Category:Basic cancer research

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Irving Cancer Research Center (3 F)

Media in category "Basic cancer research"

The following 200 files are in this category, out of 329 total.

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-Arrestin2-Regulates-Lysophosphatidic-Acid-Induced-Human-Breast-Tumor-Cell-Migration-and-Invasion-pone.0056174.s003.ogv 10 s, 322 × 480; 1.96 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s003.ogv 2.0 s, 295 × 202; 344 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s004.ogv 6.0 s, 253 × 212; 475 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s005.ogv 8.0 s, 241 × 319; 2.5 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s006.ogv 2.9 s, 834 × 855; 1.75 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s007.ogv 3.2 s, 810 × 808; 1.25 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s008.ogv 4.0 s, 1,200 × 900; 875 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s009.ogv 3.6 s, 1,200 × 900; 955 KB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s010.ogv 20 s, 1,122 × 764; 15.29 MB
A-Novel-3D-Fibril-Force-Assay-Implicates-Src-in-Tumor-Cell-Force-Generation-in-Collagen-Networks-pone.0058138.s011.ogv 20 s, 1,122 × 764; 11.35 MB
A-Novel-Mouse-Model-for-Multiple-Myeloma-(MOPC315.BM)-That-Allows-Noninvasive-Spatiotemporal-pone.0051892.s004.ogv 10 s, 560 × 544; 1.03 MB
A-Novel-Mouse-Model-for-Multiple-Myeloma-(MOPC315.BM)-That-Allows-Noninvasive-Spatiotemporal-pone.0051892.s005.ogv 5.0 s, 560 × 544; 1.02 MB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s002.ogv 7.2 s, 696 × 520; 237 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s003.ogv 7.2 s, 696 × 520; 226 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s004.ogv 1.8 s, 696 × 520; 231 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s005.ogv 3.6 s, 696 × 520; 286 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s006.ogv 5.1 s, 696 × 520; 208 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s007.ogv 5.1 s, 696 × 520; 155 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s008.ogv 3.6 s, 696 × 520; 222 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s009.ogv 9.0 s, 696 × 520; 263 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s010.ogv 7.0 s, 696 × 520; 371 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s011.ogv 7.2 s, 696 × 520; 434 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s012.ogv 3.6 s, 696 × 520; 252 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s013.ogv 3.6 s, 696 × 520; 309 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s014.ogv 3.6 s, 696 × 520; 125 KB
A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s015.ogv 3.6 s, 696 × 520; 225 KB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s008.ogv 12 s, 1,488 × 832; 8.15 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s009.ogv 12 s, 1,488 × 832; 6.9 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s010.ogv 12 s, 1,488 × 832; 7.95 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s011.ogv 12 s, 1,488 × 832; 8.69 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s012.ogv 12 s, 1,488 × 832; 7.05 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s013.ogv 12 s, 1,488 × 832; 10.69 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s014.ogv 12 s, 1,488 × 832; 11.64 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s015.ogv 12 s, 1,488 × 832; 8.89 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s016.ogv 12 s, 1,488 × 832; 8.84 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s017.ogv 12 s, 1,920 × 1,004; 9.7 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s018.ogv 12 s, 1,920 × 1,004; 9.71 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s019.ogv 12 s, 1,920 × 1,004; 9.17 MB
A-Validated-Multiscale-In-Silico-Model-for-Mechano-sensitive-Tumour-Angiogenesis-and-Growth-pcbi.1005259.s020.ogv 12 s, 1,920 × 1,004; 9.2 MB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g001.jpg 736 × 1,048; 124 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g002.jpg 688 × 568; 70 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g003.jpg 696 × 756; 87 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g004.jpg 743 × 1,034; 103 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g005.jpg 698 × 1,297; 162 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g006.jpg 654 × 293; 44 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g007.jpg 620 × 609; 76 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g008.jpg 795 × 750; 81 KB
Aberrant-Expression-of-Interleukin-1β-and-Inflammasome-Activation-in-Human-Malignant-Gliomas-pone.0103432.g009.jpg 678 × 811; 129 KB
Affibody-DyLight-Conjugates-for-In-Vivo-Assessment-of-HER2-Expression-by-Near-Infrared-Optical-pone.0041016.s008.ogv 1 min 1 s, 720 × 404; 1.09 MB
An-EMT–Driven-Alternative-Splicing-Program-Occurs-in-Human-Breast-Cancer-and-Modulates-Cellular-pgen.1002218.s019.ogv 10 s, 1,208 × 892; 3.33 MB
An-EMT–Driven-Alternative-Splicing-Program-Occurs-in-Human-Breast-Cancer-and-Modulates-Cellular-pgen.1002218.s020.ogv 17 s, 1,176 × 960; 1.57 MB
An-Improved-Chamber-for-Direct-Visualisation-of-Chemotaxis-pone.0015309.s001.ogv 12 s, 316 × 538; 2.13 MB
An-Improved-Chamber-for-Direct-Visualisation-of-Chemotaxis-pone.0015309.s002.ogv 12 s, 316 × 531; 2.29 MB
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
Automated-Whole-Animal-Bio-Imaging-Assay-for-Human-Cancer-Dissemination-pone.0031281.s004.ogv 1.4 s, 1,024 × 1,024; 200 KB
Automated-Whole-Animal-Bio-Imaging-Assay-for-Human-Cancer-Dissemination-pone.0031281.s005.ogv 8.8 s, 748 × 828; 941 KB
Automated-Whole-Animal-Bio-Imaging-Assay-for-Human-Cancer-Dissemination-pone.0031281.s006.ogv 2.2 s, 740 × 828; 1.16 MB
Bax-Translocation-Mediated-Mitochondrial-Apoptosis-and-Caspase-Dependent-Photosensitizing-Effect-of-pone.0040055.s001.ogv 3.0 s, 688 × 520; 132 KB
Bax-Translocation-Mediated-Mitochondrial-Apoptosis-and-Caspase-Dependent-Photosensitizing-Effect-of-pone.0040055.s002.ogv 3.6 s, 688 × 520; 266 KB
Bax-Translocation-Mediated-Mitochondrial-Apoptosis-and-Caspase-Dependent-Photosensitizing-Effect-of-pone.0040055.s003.ogv 3.6 s, 688 × 520; 343 KB
Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s002.ogv 21 s, 840 × 656; 3.54 MB
Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s003.ogv 21 s, 1,200 × 1,024; 2.52 MB
Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s004.ogv 17 s, 600 × 480; 1.78 MB
Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s005.ogv 17 s, 600 × 480; 920 KB
Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s006.ogv 9.0 s, 1,110 × 840; 2.06 MB
Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s007.ogv 21 s, 600 × 456; 1.12 MB
Building-Bridges-toward-Invasion-Tumor-Promoter-Treatment-Induces-a-Novel-Protein-Kinase-C-pone.0090722.s001.ogv 21 s, 300 × 300; 443 KB
Building-Bridges-toward-Invasion-Tumor-Promoter-Treatment-Induces-a-Novel-Protein-Kinase-C-pone.0090722.s002.ogv 21 s, 300 × 300; 679 KB
Bundesarchiv Bild 102-11254, Paris, Entwicklung eines Krebsserums.jpg 574 × 800; 43 KB
CD133Prominin-1-Mediated-Autophagy-and-Glucose-Uptake-Beneficial-for-Hepatoma-Cell-Survival-pone.0056878.s002.ogv 5.1 s, 1,440 × 1,080; 871 KB
CD133Prominin-1-Mediated-Autophagy-and-Glucose-Uptake-Beneficial-for-Hepatoma-Cell-Survival-pone.0056878.s003.ogv 4.0 s, 1,440 × 1,080; 820 KB
Cell-Cycle-Dependent-Rho-GTPase-Activity-Dynamically-Regulates-Cancer-Cell-Motility-and-Invasion-In-pone.0083629.s015.ogv 24 s, 300 × 300; 5.05 MB
Cell-Cycle-Dependent-Rho-GTPase-Activity-Dynamically-Regulates-Cancer-Cell-Motility-and-Invasion-In-pone.0083629.s016.ogv 8.0 s, 300 × 300; 507 KB
Cell-Cycle-Dependent-Rho-GTPase-Activity-Dynamically-Regulates-Cancer-Cell-Motility-and-Invasion-In-pone.0083629.s017.ogv 20 s, 300 × 300; 5.25 MB
Cell-Cycle-Dependent-Rho-GTPase-Activity-Dynamically-Regulates-Cancer-Cell-Motility-and-Invasion-In-pone.0083629.s018.ogv 14 s, 300 × 300; 1.78 MB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s006.ogv 23 s, 640 × 480; 655 KB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s007.ogv 53 s, 512 × 500; 1.99 MB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s008.ogv 8.5 s, 1,392 × 1,040; 423 KB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s009.ogv 13 s, 434 × 348; 131 KB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s010.ogv 21 s, 530 × 512; 754 KB
Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s011.ogv 25 s, 512 × 512; 276 KB
Co-Regulation-of-Cell-Polarization-and-Migration-by-Caveolar-Proteins-PTRFCavin-1-and-Caveolin-1-pone.0043041.s001.ogv 4.0 s, 922 × 806; 2.66 MB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s001.ogv 16 s, 527 × 358; 1.38 MB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s002.ogv 16 s, 371 × 326; 1.45 MB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s003.ogv 16 s, 544 × 581; 2.84 MB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s004.ogv 16 s, 434 × 380; 1.75 MB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s005.ogv 16 s, 371 × 294; 479 KB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s006.ogv 16 s, 532 × 490; 1.64 MB
Cooperative-Anti-Invasive-Effect-of-Cdc42Rac1-Activation-and-ROCK-Inhibition-in-SW620-Colorectal-pone.0048344.s007.ogv 19 s, 387 × 348; 4.62 MB
Cooperative-Roles-of-SDF-1-and-EGF-Gradients-on-Tumor-Cell-Migration-Revealed-by-a-Robust-3D-pone.0068422.s001.ogv 12 s, 319 × 512; 3.24 MB
Cooperative-Roles-of-SDF-1-and-EGF-Gradients-on-Tumor-Cell-Migration-Revealed-by-a-Robust-3D-pone.0068422.s002.ogv 12 s, 319 × 512; 2.84 MB
CXCR4CXCL12-Participate-in-Extravasation-of-Metastasizing-Breast-Cancer-Cells-within-the-Liver-in-a-pone.0030046.s001.ogv 1.2 s, 800 × 600; 1.9 MB
CXCR4CXCL12-Participate-in-Extravasation-of-Metastasizing-Breast-Cancer-Cells-within-the-Liver-in-a-pone.0030046.s002.ogv 1.2 s, 800 × 600; 1.89 MB
Cyanine-5.5-Conjugated-Nanobubbles-as-a-Tumor-Selective-Contrast-Agent-for-Dual-Ultrasound-pone.0061224.s002.ogv 25 s, 960 × 720; 6.11 MB
Darinaparsin-Is-a-Multivalent-Chemotherapeutic-Which-Induces-Incomplete-Stress-Response-with-pone.0027699.s001.ogv 26 s, 518 × 514; 449 KB
Decellularized-Matrix-from-Tumorigenic-Human-Mesenchymal-Stem-Cells-Promotes-Neovascularization-pone.0021888.s001.ogv 37 s, 352 × 288; 2.83 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
Detachment-of-Breast-Tumor-Cells-Induces-Rapid-Secretion-of-Exosomes-Which-Subsequently-Mediate-pone.0024234.s002.ogv 18 s, 480 × 480; 577 KB
Detachment-of-Breast-Tumor-Cells-Induces-Rapid-Secretion-of-Exosomes-Which-Subsequently-Mediate-pone.0024234.s003.ogv 7.6 s, 480 × 480; 1.43 MB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s001.ogv 20 s, 854 × 480; 1.05 MB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s002.ogv 27 s, 854 × 480; 1.06 MB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s003.ogv 20 s, 854 × 480; 542 KB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s004.ogv 20 s, 854 × 480; 445 KB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s005.ogv 9.5 s, 854 × 480; 326 KB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s006.ogv 9.5 s, 854 × 480; 270 KB
Differential-Mechanisms-Associated-with-Vascular-Disrupting-Action-of-Electrochemotherapy-pone.0059557.s007.ogv 9.5 s, 854 × 480; 219 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
EB1-Is-Required-for-Spindle-Symmetry-in-Mammalian-Mitosis-pone.0028884.s005.ogv 4.1 s, 300 × 296; 2.68 MB
EB1-Is-Required-for-Spindle-Symmetry-in-Mammalian-Mitosis-pone.0028884.s006.ogv 4.4 s, 392 × 349; 1.86 MB
EB1-Is-Required-for-Spindle-Symmetry-in-Mammalian-Mitosis-pone.0028884.s007.ogv 7.9 s, 324 × 392; 7.1 MB
EB1-Is-Required-for-Spindle-Symmetry-in-Mammalian-Mitosis-pone.0028884.s008.ogv 5.3 s, 408 × 427; 4.81 MB
EB1-Is-Required-for-Spindle-Symmetry-in-Mammalian-Mitosis-pone.0028884.s009.ogv 7.9 s, 356 × 346; 8.12 MB
EB1-Is-Required-for-Spindle-Symmetry-in-Mammalian-Mitosis-pone.0028884.s011.ogv 10 s, 256 × 265; 1.79 MB
Effects-of-Enriched-Environment-on-COX-2-Leptin-and-Eicosanoids-in-a-Mouse-Model-of-Breast-Cancer-pone.0051525.s002.ogv 3 min 11 s, 320 × 240; 43.1 MB
Efficient-Photodynamic-Therapy-on-Human-Retinoblastoma-Cell-Lines-pone.0087453.s001.ogv 38 s, 768 × 576; 1.22 MB
ErbB2-Dependent-Chemotaxis-Requires-Microtubule-Capture-and-Stabilization-Coordinated-by-Distinct-pone.0055211.s008.ogv 8.0 s, 748 × 382; 404 KB
Establishment-of-a-Non-Invasive-Semi-Quantitative-Bioluminescent-Imaging-Method-for-Monitoring-of-pone.0114562.s001.ogv 1 min 52 s, 312 × 240; 4.44 MB
Exploring-the-Competition-between-Proliferative-and-Invasive-Cancer-Phenotypes-in-a-Continuous-pone.0103191.s021.ogv 24 s, 1,200 × 900; 2.29 MB
Exploring-the-Competition-between-Proliferative-and-Invasive-Cancer-Phenotypes-in-a-Continuous-pone.0103191.s022.ogv 24 s, 1,200 × 900; 4.01 MB
Exploring-the-Competition-between-Proliferative-and-Invasive-Cancer-Phenotypes-in-a-Continuous-pone.0103191.s023.ogv 24 s, 1,200 × 900; 1.61 MB
Exploring-the-Competition-between-Proliferative-and-Invasive-Cancer-Phenotypes-in-a-Continuous-pone.0103191.s024.ogv 24 s, 1,200 × 900; 3.36 MB
Fatty-Acid-Synthase-Is-a-Key-Target-in-Multiple-Essential-Tumor-Functions-of-Prostate-Cancer-Uptake-pone.0064570.s005.ogv 12 s, 640 × 480; 773 KB
Fatty-Acid-Synthase-Is-a-Key-Target-in-Multiple-Essential-Tumor-Functions-of-Prostate-Cancer-Uptake-pone.0064570.s006.ogv 12 s, 640 × 480; 1,015 KB
Fibronectin-Matrix-Assembly-Suppresses-Dispersal-of-Glioblastoma-Cells-pone.0024810.s004.ogv 18 s, 960 × 540; 1.06 MB
Fibronectin-Matrix-Assembly-Suppresses-Dispersal-of-Glioblastoma-Cells-pone.0024810.s005.ogv 18 s, 960 × 540; 1.73 MB
Functional-Characterisation-of-the-WW-Minimal-Domain-for-Delivering-Therapeutic-Proteins-by-pone.0045416.s003.ogv 7.0 s, 1,392 × 1,040; 849 KB
Gas-Filled-Phospholipid-Nanoparticles-Conjugated-with-Gadolinium-Play-a-Role-as-a-Potential-pone.0034333.s001.ogv 1 min 5 s, 480 × 272; 2.29 MB
Gas-Filled-Phospholipid-Nanoparticles-Conjugated-with-Gadolinium-Play-a-Role-as-a-Potential-pone.0034333.s002.ogv 1 min 17 s, 480 × 272; 2.18 MB
Gas-Filled-Phospholipid-Nanoparticles-Conjugated-with-Gadolinium-Play-a-Role-as-a-Potential-pone.0034333.s003.ogv 1 min 4 s, 480 × 272; 3.44 MB
Gas-Filled-Phospholipid-Nanoparticles-Conjugated-with-Gadolinium-Play-a-Role-as-a-Potential-pone.0034333.s004.ogv 1 min 4 s, 480 × 272; 5.71 MB
Genome-Wide-Screening-Identified-That-miR-134-Acts-as-a-Metastasis-Suppressor-by-Targeting-Integrin-pone.0087665.s006.ogv 4.6 s, 625 × 480; 1.69 MB
Genome-Wide-Screening-Identified-That-miR-134-Acts-as-a-Metastasis-Suppressor-by-Targeting-Integrin-pone.0087665.s007.ogv 4.6 s, 625 × 480; 1.72 MB
Genome-Wide-Screening-Identified-That-miR-134-Acts-as-a-Metastasis-Suppressor-by-Targeting-Integrin-pone.0087665.s008.ogv 4.8 s, 625 × 480; 2.3 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s007.ogv 3.1 s, 594 × 600; 1.35 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s008.ogv 3.9 s, 515 × 517; 696 KB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s009.ogv 3.9 s, 518 × 514; 781 KB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s010.ogv 3.9 s, 518 × 514; 759 KB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s011.ogv 3.9 s, 518 × 514; 967 KB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s012.ogv 3.9 s, 518 × 514; 2 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s013.ogv 3.5 s, 192 × 144; 12 KB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s014.ogv 12 s, 1,280 × 480; 7.49 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s015.ogv 39 s, 1,024 × 512; 3.81 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s016.ogv 17 s, 512 × 512; 8.1 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s017.ogv 15 s, 512 × 512; 10.86 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s018.ogv 18 s, 512 × 512; 14.34 MB
GTSE1-Is-a-Microtubule-Plus-End-Tracking-Protein-That-Regulates-EB1-Dependent-Cell-Migration-pone.0051259.s019.ogv 19 s, 512 × 512; 9.03 MB
Heterogenic-Final-Cell-Cycle-by-Chicken-Retinal-Lim1-Horizontal-Progenitor-Cells-Leads-to-pone.0059133.s003.ogv 4.4 s, 1,106 × 863; 244 KB
High-Resolution-In-Vivo-Analysis-of-Normal-Brain-Response-to-Cranial-Irradiation-pone.0038366.s007.ogv 2.0 s, 240 × 320; 345 KB
High-Resolution-In-Vivo-Analysis-of-Normal-Brain-Response-to-Cranial-Irradiation-pone.0038366.s008.ogv 2.8 s, 240 × 320; 192 KB
Highly-Sensitive-Quantitative-Imaging-for-Monitoring-Single-Cancer-Cell-Growth-Kinetics-and-Drug-pone.0089000.s003.ogv 24 s, 640 × 480; 1.1 MB
Highly-Sensitive-Quantitative-Imaging-for-Monitoring-Single-Cancer-Cell-Growth-Kinetics-and-Drug-pone.0089000.s004.ogv 27 s, 640 × 480; 2.53 MB
Hwanggeumchal-sorghum-Induces-Cell-Cycle-Arrest-and-Suppresses-Tumor-Growth-and-Metastasis-through-pone.0040531.s001.ogv 0.7 s, 696 × 520; 459 KB
Hwanggeumchal-sorghum-Induces-Cell-Cycle-Arrest-and-Suppresses-Tumor-Growth-and-Metastasis-through-pone.0040531.s002.ogv 0.7 s, 696 × 520; 430 KB
Identification-of-Key-Uric-Acid-Synthesis-Pathway-in-a-Unique-Mutant-Silkworm-Bombyx-mori-Model-of-pone.0069130.s007.ogv 5 min 38 s, 640 × 360; 7.16 MB
Imaging-Circulating-Tumor-Cells-in-Freely-Moving-Awake-Small-Animals-Using-a-Miniaturized-pone.0086759.s003.ogv 14 s, 336 × 480; 141 KB
Imaging-Circulating-Tumor-Cells-in-Freely-Moving-Awake-Small-Animals-Using-a-Miniaturized-pone.0086759.s004.ogv 14 s, 480 × 360; 1.29 MB
Improved-Resection-and-Outcome-of-Colon-Cancer-Liver-Metastasis-with-Fluorescence-Guided-Surgery-pone.0148760.s002.ogv 34 s, 1,280 × 720; 7.45 MB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s008.ogv 11 s, 512 × 512; 148 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s009.ogv 21 s, 239 × 278; 21 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s010.ogv 1.8 s, 514 × 216; 111 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s011.ogv 2.4 s, 490 × 202; 118 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s012.ogv 1.8 s, 442 × 196; 56 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s013.ogv 2.4 s, 578 × 262; 122 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s014.ogv 2.4 s, 364 × 186; 65 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s015.ogv 2.4 s, 314 × 392; 115 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s016.ogv 2.4 s, 322 × 440; 90 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s017.ogv 2.4 s, 300 × 256; 57 KB
Inherent-Interfacial-Mechanical-Gradients-in-3D-Hydrogels-Influence-Tumor-Cell-Behaviors-pone.0035852.s018.ogv 1.2 s, 309 × 188; 74 KB
Inhibition-of-c-Abl-Kinase-Activity-Renders-Cancer-Cells-Highly-Sensitive-to-Mitoxantrone-pone.0105526.s007.ogv 15 s, 1,280 × 720; 4.4 MB
Inhibition-of-c-Abl-Kinase-Activity-Renders-Cancer-Cells-Highly-Sensitive-to-Mitoxantrone-pone.0105526.s008.ogv 15 s, 854 × 480; 3.07 MB
Integrin-Linked-Kinase-Regulates-Interphase-and-Mitotic-Microtubule-Dynamics-pone.0053702.s009.ogv 11 s, 320 × 240; 133 KB
Integrin-Linked-Kinase-Regulates-Interphase-and-Mitotic-Microtubule-Dynamics-pone.0053702.s010.ogv 10 s, 320 × 240; 86 KB
Integrin-Linked-Kinase-Regulates-Interphase-and-Mitotic-Microtubule-Dynamics-pone.0053702.s011.ogv 14 s, 318 × 462; 1.94 MB
Integrin-Linked-Kinase-Regulates-Interphase-and-Mitotic-Microtubule-Dynamics-pone.0053702.s012.ogv 14 s, 302 × 381; 1.93 MB
Integrin-Linked-Kinase-Regulates-Interphase-and-Mitotic-Microtubule-Dynamics-pone.0053702.s013.ogv 10 s, 473 × 348; 1.41 MB
Integrin-Linked-Kinase-Regulates-Interphase-and-Mitotic-Microtubule-Dynamics-pone.0053702.s014.ogv 10 s, 531 × 328; 1.7 MB
Intracellular-Theileria-annulata-Promote-Invasive-Cell-Motility-through-Kinase-Regulation-of-the-ppat.1004003.s008.ogv 6.0 s, 708 × 540; 4.29 MB
Intracellular-Theileria-annulata-Promote-Invasive-Cell-Motility-through-Kinase-Regulation-of-the-ppat.1004003.s009.ogv 6.0 s, 708 × 540; 464 KB
Intracellular-Theileria-annulata-Promote-Invasive-Cell-Motility-through-Kinase-Regulation-of-the-ppat.1004003.s010.ogv 6.0 s, 708 × 540; 3.94 MB
Intracellular-Theileria-annulata-Promote-Invasive-Cell-Motility-through-Kinase-Regulation-of-the-ppat.1004003.s011.ogv 6.0 s, 708 × 540; 411 KB
Intraperitoneal-Mesenchymal-Cells-Promote-the-Development-of-Peritoneal-Metastasis-Partly-by-pone.0154542.s004.ogv 15 s, 1,648 × 852; 6.59 MB
Intraperitoneal-Mesenchymal-Cells-Promote-the-Development-of-Peritoneal-Metastasis-Partly-by-pone.0154542.s005.ogv 15 s, 1,648 × 852; 27.27 MB
Local-Oxidative-Stress-Expansion-through-Endothelial-Cells-–-A-Key-Role-for-Gap-Junction-pone.0041633.s005.ogv 5.9 s, 512 × 512; 1.46 MB
Loss-of-Myoferlin-Redirects-Breast-Cancer-Cell-Motility-towards-Collective-Migration-pone.0086110.s002.ogv 12 s, 890 × 676; 8.64 MB
Loss-of-Myoferlin-Redirects-Breast-Cancer-Cell-Motility-towards-Collective-Migration-pone.0086110.s003.ogv 12 s, 892 × 679; 14.35 MB
Luteoloside-Suppresses-Proliferation-and-Metastasis-of-Hepatocellular-Carcinoma-Cells-by-Inhibition-pone.0089961.s003.ogv 10 s, 512 × 512; 2.03 MB
Luteoloside-Suppresses-Proliferation-and-Metastasis-of-Hepatocellular-Carcinoma-Cells-by-Inhibition-pone.0089961.s004.ogv 10 s, 512 × 512; 1.54 MB
Luteoloside-Suppresses-Proliferation-and-Metastasis-of-Hepatocellular-Carcinoma-Cells-by-Inhibition-pone.0089961.s005.ogv 14 s, 512 × 512; 1.33 MB
Luteoloside-Suppresses-Proliferation-and-Metastasis-of-Hepatocellular-Carcinoma-Cells-by-Inhibition-pone.0089961.s006.ogv 14 s, 512 × 512; 1.55 MB
Magnetic-Resonance-Thermometry-at-7T-for-Real-Time-Monitoring-and-Correction-of-Ultrasound-Induced-pone.0035509.s001.ogv 22 s, 654 × 480; 685 KB
Magnetic-Resonance-Thermometry-at-7T-for-Real-Time-Monitoring-and-Correction-of-Ultrasound-Induced-pone.0035509.s002.ogv 37 s, 654 × 480; 2.39 MB
Magnetic-Resonance-Thermometry-at-7T-for-Real-Time-Monitoring-and-Correction-of-Ultrasound-Induced-pone.0035509.s003.ogv 19 s, 654 × 480; 551 KB
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
Mechanism-of-Cancer-Cell-Death-Induced-by-Depletion-of-an-Essential-Replication-Regulator-pone.0036372.s006.ogv 7.3 s, 264 × 203; 322 KB
Mechanism-of-Cancer-Cell-Death-Induced-by-Depletion-of-an-Essential-Replication-Regulator-pone.0036372.s007.ogv 9.2 s, 264 × 203; 280 KB
Mechanism-of-Cancer-Cell-Death-Induced-by-Depletion-of-an-Essential-Replication-Regulator-pone.0036372.s008.ogv 11 s, 198 × 152; 210 KB
Mechanism-of-Cancer-Cell-Death-Induced-by-Depletion-of-an-Essential-Replication-Regulator-pone.0036372.s009.ogv 11 s, 198 × 152; 277 KB

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