Category:Videos of cell biology

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Subcategories

This category has the following 26 subcategories, out of 26 total.

A

Videos of active transport‎ (3 C, 21 F)
Videos of cell adhesion‎ (2 C, 14 F)
Videos of cell anatomy‎ (11 C, 261 F)

B

Videos of cell biomechanics‎ (13 F)

C

Videos of chemical biology of the cell‎ (72 F)
Videos of clathrin‎ (1 C, 14 F)
Videos of cytometric techniques‎ (9 F)
Videos of cytoplasm‎ (1 C, 124 F)

E

Videos of extracellular matrix‎ (1 C, 27 F)

G

Videos of golgi apparatus‎ (168 F)

J

Videos of cell junctions‎ (84 F)

M

N

Videos of neurons‎ (8 C, 412 F)

P

Videos of cell physiology‎ (4 C, 37 F)
Videos of plasmids‎ (58 F)
Videos of Procaryota cell diagrams‎ (1 F)
Videos of cellular processes‎ (2 C, 5 F)
Videos of protein biosynthesis‎ (1 C, 56 F)

R

Videos of receptor proteins‎ (3 C, 3 F)

T

Videos of tissue engineering‎ (108 F)
Videos of cell types‎ (9 C, 1167 F)

V

Videos of vesicles‎ (1 C, 1 F)

Media in category "Videos of cell biology"

The following 200 files are in this category, out of 2,569 total.

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3D-Visualization-of-the-Temporal-and-Spatial-Spread-of-Tau-Pathology-Reveals-Extensive-Sites-of-Tau-pone.0159463.s004.ogv 58 s, 1,920 × 1,080; 6.68 MB
3D-Visualization-of-the-Temporal-and-Spatial-Spread-of-Tau-Pathology-Reveals-Extensive-Sites-of-Tau-pone.0159463.s005.ogv 34 s, 1,920 × 1,080; 5.4 MB
3D-Visualization-of-the-Temporal-and-Spatial-Spread-of-Tau-Pathology-Reveals-Extensive-Sites-of-Tau-pone.0159463.s006.ogv 48 s, 1,920 × 1,080; 6.99 MB
3D-Visualization-of-the-Temporal-and-Spatial-Spread-of-Tau-Pathology-Reveals-Extensive-Sites-of-Tau-pone.0159463.s007.ogv 55 s, 1,920 × 1,080; 10.77 MB
3D-Visualization-of-the-Temporal-and-Spatial-Spread-of-Tau-Pathology-Reveals-Extensive-Sites-of-Tau-pone.0159463.s008.ogv 7.5 s, 1,920 × 1,080; 493 KB
3D-Visualization-of-the-Temporal-and-Spatial-Spread-of-Tau-Pathology-Reveals-Extensive-Sites-of-Tau-pone.0159463.s009.ogv 7.5 s, 1,920 × 1,080; 520 KB
A-3D-self-organizing-multicellular-epidermis-model-of-barrier-formation-and-hydration-with-srep43472-s2.ogv 28 s, 1,110 × 678; 28.46 MB
A-3D-self-organizing-multicellular-epidermis-model-of-barrier-formation-and-hydration-with-srep43472-s3.ogv 28 s, 1,110 × 678; 27.99 MB
A-3D-self-organizing-multicellular-epidermis-model-of-barrier-formation-and-hydration-with-srep43472-s4.ogv 28 s, 1,110 × 678; 29.32 MB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s007.ogv 30 s, 512 × 512; 660 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s008.ogv 30 s, 504 × 354; 537 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s009.ogv 30 s, 512 × 512; 936 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s010.ogv 23 s, 512 × 512; 722 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s011.ogv 1 min 0 s, 512 × 512; 1.17 MB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s012.ogv 23 s, 512 × 512; 508 KB
A-Causal-Relation-between-Bioluminescence-and-Oxygen-to-Quantify-the-Cell-Niche-pone.0097572.s011.ogv 11 s, 360 × 640; 363 KB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s002.ogv 8.0 s, 1,284 × 982; 26.57 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s003.ogv 8.0 s, 1,284 × 982; 23 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s004.ogv 5.7 s, 1,920 × 1,084; 5.16 MB
A-Combined-In-Vitro-Imaging-and-Multi-Scale-Modeling-System-for-Studying-the-Role-of-Cell-Matrix-pone.0148254.s005.ogv 5.7 s, 1,920 × 1,084; 1.48 MB
A-Comprehensive-Panel-of-Three-Dimensional-Models-for-Studies-of-Prostate-Cancer-Growth-Invasion-pone.0010431.s013.ogv 1 min 6 s, 524 × 384; 8.71 MB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s004.ogv 51 s, 320 × 240; 358 KB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s005.ogv 51 s, 320 × 240; 515 KB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s006.ogv 51 s, 320 × 240; 706 KB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s007.ogv 55 s, 320 × 240; 2.33 MB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s008.ogv 55 s, 320 × 240; 4.84 MB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s009.ogv 55 s, 320 × 240; 3.85 MB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s010.ogv 51 s, 320 × 240; 333 KB
A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s011.ogv 51 s, 320 × 240; 285 KB
A-Computational-Framework-for-Ultrastructural-Mapping-of-Neural-Circuitry-pbio.1000074.sv001.ogv 9.0 s, 800 × 800; 5.45 MB
A-Computational-Framework-for-Ultrastructural-Mapping-of-Neural-Circuitry-pbio.1000074.sv002.ogv 19 s, 600 × 322; 2.22 MB
A-Computational-Framework-for-Ultrastructural-Mapping-of-Neural-Circuitry-pbio.1000074.sv003.ogv 34 s, 466 × 500; 27.98 MB
A-Cryptic-Frizzled-Module-in-Cell-Surface-Collagen-18-Inhibits-Wntβ−Catenin-Signaling-pone.0001878.s005.ogv 2.3 s, 1,024 × 1,024; 130 KB
A-Cryptic-Frizzled-Module-in-Cell-Surface-Collagen-18-Inhibits-Wntβ−Catenin-Signaling-pone.0001878.s006.ogv 2.0 s, 450 × 338; 77 KB
A-Cyclic-GMP-Signalling-Module-That-Regulates-Gliding-Motility-in-a-Malaria-Parasite-ppat.1000599.s007.ogv 10 s, 430 × 240; 137 KB
A-Cyclic-GMP-Signalling-Module-That-Regulates-Gliding-Motility-in-a-Malaria-Parasite-ppat.1000599.s008.ogv 10 s, 376 × 244; 131 KB
A-Cyclic-GMP-Signalling-Module-That-Regulates-Gliding-Motility-in-a-Malaria-Parasite-ppat.1000599.s009.ogv 10 s, 260 × 152; 89 KB
A-Cyclic-GMP-Signalling-Module-That-Regulates-Gliding-Motility-in-a-Malaria-Parasite-ppat.1000599.s010.ogv 10 s, 196 × 144; 71 KB
A-Development-of-Nucleic-Chromatin-Measurements-as-a-New-Prognostic-Marker-for-Severe-Chronic-Heart-pone.0148209.s003.ogv 3.2 s, 225 × 240; 42 KB
A-Development-of-Nucleic-Chromatin-Measurements-as-a-New-Prognostic-Marker-for-Severe-Chronic-Heart-pone.0148209.s004.ogv 14 s, 225 × 240; 337 KB
A-Development-of-Nucleic-Chromatin-Measurements-as-a-New-Prognostic-Marker-for-Severe-Chronic-Heart-pone.0148209.s005.ogv 6.1 s, 225 × 240; 282 KB
A-Development-of-Nucleic-Chromatin-Measurements-as-a-New-Prognostic-Marker-for-Severe-Chronic-Heart-pone.0148209.s006.ogv 6.6 s, 226 × 240; 756 KB
A-Fluorescent-Glycolipid-Binding-Peptide-Probe-Traces-Cholesterol-Dependent-Microdomain-Derived-pone.0002933.s004.ogv 10 s, 361 × 319; 1,004 KB
A-Fluorescent-Glycolipid-Binding-Peptide-Probe-Traces-Cholesterol-Dependent-Microdomain-Derived-pone.0002933.s005.ogv 2.5 s, 352 × 288; 45 KB
A-Fractal-Nature-for-Polymerized-Laminin-pone.0109388.s001.ogv 6.7 s, 1,540 × 785; 2.49 MB
A-lateral-signalling-pathway-coordinates-shape-volatility-during-cell-migration-ncomms11714-s2.ogv 14 s, 512 × 512; 1.21 MB
A-MAPK-Driven-Feedback-Loop-Suppresses-Rac-Activity-to-Promote-RhoA-Driven-Cancer-Cell-Invasion-pcbi.1004909.s009.ogv 2.9 s, 612 × 598; 1.53 MB
A-Mathematical-Model-for-EphEphrin-Directed-Segregation-of-Intermingled-Cells-pone.0111803.s003.ogv 1 min 12 s, 640 × 480; 19.37 MB
A-Mathematical-Model-for-EphEphrin-Directed-Segregation-of-Intermingled-Cells-pone.0111803.s004.ogv 1 min 36 s, 640 × 480; 59.23 MB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s007.ogv 12 s, 422 × 483; 825 KB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s008.ogv 4.9 s, 106 × 92; 13 KB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s009.ogv 4.9 s, 104 × 92; 14 KB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s010.ogv 58 s, 512 × 1,127; 19.81 MB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s011.ogv 58 s, 512 × 1,127; 17.4 MB
A-Model-for-Cell-Wall-Dissolution-in-Mating-Yeast-Cells-Polarized-Secretion-and-Restricted-pone.0109780.s001.ogv 4.4 s, 244 × 264; 75 KB
A-Model-for-Cell-Wall-Dissolution-in-Mating-Yeast-Cells-Polarized-Secretion-and-Restricted-pone.0109780.s002.ogv 4.4 s, 368 × 302; 223 KB
A-Model-for-Cell-Wall-Dissolution-in-Mating-Yeast-Cells-Polarized-Secretion-and-Restricted-pone.0109780.s003.ogv 4.4 s, 368 × 302; 307 KB
A-Model-for-Cell-Wall-Dissolution-in-Mating-Yeast-Cells-Polarized-Secretion-and-Restricted-pone.0109780.s004.ogv 6.1 s, 184 × 150; 110 KB
A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s010.ogv 4.8 s, 768 × 768; 14.58 MB
A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s011.ogv 2.4 s, 768 × 768; 7.6 MB
A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s012.ogv 4.8 s, 768 × 768; 15.39 MB
A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s013.ogv 4.8 s, 768 × 768; 12.37 MB
A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s014.ogv 4.8 s, 768 × 768; 12.01 MB
A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s015.ogv 4.8 s, 768 × 768; 20.82 MB
A-New-Organellar-Complex-in-Rat-Sympathetic-Neurons-pone.0010872.s002.ogv 10 s, 2,084 × 1,196; 920 KB
A-New-Organellar-Complex-in-Rat-Sympathetic-Neurons-pone.0010872.s003.ogv 10 s, 2,084 × 1,196; 1.25 MB
A-New-Organellar-Complex-in-Rat-Sympathetic-Neurons-pone.0010872.s004.ogv 8.9 s, 480 × 480; 1.19 MB
A-New-Organellar-Complex-in-Rat-Sympathetic-Neurons-pone.0010872.s005.ogv 2.9 s, 277 × 255; 431 KB
A-New-Organellar-Complex-in-Rat-Sympathetic-Neurons-pone.0010872.s006.ogv 12 s, 2,428 × 1,148; 2.46 MB
A-Novel-Alpha-Kinase-EhAK1-Phosphorylates-Actin-and-Regulates-Phagocytosis-in-Entamoeba-histolytica-ppat.1004411.s018.ogv 1.3 s, 160 × 192; 69 KB
A-Novel-Alpha-Kinase-EhAK1-Phosphorylates-Actin-and-Regulates-Phagocytosis-in-Entamoeba-histolytica-ppat.1004411.s019.ogv 21 s, 512 × 512; 10.36 MB
A-Novel-Alpha-Kinase-EhAK1-Phosphorylates-Actin-and-Regulates-Phagocytosis-in-Entamoeba-histolytica-ppat.1004411.s020.ogv 16 s, 512 × 512; 14.65 MB
A-Novel-Approach-for-Purification-and-Selective-Capture-of-Membrane-Vesicles-of-the-pone.0095137.s004.ogv 6.0 s, 512 × 512; 2.53 MB
A-Novel-Approach-for-Purification-and-Selective-Capture-of-Membrane-Vesicles-of-the-pone.0095137.s005.ogv 6.0 s, 512 × 512; 1.8 MB
A-Novel-Approach-for-Studying-the-Physiology-and-Pathophysiology-of-Myelinated-and-Non-Myelinated-pone.0165637.s005.ogv 1 min 34 s, 640 × 480; 13.45 MB
A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s006.ogv 15 s, 360 × 240; 2.14 MB
A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s007.ogv 15 s, 360 × 240; 1.08 MB
A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s008.ogv 15 s, 426 × 240; 54 KB
A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s009.ogv 15 s, 360 × 240; 456 KB
A-Novel-Model-of-Intravital-Platelet-Imaging-Using-CD41-ZsGreen1-Transgenic-Rats-pone.0154661.s001.ogv 12 s, 400 × 400; 2.89 MB
A-Novel-Model-of-Intravital-Platelet-Imaging-Using-CD41-ZsGreen1-Transgenic-Rats-pone.0154661.s002.ogv 25 s, 1,024 × 348; 3.32 MB
A-Novel-Model-of-Intravital-Platelet-Imaging-Using-CD41-ZsGreen1-Transgenic-Rats-pone.0154661.s003.ogv 25 s, 1,024 × 348; 359 KB
A-Novel-Mutant-Allele-of-Pw1Peg3-Does-Not-Affect-Maternal-Behavior-or-Nursing-Behavior-pgen.1006053.s001.ogv 2 min 19 s, 649 × 364; 15.26 MB
A-Novel-Robot-System-Integrating-Biological-and-Mechanical-Intelligence-Based-on-Dissociated-Neural-pone.0165600.s001.ogv 2 min 5 s, 856 × 480; 10.76 MB
A-Novel-Role-for-the-Centrosomal-Protein-Pericentrin-in-Regulation-of-Insulin-Secretory-Vesicle-pone.0011812.s004.ogv 17 s, 320 × 240; 445 KB
A-Novel-Toll-Like-Receptor-(TLR)-Influences-Compatibility-between-the-Gastropod-Biomphalaria-ppat.1005513.s009.ogv 5.6 s, 512 × 256; 17 KB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s004.ogv 17 s, 720 × 576; 6.45 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s005.ogv 40 s, 800 × 600; 3.8 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s006.ogv 40 s, 800 × 600; 3.06 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s007.ogv 33 s, 720 × 576; 2.96 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s008.ogv 18 s, 720 × 576; 4.73 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s009.ogv 18 s, 720 × 576; 4.07 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s010.ogv 18 s, 720 × 576; 4.6 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s011.ogv 18 s, 720 × 576; 4.73 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s012.ogv 18 s, 720 × 576; 3.79 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s013.ogv 18 s, 720 × 576; 4.42 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s014.ogv 18 s, 720 × 576; 4.49 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s015.ogv 18 s, 720 × 576; 5.04 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s016.ogv 18 s, 720 × 576; 4.87 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s017.ogv 18 s, 720 × 576; 3.14 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s018.ogv 59 s, 640 × 480; 9.51 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s019.ogv 59 s, 640 × 480; 9.88 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s020.ogv 59 s, 640 × 480; 9.43 MB
A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s021.ogv 59 s, 640 × 480; 9.73 MB
A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s006.ogv 16 s, 1,128 × 512; 5.24 MB
A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s007.ogv 16 s, 1,128 × 512; 5.29 MB
A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s008.ogv 20 s, 616 × 246; 1.54 MB
A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s009.ogv 20 s, 616 × 246; 1.19 MB
A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s010.ogv 20 s, 616 × 246; 1.39 MB
A-Novel-μCT-Analysis-Reveals-Different-Responses-of-Bioerosion-and-Secondary-Accretion-to-pone.0153058.s001.ogv 22 s, 640 × 356; 4.45 MB
A-p38-Substrate-Specific-MK2-EGFP-Translocation-Assay-for-Identification-and-Validation-of-New-p38-pone.0095641.s004.ogv 10 s, 768 × 576; 570 KB
A-Phosphatidylinositol-3-Kinase-Dependent-Signal-Transition-Regulates-ARF1-and-ARF6-during-Fcγ-pbio.0040162.sv001.ogv 8.0 s, 360 × 120; 425 KB
A-Phosphatidylinositol-3-Kinase-Dependent-Signal-Transition-Regulates-ARF1-and-ARF6-during-Fcγ-pbio.0040162.sv002.ogv 7.7 s, 360 × 120; 297 KB
A-Phosphatidylinositol-3-Kinase-Dependent-Signal-Transition-Regulates-ARF1-and-ARF6-during-Fcγ-pbio.0040162.sv003.ogv 8.3 s, 360 × 120; 409 KB
A-Phosphatidylinositol-3-Kinase-Dependent-Signal-Transition-Regulates-ARF1-and-ARF6-during-Fcγ-pbio.0040162.sv004.ogv 8.5 s, 360 × 120; 374 KB
A-Phosphatidylinositol-3-Kinase-Dependent-Signal-Transition-Regulates-ARF1-and-ARF6-during-Fcγ-pbio.0040162.sv005.ogv 7.7 s, 360 × 120; 403 KB
A-Photoactivatable-Nanopatterned-Substrate-for-Analyzing-Collective-Cell-Migration-with-Precisely-pone.0091875.s001.ogv 12 s, 334 × 334; 794 KB
A-Photoactivatable-Nanopatterned-Substrate-for-Analyzing-Collective-Cell-Migration-with-Precisely-pone.0091875.s002.ogv 12 s, 334 × 334; 658 KB
A-Ploidy-Sensitive-Mechanism-Regulates-Aperture-Formation-on-the-Arabidopsis-Pollen-Surface-and-pgen.1006060.s007.ogv 15 s, 1,666 × 1,130; 2.69 MB
A-Ploidy-Sensitive-Mechanism-Regulates-Aperture-Formation-on-the-Arabidopsis-Pollen-Surface-and-pgen.1006060.s008.ogv 30 s, 1,320 × 848; 1.51 MB
A-Polarised-Population-of-Dynamic-Microtubules-Mediates-Homeostatic-Length-Control-in-Animal-Cells-pbio.1000542.s005.ogv 26 s, 96 × 428; 522 KB
A-Polarised-Population-of-Dynamic-Microtubules-Mediates-Homeostatic-Length-Control-in-Animal-Cells-pbio.1000542.s006.ogv 14 s, 153 × 245; 830 KB
A-Precise-Temperature-Responsive-Bistable-Switch-Controlling-Yersinia-Virulence-ppat.1006091.s013.ogv 13 s, 514 × 326; 506 KB
A-Precise-Temperature-Responsive-Bistable-Switch-Controlling-Yersinia-Virulence-ppat.1006091.s014.ogv 6.3 s, 400 × 506; 133 KB
A-Precise-Temperature-Responsive-Bistable-Switch-Controlling-Yersinia-Virulence-ppat.1006091.s015.ogv 7.5 s, 400 × 534; 114 KB
A-Putative-Small-Solute-Transporter-Is-Responsible-for-the-Secretion-of-G377-and-TRAP-Containing-ppat.1005734.s022.ogv 35 s, 240 × 240; 1.83 MB
A-Putative-Small-Solute-Transporter-Is-Responsible-for-the-Secretion-of-G377-and-TRAP-Containing-ppat.1005734.s023.ogv 2 min 23 s, 250 × 250; 4.28 MB
A-Simple-Screen-to-Identify-Promoters-Conferring-High-Levels-of-Phenotypic-Noise-pgen.1000307.s006.ogv 6.9 s, 320 × 240; 46 KB
A-Simple-Screen-to-Identify-Promoters-Conferring-High-Levels-of-Phenotypic-Noise-pgen.1000307.s007.ogv 9.5 s, 320 × 240; 114 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-Splicing-Mutation-in-the-Novel-Mitochondrial-Protein-DNAJC11-Causes-Motor-Neuron-Pathology-pone.0104237.s012.ogv 16 s, 1,440 × 1,080; 1.78 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s001.ogv 6.8 s, 1,890 × 1,396; 4.5 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s002.ogv 16 s, 500 × 356; 5.94 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s003.ogv 19 s, 483 × 420; 1.28 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s004.ogv 13 s, 800 × 704; 7.41 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s005.ogv 19 s, 700 × 474; 5.98 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s006.ogv 8.8 s, 500 × 1,000; 9.27 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s007.ogv 19 s, 500 × 506; 5.64 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s008.ogv 9.1 s, 960 × 716; 9.31 MB
A-Submersible-Off-Axis-Holographic-Microscope-for-Detection-of-Microbial-Motility-and-Morphology-in-pone.0147700.s009.ogv 12 s, 600 × 557; 4.56 MB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s009.ogv 11 s, 430 × 270; 524 KB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s010.ogv 11 s, 430 × 270; 525 KB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s011.ogv 9.7 s, 445 × 290; 387 KB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s012.ogv 9.7 s, 445 × 290; 426 KB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s013.ogv 6.0 s, 259 × 602; 966 KB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s014.ogv 6.0 s, 279 × 602; 1.18 MB
A-Taz1--and-Microtubule-Dependent-Regulatory-Relationship-between-Telomere-and-Centromere-Positions-pgen.1006304.s015.ogv 6.0 s, 307 × 540; 971 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s007.ogv 12 s, 134 × 154; 91 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s008.ogv 11 s, 124 × 90; 42 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s009.ogv 7.3 s, 192 × 109; 40 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s010.ogv 14 s, 284 × 280; 361 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s011.ogv 17 s, 178 × 122; 104 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s012.ogv 16 s, 178 × 122; 86 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s013.ogv 9.3 s, 144 × 133; 104 KB
A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s014.ogv 6.3 s, 144 × 133; 63 KB
A-Tubular-Biomaterial-Construct-Exhibiting-a-Negative-Poissons-Ratio-pone.0155681.s001.ogv 30 s, 640 × 480; 1.53 MB
A-Tubular-Biomaterial-Construct-Exhibiting-a-Negative-Poissons-Ratio-pone.0155681.s002.ogv 22 s, 640 × 480; 1.63 MB
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
ABHD5CGI-58-the-Chanarin-Dorfman-Syndrome-Protein-Mobilises-Lipid-Stores-for-Hepatitis-C-Virus-ppat.1005568.s013.ogv 58 s, 960 × 148; 17.24 MB
ABHD5CGI-58-the-Chanarin-Dorfman-Syndrome-Protein-Mobilises-Lipid-Stores-for-Hepatitis-C-Virus-ppat.1005568.s014.ogv 39 s, 960 × 256; 5.35 MB
Abl-Kinases-Regulate-HGFMet-Signaling-Required-for-Epithelial-Cell-Scattering-Tubulogenesis-and-pone.0124960.s007.ogv 7.8 s, 512 × 512; 33.64 MB
Abl-Kinases-Regulate-HGFMet-Signaling-Required-for-Epithelial-Cell-Scattering-Tubulogenesis-and-pone.0124960.s008.ogv 7.8 s, 512 × 512; 13.07 MB
Abnormal-Red-Cell-Structure-and-Function-in-Neuroacanthocytosis-pone.0125580.s004.ogv 26 s, 640 × 198; 948 KB
ACAP-AB-Are-ArfGAP-Homologs-in-Dictyostelium-Involved-in-Sporulation-but-Not-in-Chemotaxis-pone.0008624.s004.ogv 6.3 s, 696 × 520; 3.27 MB
ACAP-AB-Are-ArfGAP-Homologs-in-Dictyostelium-Involved-in-Sporulation-but-Not-in-Chemotaxis-pone.0008624.s005.ogv 6.3 s, 696 × 520; 2.65 MB
ACAP-AB-Are-ArfGAP-Homologs-in-Dictyostelium-Involved-in-Sporulation-but-Not-in-Chemotaxis-pone.0008624.s006.ogv 8.3 s, 696 × 520; 5.28 MB
ACAP-AB-Are-ArfGAP-Homologs-in-Dictyostelium-Involved-in-Sporulation-but-Not-in-Chemotaxis-pone.0008624.s007.ogv 5.7 s, 696 × 520; 2.58 MB
Accelerated-Wound-Closure-In-Vitro-by-Fibroblasts-from-a-Subgroup-of-Cleft-LipPalate-Patients-Role-pone.0111752.s008.ogv 12 s, 1,020 × 768; 29.02 MB
Accelerated-Wound-Closure-In-Vitro-by-Fibroblasts-from-a-Subgroup-of-Cleft-LipPalate-Patients-Role-pone.0111752.s009.ogv 12 s, 1,020 × 768; 29.57 MB
Adaptive-Imaging-Cytometry-to-Estimate-Parameters-of-Gene-Networks-Models-in-Systems-and-Synthetic-pone.0107087.s003.ogv 13 s, 600 × 452; 508 KB
Adaptive-Imaging-Cytometry-to-Estimate-Parameters-of-Gene-Networks-Models-in-Systems-and-Synthetic-pone.0107087.s004.ogv 52 s, 600 × 451; 1.1 MB
Adaptive-Stress-Response-in-Segmental-Progeria-Resembles-Long-Lived-Dwarfism-and-Calorie-pgen.0020192.sv001.ogv 1 min 54 s, 240 × 180; 4.9 MB
Adenovirus-Mediated-Efficient-Gene-Transfer-into-Cultured-Three-Dimensional-Organoids-pone.0093608.s002.ogv 9.0 s, 1,920 × 1,080; 440 KB
Adenovirus-Mediated-Expression-of-the-p14-Fusion-Associated-Small-Transmembrane-Protein-Promotes-pone.0151516.s002.ogv 14 s, 1,388 × 1,040; 24.52 MB
Adenovirus-Mediated-Expression-of-the-p14-Fusion-Associated-Small-Transmembrane-Protein-Promotes-pone.0151516.s003.ogv 14 s, 1,388 × 1,040; 9.76 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s001.ogv 17 s, 1,200 × 800; 2.51 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s002.ogv 21 s, 1,200 × 800; 1.71 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s003.ogv 21 s, 1,200 × 800; 1.38 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s004.ogv 21 s, 1,200 × 800; 2.33 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s005.ogv 21 s, 1,200 × 800; 1.75 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s006.ogv 17 s, 1,200 × 800; 1.6 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s007.ogv 17 s, 1,200 × 800; 1.29 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s008.ogv 21 s, 1,200 × 800; 1.08 MB
Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s009.ogv 17 s, 1,200 × 800; 726 KB
African-Swine-Fever-Virus-Undergoes-Outer-Envelope-Disruption-Capsid-Disassembly-and-Inner-Envelope-ppat.1005595.s010.ogv 8.0 s, 592 × 651; 233 KB
African-Swine-Fever-Virus-Undergoes-Outer-Envelope-Disruption-Capsid-Disassembly-and-Inner-Envelope-ppat.1005595.s011.ogv 7.8 s, 198 × 252; 205 KB
African-Swine-Fever-Virus-Undergoes-Outer-Envelope-Disruption-Capsid-Disassembly-and-Inner-Envelope-ppat.1005595.s012.ogv 4.0 s, 586 × 547; 59 KB
African-Swine-Fever-Virus-Undergoes-Outer-Envelope-Disruption-Capsid-Disassembly-and-Inner-Envelope-ppat.1005595.s013.ogv 12 s, 638 × 668; 1,021 KB

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