-Grasses-pcbi.1003447.s017.ogv 15 с, 480 × 480; 1,05 МБ
  
• A-Division-in-PIN-Mediated-Auxin-Patterning-during-Organ-Initiation-in-Grasses-pcbi.1003447.s018.ogv 1 м 35 с, 156 × 480; 779 КБ
  
• A-Division-in-PIN-Mediated-Auxin-Patterning-during-Organ-Initiation-in-Grasses-pcbi.1003447.s019.ogv 1 м 35 с, 640 × 416; 1,91 МБ
  
• A-Division-in-PIN-Mediated-Auxin-Patterning-during-Organ-Initiation-in-Grasses-pcbi.1003447.s020.ogv 2 м 9 с, 640 × 490; 4,84 МБ
  
• A-Forced-Damped-Oscillation-Framework-for-Undulatory-Swimming-Provides-New-Insights-into-How-pcbi.1003097.s001.ogv 10 с, 1440 × 752; 1,73 МБ
  
• A-Forced-Damped-Oscillation-Framework-for-Undulatory-Swimming-Provides-New-Insights-into-How-pcbi.1003097.s002.ogv 13 с, 1440 × 752; 1,74 МБ
  
• A-Generative-Statistical-Algorithm-for-Automatic-Detection-of-Complex-Postures-pcbi.1004517.s006.ogv 40 с, 450 × 510; 422 КБ
  
• A-Generative-Statistical-Algorithm-for-Automatic-Detection-of-Complex-Postures-pcbi.1004517.s007.ogv 59 с, 1176 × 290; 3,29 МБ
  
• A-Hierarchical-Neuronal-Model-for-Generation-and-Online-Recognition-of-Birdsongs-pcbi.1002303.s001.ogg 6,5 с; 20 КБ
  
• A-Jump-from-Cavity-Pyrophosphate-Ion-Release-Assisted-by-a-Key-Lysine-Residue-in-T7-RNA-Polymerase-pcbi.1004624.s013.ogv 13 с, 860 × 740; 18,23 МБ
  
• A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s008.ogv 14 с, 500 × 447; 2,28 МБ
  
• A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s009.ogv 2,9 с, 612 × 598; 1,53 МБ
  
• A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s010.ogv 8,6 с, 1000 × 522; 5,14 МБ
  
• A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s011.ogv 2,9 с, 1024 × 1024; 1,09 МБ
  
• A-Mathematical-Model-for-Neutrophil-Gradient-Sensing-and-Polarization-pcbi.0030036.sv001.ogv 0,0 с, 432 × 336; 2,28 МБ
  
• A-Mathematical-Model-for-Neutrophil-Gradient-Sensing-and-Polarization-pcbi.0030036.sv002.ogv 5,6 с, 432 × 336; 1,09 МБ
  
• A-Mathematical-Model-of-Muscle-Containing-Heterogeneous-Half-Sarcomeres-Exhibits-Residual-Force-pcbi.1002156.s001.ogv 34 с, 528 × 768; 570 КБ
  
• A-Mathematical-Model-of-Muscle-Containing-Heterogeneous-Half-Sarcomeres-Exhibits-Residual-Force-pcbi.1002156.s002.ogv 27 с, 528 × 768; 512 КБ
  
• A-Model-for-Integrating-Elementary-Neural-Functions-into-Delayed-Response-Behavior-pcbi.0020025.sv001.ogv 1 м 6 с, 320 × 240; 410 КБ
  
• A-Model-for-Integrating-Elementary-Neural-Functions-into-Delayed-Response-Behavior-pcbi.0020025.sv002.ogv 1 м 6 с, 320 × 240; 404 КБ
  
• A-Model-of-Stimulus-Specific-Neural-Assemblies-in-the-Insect-Antennal-Lobe-pcbi.1000139.s005.ogv 12 с, 343 × 343; 247 КБ
  
• A-Model-of-Stimulus-Specific-Neural-Assemblies-in-the-Insect-Antennal-Lobe-pcbi.1000139.s006.ogv 12 с, 343 × 343; 231 КБ
  
• A-Model-of-Stimulus-Specific-Neural-Assemblies-in-the-Insect-Antennal-Lobe-pcbi.1000139.s007.ogv 12 с, 343 × 343; 219 КБ
  
• A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s010.ogv 4,8 с, 768 × 768; 14,58 МБ
  
• A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s011.ogv 2,4 с, 768 × 768; 7,6 МБ
  
• A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s012.ogv 4,8 с, 768 × 768; 15,39 МБ
  
• A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s013.ogv 4,8 с, 768 × 768; 12,37 МБ
  
• A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s014.ogv 4,8 с, 768 × 768; 12,01 МБ
  
• A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s015.ogv 4,8 с, 768 × 768; 20,82 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s016.ogv 1 м 3 с, 640 × 480; 6,71 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s017.ogv 1 м 2 с, 640 × 480; 6,06 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s018.ogv 1 м 2 с, 640 × 480; 6,04 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s019.ogv 29 с, 640 × 480; 630 КБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s020.ogv 2 м 5 с, 640 × 480; 5,94 МБ
  
• A-Multi-Component-Model-of-the-Developing-Retinocollicular-Pathway-Incorporating-Axonal-and-pcbi.1000600.s001.ogv 48 с, 512 × 512; 5,13 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s013.ogv 20 с, 764 × 972; 17,86 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s014.ogv 20 с, 764 × 972; 17,94 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s015.ogv 20 с, 794 × 972; 17,82 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s016.ogv 20 с, 736 × 972; 16,34 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s017.ogv 20 с, 682 × 972; 17,58 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s018.ogv 20 с, 830 × 972; 20,66 МБ
  
• A-New-Model-for-Pore-Formation-by-Cholesterol-Dependent-Cytolysins-pcbi.1003791.s019.ogv 20 с, 868 × 972; 19,2 МБ
  
• A-Numerical-Approach-to-Ion-Channel-Modelling-Using-Whole-Cell-Voltage-Clamp-Recordings-and-a-pcbi.0030169.sv001.ogv 57 с, 304 × 208; 1,58 МБ
  
• 
  A-Primer-on-Metagenomics-pcbi.1000667.g001.jpg 476 × 659; 101 КБ
  
• 
  A-Primer-on-Metagenomics-pcbi.1000667.g002.jpg 408 × 447; 81 КБ
  
• 
  A-Primer-on-Metagenomics-pcbi.1000667.g003.jpg 484 × 596; 90 КБ
  
• 
  A-Primer-on-Metagenomics-pcbi.1000667.g004.jpg 500 × 387; 30 КБ
  
• 
  A-Quick-Guide-for-Computer-Assisted-Instruction-in-Computational-Biology-and-Bioinformatics-pcbi.1000035.g001.jpg 662 × 288; 127 КБ
  
• 
  A-Quick-Guide-to-Software-Licensing-for-the-Scientist-Programmer-pcbi.1002598.g001.jpg 689 × 425; 99 КБ
  
• 
  A-Quick-Guide-to-Software-Licensing-for-the-Scientist-Programmer-pcbi.1002598.g002.jpg 675 × 599; 96 КБ
  
• A-Reaction-Diffusion-Model-of-Cholinergic-Retinal-Waves-pcbi.1003953.s006.ogv 50 с, 648 × 144; 3,69 МБ
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s004.ogv 1,9 с, 324 × 120; 1,32 МБ
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s005.ogv 1,6 с, 316 × 134; 1,11 МБ
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s006.ogv 1 м 38 с, 472 × 136; 13,17 МБ
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s007.ogv 29 с, 472 × 136; 3,67 МБ
  
• A-Real-Time-All-Atom-Structural-Search-Engine-for-Proteins-pcbi.1003750.s008.ogv 37 с, 876 × 534; 10,81 МБ
  
• A-Stochastic-View-of-Spliceosome-Assembly-and-Recycling-in-the-Nucleus-pcbi.0030201.sv001.ogv 3,3 с, 400 × 400; 643 КБ
  
• A-Stochastic-View-of-Spliceosome-Assembly-and-Recycling-in-the-Nucleus-pcbi.0030201.sv002.ogv 5,5 с, 400 × 400; 1,01 МБ
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s007.ogv 30 с, 1280 × 720; 11,61 МБ
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s008.ogv 30 с, 1280 × 720; 8,81 МБ
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s009.ogv 30 с, 1280 × 720; 8,85 МБ
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s010.ogv 30 с, 1280 × 720; 9,56 МБ
  
• A-Two-Dimensional-Model-of-the-Colonic-Crypt-Accounting-for-the-Role-of-the-Basement-Membrane-and-pcbi.1002515.s001.ogv 18 с, 450 × 250; 3,96 МБ
  
• A-Two-Dimensional-Model-of-the-Colonic-Crypt-Accounting-for-the-Role-of-the-Basement-Membrane-and-pcbi.1002515.s002.ogv 18 с, 500 × 410; 6,71 МБ
  
• A-Two-Dimensional-Model-of-the-Colonic-Crypt-Accounting-for-the-Role-of-the-Basement-Membrane-and-pcbi.1002515.s003.ogv 22 с, 250 × 390; 4,07 МБ
  
• A-Universal-Mechanism-Ties-Genotype-to-Phenotype-in-Trinucleotide-Diseases-pcbi.0030235.sv001.ogv 30 с, 560 × 420; 407 КБ
  
• A-Universal-Mechanism-Ties-Genotype-to-Phenotype-in-Trinucleotide-Diseases-pcbi.0030235.sv002.ogv 38 с, 560 × 420; 401 КБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s008.ogv 12 с, 1488 × 832; 8,15 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s009.ogv 12 с, 1488 × 832; 6,9 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s010.ogv 12 с, 1488 × 832; 7,95 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s011.ogv 12 с, 1488 × 832; 8,69 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s012.ogv 12 с, 1488 × 832; 7,05 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s013.ogv 12 с, 1488 × 832; 10,69 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s014.ogv 12 с, 1488 × 832; 11,64 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s015.ogv 12 с, 1488 × 832; 8,89 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s016.ogv 12 с, 1488 × 832; 8,84 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s017.ogv 12 с, 1920 × 1004; 9,7 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s018.ogv 12 с, 1920 × 1004; 9,71 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s019.ogv 12 с, 1920 × 1004; 9,17 МБ
  
• A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s020.ogv 12 с, 1920 × 1004; 9,2 МБ
  
• Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s007.ogv 7,1 с, 435 × 343; 162 КБ
  
• Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s008.ogv 7,1 с, 435 × 343; 142 КБ
  
• Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s009.ogv 22 с, 389 × 734; 492 КБ
  
• Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s010.ogv 22 с, 389 × 734; 521 КБ
  
• Activated-Membrane-Patches-Guide-Chemotactic-Cell-Motility-pcbi.1002044.s011.ogv 27 с, 389 × 734; 507 КБ
  
• Adaptive-Fast-Walking-in-a-Biped-Robot-under-Neuronal-Control-and-Learning-pcbi.0030134.sv001.ogv 0,0 с, 312 × 240; 4,93 МБ
  
• Adaptive-Fast-Walking-in-a-Biped-Robot-under-Neuronal-Control-and-Learning-pcbi.0030134.sv002.ogv 1 м 46 с, 312 × 240; 12,29 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s017.ogv 1 м 1 с, 637 × 616; 7,11 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s018.ogv 1 м 1 с, 588 × 568; 6,38 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s019.ogv 59 с, 637 × 616; 6,8 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s020.ogv 1 м 1 с, 588 × 568; 6,55 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s021.ogv 1 м 1 с, 637 × 616; 7,29 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s022.ogv 1 м 1 с, 637 × 616; 7,16 МБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g002.jpg 661 × 523; 226 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g003.jpg 661 × 308; 186 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g004.jpg 661 × 181; 54 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g005.jpg 661 × 282; 71 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g006.jpg 661 × 486; 232 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g007.jpg 498 × 298; 50 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g008.jpg 661 × 231; 100 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g009.jpg 661 × 244; 139 КБ
  
• 
  Adventures-in-Semantic-Publishing-Exemplar-Semantic-Enhancements-of-a-Research-Article-pcbi.1000361.g010.jpg 661 × 506; 218 КБ
  
• Agent-Based-Modeling-of-Oxygen-Responsive-Transcription-Factors-in-Escherichia-coli-pcbi.1003595.s006.ogv 46 с, 640 × 480; 4,61 МБ
  
• Allosteric-Communication-in-Myosin-V-From-Small-Conformational-Changes-to-Large-Directed-Movements-pcbi.1000129.s001.ogv 6,4 с, 1052 × 928; 1,85 МБ
  
• Allosteric-Communication-in-Myosin-V-From-Small-Conformational-Changes-to-Large-Directed-Movements-pcbi.1000129.s002.ogv 5,1 с, 1060 × 624; 1023 КБ
  
• Allosteric-Communication-Occurs-via-Networks-of-Tertiary-and-Quaternary-Motions-in-Proteins-pcbi.1000293.s008.ogv 2,0 с, 480 × 464; 1,94 МБ
  
• Allosteric-Communication-Occurs-via-Networks-of-Tertiary-and-Quaternary-Motions-in-Proteins-pcbi.1000293.s009.ogv 2,0 с, 448 × 480; 1,84 МБ
  
• Allosteric-Communication-Occurs-via-Networks-of-Tertiary-and-Quaternary-Motions-in-Proteins-pcbi.1000293.s010.ogv 2,0 с, 544 × 480; 1,61 МБ
  
• Allosteric-Communication-Occurs-via-Networks-of-Tertiary-and-Quaternary-Motions-in-Proteins-pcbi.1000293.s011.ogv 2,0 с, 384 × 480; 1,1 МБ
  
• Allosteric-Communication-Occurs-via-Networks-of-Tertiary-and-Quaternary-Motions-in-Proteins-pcbi.1000293.s012.ogv 2,0 с, 512 × 480; 2,43 МБ
  
• Allosteric-Communication-Occurs-via-Networks-of-Tertiary-and-Quaternary-Motions-in-Proteins-pcbi.1000293.s013.ogv 2,0 с, 512 × 480; 2,15 МБ
  
• 
  An Electronic Nose Estimates Odor Pleasantness.png 650 × 650; 440 КБ
  
• An-Emerging-Allee-Effect-Is-Critical-for-Tumor-Initiation-and-Persistence-pcbi.1004366.s003.ogv 36 с, 180 × 180; 591 КБ
  
• An-Emerging-Allee-Effect-Is-Critical-for-Tumor-Initiation-and-Persistence-pcbi.1004366.s004.ogv 36 с, 180 × 180; 1,38 МБ
  
• An-Expanded-Notch-Delta-Model-Exhibiting-Long-Range-Patterning-and-Incorporating-MicroRNA-Regulation-pcbi.1003655.s007.ogv 16 с, 1200 × 900; 1,04 МБ
  
• An-Expanded-Notch-Delta-Model-Exhibiting-Long-Range-Patterning-and-Incorporating-MicroRNA-Regulation-pcbi.1003655.s008.ogv 21 с, 1200 × 900; 612 КБ
  
• An-Experimental-and-Computational-Study-of-the-Effect-of-ActA-Polarity-on-the-Speed-of-Listeria-pcbi.1000434.s011.ogv 6,1 с, 640 × 640; 1,46 МБ
  
• An-Integrated-Framework-Advancing-Membrane-Protein-Modeling-and-Design-pcbi.1004398.s008.ogv 21 с, 1068 × 600; 14,28 МБ
  
• An-Introduction-to-Biomolecular-Graphics-pcbi.1000918.s007.ogv 2 м 2 с, 1320 × 788; 14,4 МБ
  
• Analysis-of-Initial-Cell-Spreading-Using-Mechanistic-Contact-Formulations-for-a-Deformable-Cell-pcbi.1003267.s005.ogv 5,4 с, 1100 × 868; 4,2 МБ
  
• Analysis-of-Initial-Cell-Spreading-Using-Mechanistic-Contact-Formulations-for-a-Deformable-Cell-pcbi.1003267.s006.ogv 5,6 с, 1000 × 868; 10,75 МБ
  
• Analysis-of-Initial-Cell-Spreading-Using-Mechanistic-Contact-Formulations-for-a-Deformable-Cell-pcbi.1003267.s007.ogv 1 м 30 с, 1912 × 954; 5,41 МБ
  
• Angiogenesis-An-Adaptive-Dynamic-Biological-Patterning-Problem-pcbi.1002983.s001.ogv 27 с, 500 × 520; 3,41 МБ
  
• Annotation-Error-in-Public-Databases-Misannotation-of-Molecular-Function-in-Enzyme-Superfamilies-pcbi.1000605.s006.ogv 42 с, 748 × 740; 1,43 МБ
  
• 
  Approximate Bayesian Computation - journal.pcbi.1002803.pdf 1275 × 1645, 10 страниц; 418 КБ
  
• 
  Approximate Bayesian computation conceptual overview.svg 632 × 645; 307 КБ
  
• 
  Approximate Bayesian Computation example.svg 721 × 576; 122 КБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s004.ogv 19 с, 526 × 540; 17,59 МБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s005.ogv 24 с, 526 × 540; 19,37 МБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s006.ogv 21 с, 526 × 540; 14,44 МБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s007.ogv 24 с, 526 × 540; 14,56 МБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s008.ogv 22 с, 526 × 540; 27,19 МБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s009.ogv 24 с, 526 × 540; 19,92 МБ
  
• Assembly-of-Nsp1-Nucleoporins-Provides-Insight-into-Nuclear-Pore-Complex-Gating-pcbi.1003488.s010.ogv 18 с, 1280 × 720; 6,93 МБ
  
• 
  Assessment-of-Metagenomic-Assembly-Using-Simulated-Next-Generation-Sequencing-Data-pone.0031386.g001.jpg 662 × 159; 59 КБ
  
• 
  Assessment-of-Metagenomic-Assembly-Using-Simulated-Next-Generation-Sequencing-Data-pone.0031386.g002.jpg 662 × 452; 144 КБ
  
• 
  Assessment-of-Metagenomic-Assembly-Using-Simulated-Next-Generation-Sequencing-Data-pone.0031386.g003.jpg 662 × 464; 153 КБ
  
• 
  Assessment-of-Metagenomic-Assembly-Using-Simulated-Next-Generation-Sequencing-Data-pone.0031386.g004.jpg 603 × 758; 172 КБ
  
• Asymmetric-PTEN-Distribution-Regulated-by-Spatial-Heterogeneity-in-Membrane-Binding-State-pcbi.1002862.s008.ogv 12 с, 372 × 250; 1,81 МБ
  
• Asymmetric-PTEN-Distribution-Regulated-by-Spatial-Heterogeneity-in-Membrane-Binding-State-pcbi.1002862.s009.ogv 10 с, 378 × 284; 1,44 МБ
  
• Atomistic-Picture-for-the-Folding-Pathway-of-a-Hybrid-1-Type-Human-Telomeric-DNA-G-quadruplex-pcbi.1003562.s017.ogv 12 с, 640 × 480; 1,89 МБ
  
• Atomistic-Picture-for-the-Folding-Pathway-of-a-Hybrid-1-Type-Human-Telomeric-DNA-G-quadruplex-pcbi.1003562.s018.ogv 29 с, 640 × 480; 7,26 МБ
  
• Atomistic-Picture-for-the-Folding-Pathway-of-a-Hybrid-1-Type-Human-Telomeric-DNA-G-quadruplex-pcbi.1003562.s019.ogv 12 с, 640 × 480; 2,96 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s025.ogv 50 с, 854 × 480; 13,06 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s026.ogv 50 с, 854 × 480; 13,28 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s027.ogv 50 с, 854 × 480; 12,73 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s028.ogv 50 с, 854 × 480; 11,82 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s029.ogv 25 с, 854 × 480; 5,04 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s030.ogv 50 с, 854 × 480; 13,84 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s031.ogv 50 с, 854 × 480; 13,89 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s032.ogv 50 с, 854 × 480; 12,17 МБ
  
• Atrial-Heterogeneity-Generates-Re-entrant-Substrate-during-Atrial-Fibrillation-and-Anti-arrhythmic-pcbi.1005245.s033.ogv 50 с, 854 × 480; 10,81 МБ
  
• Attracting-Dynamics-of-Frontal-Cortex-Ensembles-during-Memory-Guided-Decision-Making-pcbi.1002057.s008.ogv 1 м 4 с, 560 × 420; 5,14 МБ
  
• Automated-Tracking-of-Whiskers-in-Videos-of-Head-Fixed-Rodents-pcbi.1002591.s004.ogv 30 с, 600 × 600; 4,72 МБ
  
• Automated-Tracking-of-Whiskers-in-Videos-of-Head-Fixed-Rodents-pcbi.1002591.s005.ogv 35 с, 610 × 610; 12,7 МБ
  
• Automated-Tracking-of-Whiskers-in-Videos-of-Head-Fixed-Rodents-pcbi.1002591.s006.ogv 32 с, 422 × 450; 5,09 МБ