Category:Cluster analysis

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Файлы в категории «Cluster analysis»

Показаны 189 файлов из 189, находящихся в данной категории.

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  10 תמונה.jpg 565 × 327; 44 Кб
  
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  4 תמונה.jpg 112 × 99; 3 Кб
  
• A-CEP215–HSET-complex-links-centrosomes-with-spindle-poles-and-drives-centrosome-clustering-in-ncomms11005-s10.ogv 1,1 с, 299 × 281; 83 Кб
  
• A-CEP215–HSET-complex-links-centrosomes-with-spindle-poles-and-drives-centrosome-clustering-in-ncomms11005-s11.ogv 6,4 с, 280 × 274; 671 Кб
  
• A-CEP215–HSET-complex-links-centrosomes-with-spindle-poles-and-drives-centrosome-clustering-in-ncomms11005-s3.ogv 1,4 с, 151 × 159; 35 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-Patch-Based-Method-for-Repetitive-and-Transient-Event-Detection-in-Fluorescence-Imaging-pone.0013190.s001.ogv 4,8 с, 640 × 480; 916 Кб
  
• A-Patch-Based-Method-for-Repetitive-and-Transient-Event-Detection-in-Fluorescence-Imaging-pone.0013190.s002.ogv 4,8 с, 712 × 512; 774 Кб
  
• A-Patch-Based-Method-for-Repetitive-and-Transient-Event-Detection-in-Fluorescence-Imaging-pone.0013190.s003.ogv 4,8 с, 640 × 480; 226 Кб
  
• A-Patch-Based-Method-for-Repetitive-and-Transient-Event-Detection-in-Fluorescence-Imaging-pone.0013190.s004.ogv 4,8 с, 640 × 480; 807 Кб
  
• A-Patch-Based-Method-for-Repetitive-and-Transient-Event-Detection-in-Fluorescence-Imaging-pone.0013190.s005.ogv 12 с, 640 × 480; 473 Кб
  
• A-Patch-Based-Method-for-Repetitive-and-Transient-Event-Detection-in-Fluorescence-Imaging-pone.0013190.s006.ogv 24 с, 640 × 480; 666 Кб
  
• A-proteomic-approach-reveals-integrin-activation-state-dependent-control-of-microtubule-cortical-ncomms7135-s3.ogv 8,5 с, 512 × 512; 3,22 Мб
  
• A-proteomic-approach-reveals-integrin-activation-state-dependent-control-of-microtubule-cortical-ncomms7135-s4.ogv 7,3 с, 512 × 512; 785 Кб
  
• A-proteomic-approach-reveals-integrin-activation-state-dependent-control-of-microtubule-cortical-ncomms7135-s5.ogv 12 с, 900 × 675; 7,35 Мб
  
• A-proteomic-approach-reveals-integrin-activation-state-dependent-control-of-microtubule-cortical-ncomms7135-s6.ogv 12 с, 900 × 675; 5,25 Мб
  
• A-proteomic-approach-reveals-integrin-activation-state-dependent-control-of-microtubule-cortical-ncomms7135-s7.ogv 12 с, 900 × 675; 1,93 Мб
  
• A-sensitised-RNAi-screen-reveals-a-ch-TOG-genetic-interaction-network-required-for-spindle-assembly-srep10564-s10.ogv 8,7 с, 300 × 300; 399 Кб
  
• A-sensitised-RNAi-screen-reveals-a-ch-TOG-genetic-interaction-network-required-for-spindle-assembly-srep10564-s11.ogv 8,7 с, 300 × 300; 388 Кб
  
• A-sensitised-RNAi-screen-reveals-a-ch-TOG-genetic-interaction-network-required-for-spindle-assembly-srep10564-s2.ogv 3,4 с, 300 × 300; 258 Кб
  
• A-sensitised-RNAi-screen-reveals-a-ch-TOG-genetic-interaction-network-required-for-spindle-assembly-srep10564-s3.ogv 5,5 с, 300 × 300; 171 Кб
  
• A-sensitised-RNAi-screen-reveals-a-ch-TOG-genetic-interaction-network-required-for-spindle-assembly-srep10564-s4.ogv 5,8 с, 300 × 300; 286 Кб
  
• A-sensitised-RNAi-screen-reveals-a-ch-TOG-genetic-interaction-network-required-for-spindle-assembly-srep10564-s5.ogv 9,2 с, 300 × 300; 773 Кб
  
• Automated-characterization-of-cell-shape-changes-during-amoeboid-motility-by-skeletonization-1752-0509-4-33-S1.ogv 20 с, 996 × 484; 475 Кб
  
• Automated-characterization-of-cell-shape-changes-during-amoeboid-motility-by-skeletonization-1752-0509-4-33-S4.ogv 13 с, 328 × 92; 76 Кб
  
• Calcium-imaging-of-sleep–wake-related-neuronal-activity-in-the-dorsal-pons-ncomms10763-s2.ogv 38 с, 514 × 294; 4,04 Мб
  
• Calcium-imaging-of-sleep–wake-related-neuronal-activity-in-the-dorsal-pons-ncomms10763-s3.ogv 28 с, 514 × 294; 1,33 Мб
  
• Capture-of-Neuroepithelial-Like-Stem-Cells-from-Pluripotent-Stem-Cells-Provides-a-Versatile-System-pone.0029597.s009.ogv 23 с, 1152 × 924; 10,99 Мб
  
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  Cluster-1.gif 601 × 402; 2 Кб
  
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  Cluster-1.svg 601 × 402; 2 Кб
  
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  Cluster-2.png 601 × 402; 1 Кб
  
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  Cluster-2.svg 601 × 402; 2 Кб
  
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  ClusterAnalysis Mouse de.svg 1355 × 547; 305 Кб
  
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  ClusterAnalysis Mouse.svg 1355 × 547; 308 Кб
  
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  Clustering nutrients01.png 666 × 667; 21 Кб
  
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  Clustering nutrients02.png 671 × 672; 25 Кб
  
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  Clusters.PNG 266 × 260; 15 Кб
  
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  Clusters.svg 250 × 251; 9 Кб
  
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  Clustersgeometricos.jpg 637 × 333; 13 Кб
  
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  Clustezinho.jpg 576 × 371; 18 Кб
  
• Comparative-Transcriptomic-Analysis-of-Multiple-Cardiovascular-Fates-from-Embryonic-Stem-Cells-srep09758-s2.ogv 10 с, 640 × 360; 909 Кб
  
• Comparative-Transcriptomic-Analysis-of-Multiple-Cardiovascular-Fates-from-Embryonic-Stem-Cells-srep09758-s3.ogv 10 с, 640 × 360; 421 Кб
  
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  Complete linkage Dendrogram 5S data.svg 1061 × 531; 18 Кб
  
• CXCR4CXCL12-Participate-in-Extravasation-of-Metastasizing-Breast-Cancer-Cells-within-the-Liver-in-a-pone.0030046.s001.ogv 1,2 с, 800 × 600; 1,9 Мб
  
• CXCR4CXCL12-Participate-in-Extravasation-of-Metastasizing-Breast-Cancer-Cells-within-the-Liver-in-a-pone.0030046.s002.ogv 1,2 с, 800 × 600; 1,89 Мб
  
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  DataClustering ElbowCriterion.JPG 355 × 266; 12 Кб
  
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  DBSCAN-density-data.svg 320 × 322; 77 Кб
  
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  DBSCAN-Gaussian-data.svg 434 × 467; 407 Кб
  
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  DBSCAN-Illustration.svg 165 × 119; 13 Кб
  
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  Decision stream.gif 1750 × 1742; 116 Кб
  
• Development-of-a-cell-system-for-siRNA-screening-of-pathogen-responses-in-human-and-mouse-srep09559-s2.ogv 22 с, 414 × 406; 1,27 Мб
  
• Development-of-a-cell-system-for-siRNA-screening-of-pathogen-responses-in-human-and-mouse-srep09559-s3.ogv 22 с, 414 × 406; 278 Кб
  
• Development-of-a-cell-system-for-siRNA-screening-of-pathogen-responses-in-human-and-mouse-srep09559-s4.ogv 22 с, 414 × 406; 1,32 Мб
  
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  Different types of biclusters.jpg 1152 × 576; 33 Кб
  
• Dynamic-Conformational-Changes-in-MUNC18-Prevent-Syntaxin-Binding-pcbi.1001097.s005.ogv 0,0 с, 1152 × 784; 20,28 Мб
  
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  Elbow in Inertia on uniform data.png 882 × 468; 23 Кб
  
• Electroencephalographic-Brain-Dynamics-Following-Manually-Responded-Visual-Targets-pbio.0020176.v001.ogv 7,3 с, 640 × 480; 1001 Кб
  
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  EM Clustering of Old Faithful data.gif 360 × 309; 113 Кб
  
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  Em old faithful.gif 360 × 360; 272 Кб
  
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  EM-density-data.svg 434 × 467; 322 Кб
  
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  EM-Gaussian-data.svg 434 × 467; 413 Кб
  
• Evolution-of-Collective-Behaviors-for-a-Real-Swarm-of-Aquatic-Surface-Robots-pone.0151834.s002.ogv 45 с, 1920 × 1080; 9,2 Мб
  
• Evolutionary-Establishment-of-Moral-and-Double-Moral-Standards-through-Spatial-Interactions-pcbi.1000758.s001.ogv 20 с, 464 × 431; 6,43 Мб
  
• Evolutionary-Establishment-of-Moral-and-Double-Moral-Standards-through-Spatial-Interactions-pcbi.1000758.s002.ogv 23 с, 464 × 431; 7,65 Мб
  
• Evolutionary-Establishment-of-Moral-and-Double-Moral-Standards-through-Spatial-Interactions-pcbi.1000758.s003.ogv 49 с, 464 × 431; 20,61 Мб
  
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  Example 1 KHOPCA.png 719 × 724; 69 Кб
  
• Family-based-clusters-of-cognitive-test-performance-in-familial-schizophrenia-1471-244X-4-20-S5.ogv 0,8 с, 656 × 704; 1,49 Мб
  
• FLAME-a-novel-fuzzy-clustering-method-for-the-analysis-of-DNA-microarray-data-1471-2105-8-3-S1.ogv 46 с, 900 × 600; 466 Кб
  
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  GaussienChevauche1.gif 960 × 560; 8 Кб
  
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  GaussienChevauche2.gif 960 × 560; 11 Кб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S10.ogv 35 с, 320 × 240; 6,28 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S11.ogv 21 с, 320 × 240; 2,95 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S12.ogv 35 с, 320 × 240; 5,21 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S13.ogv 15 с, 320 × 240; 2,54 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S14.ogv 35 с, 320 × 240; 5,22 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S15.ogv 8,9 с, 320 × 240; 1,53 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S16.ogv 35 с, 320 × 240; 5,35 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S17.ogv 12 с, 320 × 240; 2,1 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S18.ogv 35 с, 320 × 240; 5,41 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S19.ogv 11 с, 320 × 240; 2,14 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S4.ogv 35 с, 320 × 240; 6,35 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S5.ogv 15 с, 320 × 240; 2,32 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S6.ogv 35 с, 320 × 240; 6,26 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S7.ogv 18 с, 320 × 240; 2,77 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S8.ogv 35 с, 320 × 240; 6,22 Мб
  
• Gene-expression-profiles-in-skeletal-muscle-after-gene-electrotransfer-1471-2199-8-56-S9.ogv 19 с, 320 × 240; 2,84 Мб
  
• Global-local-and-focused-geographic-clustering-for-case-control-data-with-residential-histories-1476-069X-4-4-S2.ogv 19 с, 1280 × 1024; 1,54 Мб
  
• Global-transcriptome-analysis-of-murine-embryonic-stem-cell-derived-cardiomyocytes-gb-2007-8-4-r56-S1.ogv 28 с, 320 × 240; 2,03 Мб
  
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  GLPK solution of a clustering problem.svg 1200 × 1200; 108 Кб
  
• Harvesting-Candidate-Genes-Responsible-for-Serious-Adverse-Drug-Reactions-from-a-Chemical-Protein-pcbi.1000441.s010.ogv 9,0 с, 640 × 476; 7,68 Мб
  
• Harvesting-Candidate-Genes-Responsible-for-Serious-Adverse-Drug-Reactions-from-a-Chemical-Protein-pcbi.1000441.s011.ogv 9,0 с, 640 × 476; 7,67 Мб
  
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  Hierarchical1.jpg 410 × 209; 18 Кб
  
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  IdentifiabilityZones.pdf 1500 × 1500; 231 Кб
  
• In-vitro-discovery-of-promising-anti-cancer-drug-combinations-using-iterative-maximisation-of-a-srep14118-s5.ogv 12 с, 1920 × 1080; 3,29 Мб
  
• In-vitro-discovery-of-promising-anti-cancer-drug-combinations-using-iterative-maximisation-of-a-srep14118-s6.ogv 12 с, 1920 × 1080; 6,59 Мб
  
• In-vitro-discovery-of-promising-anti-cancer-drug-combinations-using-iterative-maximisation-of-a-srep14118-s7.ogv 12 с, 1920 × 1080; 3,44 Мб
  
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  Iris silhouette.svg 630 × 630; 325 Кб
  
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  K-means centre force.gif 360 × 430; 12 Кб
  
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  K-means convergence.gif 637 × 619; 499 Кб
  
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  K-means steg 1.svg 512 × 534; 6 Кб
  
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  K-means steg 2.svg 512 × 534; 7 Кб
  
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  K-means steg 3.svg 512 × 534; 13 Кб
  
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  K-means steg 4.svg 512 × 535; 8 Кб
  
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  K-means.png 9350 × 3567; 1,37 Мб
  
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  K-Medoids Clustering.gif 756 × 756; 154 Кб
  
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  KHOPCA rule 4.pdf 493 × 383; 28 Кб
  
• Lack-of-nAChR-Activity-Depresses-Cochlear-Maturation-and-Up-Regulates-GABA-System-Components-pone.0009058.s006.ogv 4,0 с, 320 × 240; 37 Кб
  
• Lack-of-nAChR-Activity-Depresses-Cochlear-Maturation-and-Up-Regulates-GABA-System-Components-pone.0009058.s007.ogv 4,0 с, 320 × 240; 36 Кб
  
• Ligand-Mobility-Modulates-Immunological-Synapse-Formation-and-T-Cell-Activation-pone.0032398.s005.ogv 6,0 с, 114 × 109; 151 Кб
  
• Ligand-Mobility-Modulates-Immunological-Synapse-Formation-and-T-Cell-Activation-pone.0032398.s006.ogv 6,0 с, 136 × 177; 68 Кб
  
• Ligand-Mobility-Modulates-Immunological-Synapse-Formation-and-T-Cell-Activation-pone.0032398.s007.ogv 6,0 с, 109 × 103; 55 Кб
  
• Ligand-Mobility-Modulates-Immunological-Synapse-Formation-and-T-Cell-Activation-pone.0032398.s008.ogv 6,0 с, 105 × 97; 58 Кб
  
• Ligand-Mobility-Modulates-Immunological-Synapse-Formation-and-T-Cell-Activation-pone.0032398.s009.ogv 2,0 с, 127 × 126; 63 Кб
  
• Ligand-Mobility-Modulates-Immunological-Synapse-Formation-and-T-Cell-Activation-pone.0032398.s010.ogv 2,7 с, 110 × 102; 189 Кб
  
• Live-imaging-and-analysis-of-postnatal-mouse-retinal-development-1471-213X-13-24-S7.ogv 16 с, 1008 × 326; 2,19 Мб
  
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  LOF-idea.svg 124 × 130; 8 Кб
  
• Mapping-the-Conformational-Dynamics-and-Pathways-of-Spontaneous-Steric-Zipper-Peptide-pone.0019129.s010.ogv 20 с, 670 × 834; 5,03 Мб
  
• Maturation-of-Induced-Pluripotent-Stem-Cell-Derived-Hepatocytes-by-3D-Culture-pone.0086372.s018.ogv 9,1 с, 480 × 480; 998 Кб
  
• Maturation-of-Induced-Pluripotent-Stem-Cell-Derived-Hepatocytes-by-3D-Culture-pone.0086372.s019.ogv 4,8 с, 512 × 512; 557 Кб
  
• Maturation-of-Induced-Pluripotent-Stem-Cell-Derived-Hepatocytes-by-3D-Culture-pone.0086372.s020.ogv 4,8 с, 1024 × 1024; 741 Кб
  
• Maturation-of-Induced-Pluripotent-Stem-Cell-Derived-Hepatocytes-by-3D-Culture-pone.0086372.s021.ogv 4,8 с, 1024 × 1024; 583 Кб
  
• Microgravity-simulation-by-diamagnetic-levitation-effects-of-a-strong-gradient-magnetic-field-on-1471-2164-13-52-S2.ogv 10 м 0 с, 640 × 480; 81,26 Мб
  
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  Minimum spannig tree.jpg 575 × 369; 18 Кб
  
• Muscle-Bound-Primordial-Stem-Cells-Give-Rise-to-Myofiber-Associated-Myogenic-and-Non-Myogenic-pone.0025605.s006.ogv 5,6 с, 640 × 480; 501 Кб
  
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  Nearest-neighbor chain algorithm animated.gif 300 × 311; 449 Кб
  
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  Nonbayesian-categorical-mixture.svg 178 × 156; 16 Кб
  
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  Nonbayesian-gaussian-mixture.svg 186 × 154; 20 Кб
  
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  Occupied Grids P = 0.24.png 394 × 366; 12 Кб
  
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  Occupied Grids P = 0.64.png 404 × 378; 14 Кб
  
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  OPTICS-Gaussian-data.svg 434 × 467; 569 Кб
  
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  OPTICS.png 350 × 341; 31 Кб
  
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  OPTICS.svg 712 × 487; 643 Кб
  
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  Otimalidadedoalgoritmo.jpeg 700 × 400; 23 Кб
  
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  PACexplained.png 720 × 540; 70 Кб
  
• Plasticity-of-Blood--and-Lymphatic-Endothelial-Cells-and-Marker-Identification-pone.0074293.s002.ogv 23 с, 1280 × 720; 2,88 Мб
  
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  Primsdem.jpg 700 × 400; 7 Кб
  
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  Principal tree for Iris data set.png 1240 × 720; 36 Кб
  
• Quantifying-the-Spatial-Dimension-of-Dengue-Virus-Epidemic-Spread-within-a-Tropical-Urban-pntd.0000920.s002.ogv 52 с, 640 × 480; 3,59 Мб
  
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  RDQGif.gif 461 × 560; 6 Кб
  
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  Reachability-distance.svg 124 × 130; 6 Кб
  
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  School cluster.png 4096 × 4096; 5,79 Мб
  
• Sequential-Alterations-in-Catabolic-and-Anabolic-Gene-Expression-Parallel-Pathological-Changes-pone.0024320.s007.ogv 15 с, 784 × 528; 4,9 Мб
  
• Sequential-Alterations-in-Catabolic-and-Anabolic-Gene-Expression-Parallel-Pathological-Changes-pone.0024320.s008.ogv 15 с, 784 × 528; 4,74 Мб
  
• Sequential-Alterations-in-Catabolic-and-Anabolic-Gene-Expression-Parallel-Pathological-Changes-pone.0024320.s009.ogv 15 с, 784 × 528; 7,08 Мб
  
• Sequential-Alterations-in-Catabolic-and-Anabolic-Gene-Expression-Parallel-Pathological-Changes-pone.0024320.s010.ogv 15 с, 784 × 528; 7,06 Мб
  
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  Simple linkage-5S.svg 776 × 584; 2 Кб
  
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  Single linkage.png 899 × 537; 17 Кб
  
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  SLINK-density-data.svg 434 × 467; 445 Кб
  
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  SLINK-Gaussian-data.svg 434 × 467; 572 Кб
  
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  Spatial genetic structure of walnuts population.png 2242 × 1055; 822 Кб
  
• Spatio-temporal-cluster-analysis-of-the-incidence-of-Campylobacter-cases-and-patients-with-general-1476-072X-8-11-S1.ogv 41 с, 320 × 240; 2,03 Мб
  
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  Specclus irisknn1.svg 900 × 900; 4,81 Мб
  
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  Spectral clustering vs k means.png 4000 × 1947; 77 Кб
  
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  Spectral clusterization example.png 605 × 509; 39 Кб
  
• Stereo-Vision-Tracking-of-Multiple-Objects-in-Complex-Indoor-Environments-sensors-10-08865-s001.ogv 2,9 с, 320 × 480; 541 Кб
  
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  SubspaceClustering.png 300 × 293; 27 Кб
  
• Super-resolution-mapping-of-glutamate-receptors-in-C.-elegans-by-confocal-correlated-PALM-srep13532-s1.ogv 2,5 с, 2156 × 1320; 2,87 Мб
  
• Super-resolution-mapping-of-glutamate-receptors-in-C.-elegans-by-confocal-correlated-PALM-srep13532-s2.ogv 20 с, 512 × 512; 5,26 Мб
  
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  Swedish defense Twitter mentionsgraph cluster.png 1754 × 1239; 1,19 Мб
  
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  Swiss cmeans.svg 630 × 630; 109 Кб
  
• The-Cerato-Platanin-protein-Epl-1-from-Trichoderma-harzianum-is-involved-in-mycoparasitism-plant-srep17998-s2.ogv 32 с, 640 × 480; 960 Кб
  
• The-Cerato-Platanin-protein-Epl-1-from-Trichoderma-harzianum-is-involved-in-mycoparasitism-plant-srep17998-s3.ogv 32 с, 640 × 480; 1,2 Мб
  
• The-ligand-binding-mechanism-to-purine-nucleoside-phosphorylase-elucidated-via-molecular-dynamics-ncomms7155-s2.ogv 1 м 9 с, 480 × 270; 21,12 Мб
  
• The-ligand-binding-mechanism-to-purine-nucleoside-phosphorylase-elucidated-via-molecular-dynamics-ncomms7155-s3.ogv 2 м 25 с, 480 × 270; 62,62 Мб
  
• The-ligand-binding-mechanism-to-purine-nucleoside-phosphorylase-elucidated-via-molecular-dynamics-ncomms7155-s4.ogv 1 м 3 с, 480 × 270; 20,26 Мб
  
• The-ligand-binding-mechanism-to-purine-nucleoside-phosphorylase-elucidated-via-molecular-dynamics-ncomms7155-s5.ogv 4 м 5 с, 480 × 270; 99,36 Мб
  
• The-Neuromagnetic-Dynamics-of-Time-Perception-pone.0042618.s001.ogv 4,8 с, 288 × 288; 35 Кб
  
• The-Neuromagnetic-Dynamics-of-Time-Perception-pone.0042618.s002.ogv 4,8 с, 288 × 288; 73 Кб
  
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  Truth table IV.PNG 958 × 638; 153 Кб
  
• Tumor-Invasion-Optimization-by-Mesenchymal-Amoeboid-Heterogeneity-srep10622-s2.ogv 17 с, 640 × 480; 1,56 Мб
  
• Tumor-Invasion-Optimization-by-Mesenchymal-Amoeboid-Heterogeneity-srep10622-s3.ogv 17 с, 640 × 480; 1,36 Мб
  
• Tumor-Invasion-Optimization-by-Mesenchymal-Amoeboid-Heterogeneity-srep10622-s4.ogv 17 с, 640 × 480; 1,32 Мб
  
• Tumor-Invasion-Optimization-by-Mesenchymal-Amoeboid-Heterogeneity-srep10622-s5.ogv 17 с, 640 × 480; 1,19 Мб
  
• Unfolding-Simulations-Reveal-the-Mechanism-of-Extreme-Unfolding-Cooperativity-in-the-Kinetically-pcbi.1000689.s007.ogv 2 м 49 с, 280 × 240; 30,84 Мб
  
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  UPGMA Dendrogram 5S data.svg 900 × 675; 25 Кб
  
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  UPGMA Dendrogram Hierarchical.svg 937 × 597; 25 Кб
  
• Visualizing-and-clustering-high-throughput-sub-cellular-localization-imaging-1471-2105-9-81-S1.ogv 48 с, 534 × 400; 3,55 Мб
  
• Visualizing-and-clustering-high-throughput-sub-cellular-localization-imaging-1471-2105-9-81-S2.ogv 48 с, 534 × 400; 3,55 Мб
  
• Visualizing-and-clustering-high-throughput-sub-cellular-localization-imaging-1471-2105-9-81-S3.ogv 41 с, 534 × 400; 3,66 Мб
  
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  WPGMA Dendrogram 5S data.svg 900 × 675; 24 Кб
  
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