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• 
  (The Paps) Morphometry of Concepcion Bank. Evidence of Geological and Biological Processes on a Large Volcanic Seamount of the Canary Islands Seamount Province. 2016 Rivera et al. Fig. 1 (cropped).PNG 980×981; 194 kB
  
• -Adrenergic-Inhibition-of-Contractility-in-L6-Skeletal-Muscle-Cells-pone.0022304.s001.ogv 17 s, 320×240; 931 kB
  
• -Adrenergic-Inhibition-of-Contractility-in-L6-Skeletal-Muscle-Cells-pone.0022304.s002.ogv 17 s, 320×240; 877 kB
  
• -Arrestin2-Regulates-Lysophosphatidic-Acid-Induced-Human-Breast-Tumor-Cell-Migration-and-Invasion-pone.0056174.s003.ogv 10 s, 322×480; 1,96 MB
  
• -Catenin-Is-Critical-for-Cerebellar-Foliation-and-Lamination-pone.0064451.s001.ogv 14 s, 200×150; 919 kB
  
• 14-3-3ζ-Interacts-with-Stat3-and-Regulates-Its-Constitutive-Activation-in-Multiple-Myeloma-Cells-pone.0029554.s002.ogv 17 s, 640×576; 7,78 MB
  
• 
  17-year periodical cicadas - journal.pone.0000892.g003.png 2.126×922; 2,87 MB
  
• 19F-Magnetic-Resonance-Imaging-of-Perfluorocarbons-for-the-Evaluation-of-Response-to-Antibiotic-pone.0064440.s001.ogv 7,0 s, 1.072×452; 357 kB
  
• 19F-Magnetic-Resonance-Imaging-of-Perfluorocarbons-for-the-Evaluation-of-Response-to-Antibiotic-pone.0064440.s002.ogv 7,0 s, 1.072×452; 467 kB
  
• 19F-Magnetic-Resonance-Imaging-of-Perfluorocarbons-for-the-Evaluation-of-Response-to-Antibiotic-pone.0064440.s003.ogv 14 s, 1.072×904; 676 kB
  
• 19F-Magnetic-Resonance-Imaging-of-Perfluorocarbons-for-the-Evaluation-of-Response-to-Antibiotic-pone.0064440.s004.ogv 14 s, 1.076×904; 675 kB
  
• 19F-Magnetic-Resonance-Imaging-of-Perfluorocarbons-for-the-Evaluation-of-Response-to-Antibiotic-pone.0064440.s005.ogv 14 s, 1.072×904; 942 kB
  
• 19F-Magnetic-Resonance-Imaging-of-Perfluorocarbons-for-the-Evaluation-of-Response-to-Antibiotic-pone.0064440.s006.ogv 14 s, 1.076×904; 859 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s006.ogv 2,8 s, 900×900; 344 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s007.ogv 2,5 s, 684×684; 240 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s008.ogv 2,5 s, 900×900; 128 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s009.ogv 2,5 s, 512×512; 56 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s010.ogv 2,5 s, 512×512; 43 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s011.ogv 2,5 s, 512×512; 37 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s012.ogv 2,5 s, 360×360; 22 kB
  
• 2-Adrenergic-Receptor-Fluorescent-Protein-Fusions-Traffic-to-the-Plasma-Membrane-and-Retain-pone.0074941.s013.ogv 2,5 s, 512×512; 29 kB
  
• 2-Bromopalmitate-Reduces-Protein-Deacylation-by-Inhibition-of-Acyl-Protein-Thioesterase-Enzymatic-pone.0075232.s001.ogv 6,0 s, 4.096×1.512; 7,65 MB
  
• 
  2013-04-04 Distribution model for Carabus irregularis.png 992×707; 324 kB
  
• 2D-and-3D-Organized-Cardiac-Cells-Shows-Differences-in-Cellular-Morphology-Adhesion-Junctions-pone.0038147.s001.ogv 7,9 s, 375×348; 1.000 kB
  
• 2D-and-3D-Organized-Cardiac-Cells-Shows-Differences-in-Cellular-Morphology-Adhesion-Junctions-pone.0038147.s002.ogv 1,5 s, 512×533; 1,66 MB
  
• 3-D-Modelling-of-Megaloolithid-Clutches-Insights-about-Nest-Construction-and-Dinosaur-Behaviour-pone.0010362.s001.ogv 7,9 s, 720×576; 353 kB
  
• 3-D-Ultrastructure-of-O.-tauri-Electron-Cryotomography-of-an-Entire-Eukaryotic-Cell-pone.0000749.s001.ogv 1 min 54 s, 262×240; 2,52 MB
  
• 3-D-Visualization-and-Quantitation-of-Microvessels-in-Transparent-Human-Colorectal-Carcinoma-pone.0081857.s003.ogv 10 s, 1.024×512; 4 MB
  
• 3-D-Visualization-and-Quantitation-of-Microvessels-in-Transparent-Human-Colorectal-Carcinoma-pone.0081857.s004.ogv 30 s, 768×768; 17,64 MB
  
• 3-D-Visualization-and-Quantitation-of-Microvessels-in-Transparent-Human-Colorectal-Carcinoma-pone.0081857.s005.ogv 10 s, 768×768; 11,44 MB
  
• 3-D-Visualization-and-Quantitation-of-Microvessels-in-Transparent-Human-Colorectal-Carcinoma-pone.0081857.s006.ogv 24 s, 768×768; 17,91 MB
  
• 31P-NMR-2D-Mapping-of-Creatine-Kinase-Forward-Flux-Rate-in-Hearts-with-Postinfarction-Left-pone.0162149.s001.ogv 9,2 s, 648×364; 3,54 MB
  
• 31P-NMR-2D-Mapping-of-Creatine-Kinase-Forward-Flux-Rate-in-Hearts-with-Postinfarction-Left-pone.0162149.s002.ogv 5,7 s, 864×576; 3,57 MB
  
• 3D animation of reconstructed skull and atlas of Niassodon mfumukasi - pone.0080974.s002.ogv 24 s, 1.024×768; 21,53 MB
  
• 3D-Bite-Modeling-and-Feeding-Mechanics-of-the-Largest-Living-Amphibian-the-Chinese-Giant-Salamander-pone.0121885.s003.ogv 19 s, 1.024×768; 3,95 MB
  
• 3D-Bite-Modeling-and-Feeding-Mechanics-of-the-Largest-Living-Amphibian-the-Chinese-Giant-Salamander-pone.0121885.s004.ogv 19 s, 1.024×768; 3,96 MB
  
• 3D-Bite-Modeling-and-Feeding-Mechanics-of-the-Largest-Living-Amphibian-the-Chinese-Giant-Salamander-pone.0121885.s005.ogv 18 s, 1.024×768; 3,65 MB
  
• 3D-Bite-Modeling-and-Feeding-Mechanics-of-the-Largest-Living-Amphibian-the-Chinese-Giant-Salamander-pone.0121885.s006.ogv 19 s, 1.024×768; 4,14 MB
  
• 3D-Microstructural-Architecture-of-Muscle-Attachments-in-Extant-and-Fossil-Vertebrates-Revealed-by-pone.0056992.s013.ogv 5,9 s, 1.110×775; 6,27 MB
  
• 3D-Morphology-Ultrastructure-and-Development-of-Ceratomyxa-puntazzi-Stages-First-Insights-into-the-pone.0032679.s001.ogv 1 min 27 s, 768×576; 4,35 MB
  
• 3D-Morphology-Ultrastructure-and-Development-of-Ceratomyxa-puntazzi-Stages-First-Insights-into-the-pone.0032679.s002.ogv 16 s, 768×576; 3,11 MB
  
• 3D-Morphology-Ultrastructure-and-Development-of-Ceratomyxa-puntazzi-Stages-First-Insights-into-the-pone.0032679.s003.ogv 10 s, 768×576; 2,36 MB
  
• 3D-Morphology-Ultrastructure-and-Development-of-Ceratomyxa-puntazzi-Stages-First-Insights-into-the-pone.0032679.s004.ogv 33 s, 768×576; 11,18 MB
  
• 3D-Multi-Cell-Simulation-of-Tumor-Growth-and-Angiogenesis-pone.0007190.s002.ogv 40 s, 300×300; 8,51 MB
  
• 3D-Multi-Cell-Simulation-of-Tumor-Growth-and-Angiogenesis-pone.0007190.s003.ogv 40 s, 270×270; 7,73 MB
  
• 3D-Multi-isotope-Imaging-Mass-Spectrometry-Reveals-Penetration-of-18O-Trehalose-in-Mouse-Sperm-pone.0042267.s001.ogv 19 s, 1.100×550; 8,29 MB
  
• 3D-Printed-Microwell-Arrays-for-Ciona-Microinjection-and-Timelapse-Imaging-pone.0082307.s002.ogv 23 s, 360×240; 8,73 MB
  
• 3D-Printed-Microwell-Arrays-for-Ciona-Microinjection-and-Timelapse-Imaging-pone.0082307.s003.ogv 1 min 56 s, 480×270; 3,45 MB
  
• 3D-Printed-Microwell-Arrays-for-Ciona-Microinjection-and-Timelapse-Imaging-pone.0082307.s004.ogv 51 s, 490×446; 854 kB
  
• 3D-Printed-Multimaterial-Microfluidic-Valve-pone.0160624.s007.ogv 17 s, 1.920×1.080; 2,27 MB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s001.ogv 34 s, 512×492; 983 kB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s002.ogv 27 s, 512×492; 1,69 MB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s003.ogv 48 s, 512×492; 2,28 MB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s004.ogv 26 s, 512×492; 240 kB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s005.ogv 3,8 s, 184×179; 164 kB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s006.ogv 22 s, 480×400; 2,08 MB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s007.ogv 12 s, 512×492; 509 kB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s008.ogv 12 s, 512×492; 429 kB
  
• 3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s009.ogv 12 s, 512×492; 658 kB
  
• 3D-Traction-Forces-in-Cancer-Cell-Invasion-pone.0033476.s018.ogv 19 s, 640×480; 9,02 MB
  
• 3D-Traction-Forces-in-Cancer-Cell-Invasion-pone.0033476.s019.ogv 2,0 s, 1.344×1.024; 268 kB
  
• 3D-Traction-Forces-in-Cancer-Cell-Invasion-pone.0033476.s020.ogv 17 s, 640×480; 971 kB
  
• 3D-Traction-Forces-in-Cancer-Cell-Invasion-pone.0033476.s021.ogv 25 s, 640×480; 1,17 MB
  
• 3D-Ultrastructural-Organization-of-Whole-Chlamydomonas-reinhardtii-Cells-Studied-by-Nanoscale-Soft-pone.0053293.s003.ogv 47 s, 1.072×940; 25,78 MB
  
• 3D-Ultrastructural-Organization-of-Whole-Chlamydomonas-reinhardtii-Cells-Studied-by-Nanoscale-Soft-pone.0053293.s004.ogv 24 s, 422×504; 11,1 MB
  
• 3D-Ultrastructural-Organization-of-Whole-Chlamydomonas-reinhardtii-Cells-Studied-by-Nanoscale-Soft-pone.0053293.s005.ogv 55 s, 1.024×1.024; 34,82 MB
  
• 3D-Ultrastructural-Organization-of-Whole-Chlamydomonas-reinhardtii-Cells-Studied-by-Nanoscale-Soft-pone.0053293.s006.ogv 1 min 27 s, 1.104×1.168; 24,76 MB
  
• 3D-Ultrastructural-Organization-of-Whole-Chlamydomonas-reinhardtii-Cells-Studied-by-Nanoscale-Soft-pone.0053293.s007.ogv 20 s, 1.920×997; 5,68 MB
  
• 3D-Ultrastructural-Organization-of-Whole-Chlamydomonas-reinhardtii-Cells-Studied-by-Nanoscale-Soft-pone.0053293.s008.ogv 20 s, 930×720; 2,71 MB
  
• 3D-Visualization-of-the-Initial-Yersinia-ruckeri-Infection-Route-in-Rainbow-Trout-(Oncorhynchus-pone.0089672.s004.ogv 41 s, 512×512; 2,01 MB
  
• 3D-Visualization-of-the-Initial-Yersinia-ruckeri-Infection-Route-in-Rainbow-Trout-(Oncorhynchus-pone.0089672.s005.ogv 36 s, 1.024×918; 6,58 MB
  
• 3D-Visualization-of-the-Initial-Yersinia-ruckeri-Infection-Route-in-Rainbow-Trout-(Oncorhynchus-pone.0089672.s006.ogv 23 s, 1.024×918; 5,51 MB
  
• 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
  
• 
  3M 8511 mask on participants Journal.pone.0245688.g005.PNG 2.220×1.022; 3,35 MB
  
• 8p22-MTUS1-Gene-Product-ATIP3-Is-a-Novel-Anti-Mitotic-Protein-Underexpressed-in-Invasive-Breast-pone.0007239.s006.ogv 29 s, 220×220; 1,41 MB
  
• 8p22-MTUS1-Gene-Product-ATIP3-Is-a-Novel-Anti-Mitotic-Protein-Underexpressed-in-Invasive-Breast-pone.0007239.s007.ogv 21 s, 220×220; 549 kB
  
• 
  A black backed jackal (Canis mesomelas) scavenges on a zebra (Equus quagga) - journal.pone.0060797.g001-C.png 1.176×758; 1,07 MB
  
• 
  A Comparative Study between Solenopsis invicta and Solenopsis richteri on Tolerance to Heat and Desiccation Stresses journal.pone.0096842.png 710×868; 168 kB
  
• A Drosophila melanogaster male courting a female - pone.0008793.s007.ogv 1 min 50 s, 608×456; 1,47 MB
  
• A Drosophila melanogaster male courting a female - pone.0008793.s008.ogv 2 min 17 s, 548×412; 1,83 MB
  
• A Drosophila melanogaster male courting a female - pone.0008793.s009.ogv 2 min 14 s, 608×460; 2,25 MB
  
• A female Carcharhinus leucas at the Shark Reef Marine Reserve, Fiji - pone.0016597.s005.ogv 12 s, 768×576; 4,49 MB
  
• A female Carcharhinus leucas at the Shark Reef Marine Reserve, Fiji - pone.0016597.s006.ogv 11 s, 768×576; 3,15 MB
  
• 
  A Gilbertese shark tooth weapon (FMNH 99071) - journal.pone.0059855.g001 b.png 1.568×3.880; 2,69 MB
  
• 
  A Gilbertese shark tooth weapon (FMNH 99071) - journal.pone.0059855.g001.png 2.089×3.897; 3,19 MB
  
• A group of 50 Drosophila melanogaster interacting in an observation chamber - pone.0008793.s004.ogv 2 min 5 s, 830×500; 26,55 MB
  
• A hydrophilic termite (Schedorhinotermes sp.) attached to the surface of a wetted citrus leaf - pone.0024368.s007.ogv 6,1 s, 853×480; 1,65 MB
  
• A hydrophilic termite (Schedorhinotermes sp.) attached to the surface of a wetted rock - pone.0024368.s006.ogv 7,7 s, 853×480; 1,62 MB
  
• 
  A large male Bolitotherus cornutus undergoing a grip strength trial - journal.pone.0042738.g002.png 1.517×975; 1,69 MB
  
• A large male Bolitotherus cornutus undergoing a grip strength trial.ogv 6,6 s, 800×534; 843 kB
  
• A Magicicada chorus containing M. septendecim, M. cassini, and M. septendecula - pone.0000892.s004.oga 15 s; 145 kB
  
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  A Magicicada septendecim female mating with a Magicicada cassini male - journal.pone.0000892.g004C.png 840×552; 583 kB
  
• A male Carcharhinus leucas with fresh bite marks - pone.0016597.s004.ogv 7,2 s, 768×576; 2,01 MB
  
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  A pair of Magicicada septendecim courting inside a screen mesh cage - journal.pone.0000892.g004A.png 800×556; 690 kB
  
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  A pair of Magicicada septendecim mating (Brood IX) - journal.pone.0000892.g004B.png 480×552; 454 kB
  
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  A polar bear (Ursus maritimus) scavenging a narwhal whale (Monodon monoceros) carcass - journal.pone.0060797.g001-A.png 1.170×578; 1,1 MB
  
• 
  A simplified model for myosin V (MyoE) function at the hyphal tip in Aspergillus nidulans - journal.pone.0031218.g009A.png 2.038×1.337; 275 kB
  
• 
  A simplified model for myosin V (MyoE) function at the hyphal tip in Aspergillus nidulans - journal.pone.0031218.g009B.png 2.038×1.563; 292 kB
  
• A single cardiomyocyte beating, five days after purification from cell culture.ogv 13 s, 274×206; 70 kB
  
• 
  A small Bolitotherus cornutus male exhibiting the use of the grip strength in the wild - journal.pone.0042738.g001.png 2.177×1.219; 2,44 MB
  
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  A spotted hyena (Crocuta crocuta) removes flesh from a long-dead ungulate - journal.pone.0060797.g001-E.png 1.080×757; 930 kB
  
• A-3D-Video-Based-Computerized-Analysis-of-Social-and-Sexual-Interactions-in-Rats-pone.0078460.s009.ogv 20 s, 640×480; 2,9 MB
  
• A-3D-Video-Based-Computerized-Analysis-of-Social-and-Sexual-Interactions-in-Rats-pone.0078460.s010.ogv 4,0 s, 640×480; 599 kB
  
• A-3D-Video-Based-Computerized-Analysis-of-Social-and-Sexual-Interactions-in-Rats-pone.0078460.s011.ogv 5 min 57 s, 960×720; 32,92 MB
  
• A-454-Survey-Reveals-the-Community-Composition-and-Core-Microbiome-of-the-Common-Bed-Bug-(Cimex-pone.0061465.s006.ogv 1 min 2 s, 796×670; 2,34 MB
  
• A-Balance-of-BMP-and-Notch-Activity-Regulates-Neurogenesis-and-Olfactory-Nerve-Formation-pone.0017379.s001.ogv 12 s, 320×240; 158 kB
  
• A-Balance-of-BMP-and-Notch-Activity-Regulates-Neurogenesis-and-Olfactory-Nerve-Formation-pone.0017379.s002.ogv 12 s, 320×240; 244 kB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s010.ogv 43 s, 1.920×1.080; 4,22 MB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s011.ogv 34 s, 1.920×1.080; 3,71 MB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s012.ogv 30 s, 1.920×1.080; 4,72 MB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s013.ogv 40 s, 1.920×1.080; 10,95 MB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s014.ogv 37 s, 1.920×1.080; 3,3 MB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s015.ogv 41 s, 1.920×1.080; 4,58 MB
  
• A-Basal-Lithostrotian-Titanosaur-(Dinosauria-Sauropoda)-with-a-Complete-Skull-Implications-for-the-pone.0151661.s016.ogv 15 s, 1.920×1.080; 2,64 MB
  
• A-Beta-Herpesvirus-with-Fluorescent-Capsids-to-Study-Transport-in-Living-Cells-pone.0040585.s005.ogv 9,9 s, 220×220; 3,31 MB
  
• A-Beta-Herpesvirus-with-Fluorescent-Capsids-to-Study-Transport-in-Living-Cells-pone.0040585.s006.ogv 3,9 s, 256×256; 5,14 MB
  
• A-Beta-Herpesvirus-with-Fluorescent-Capsids-to-Study-Transport-in-Living-Cells-pone.0040585.s007.ogv 3,9 s, 256×256; 4,12 MB
  
• A-Biased-Competition-Theory-of-Cytotoxic-T-Lymphocyte-Interaction-with-Tumor-Nodules-pone.0120053.s005.ogv 13 s, 436×343; 5,69 MB
  
• A-Biased-Competition-Theory-of-Cytotoxic-T-Lymphocyte-Interaction-with-Tumor-Nodules-pone.0120053.s006.ogv 6,5 s, 436×343; 6,82 MB
  
• A-Biased-Competition-Theory-of-Cytotoxic-T-Lymphocyte-Interaction-with-Tumor-Nodules-pone.0120053.s007.ogv 2,1 s, 436×343; 922 kB
  
• A-Biological-Micro-Actuator-Graded-and-Closed-Loop-Control-of-Insect-Leg-Motion-by-Electrical-pone.0105389.s004.ogv 55 s, 720×480; 3,05 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s009.ogv 5,0 s, 512×512; 972 kB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s010.ogv 5,0 s, 800×800; 2,1 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s011.ogv 16 s, 512×512; 1,88 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s012.ogv 5,1 s, 800×800; 2,4 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s013.ogv 8,4 s, 512×512; 1,04 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s014.ogv 3,7 s, 800×800; 1,23 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s015.ogv 16 s, 512×512; 2,29 MB
  
• A-Biomechanical-Analysis-of-Ventral-Furrow-Formation-in-the-Drosophila-Melanogaster-Embryo-pone.0034473.s016.ogv 3,1 s, 800×800; 666 kB
  
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• A-Brain-Machine-Muscle-Interface-for-Restoring-Hindlimb-Locomotion-after-Complete-Spinal-pone.0103764.s002.ogv 57 s, 320×240; 3,49 MB
  
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• A-Caenorhabditis-elegans-Locomotion-Phenotype-Caused-by-Transgenic-Repeats-of-the-hlh-17-Promoter-pone.0081771.s001.ogv 19 s, 1.280×720; 1,65 MB
  
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• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s007.ogv 13 s, 560×420; 1,21 MB
  
• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s008.ogv 13 s, 560×420; 2,04 MB
  
• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s009.ogv 13 s, 560×420; 1,52 MB
  
• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s010.ogv 13 s, 560×420; 1,61 MB
  
• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s011.ogv 13 s, 560×420; 1,88 MB
  
• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s012.ogv 13 s, 560×420; 1,8 MB
  
• A-Circadian-Clock-Gene-Cry-Affects-Heart-Morphogenesis-and-Function-in-Drosophila-as-Revealed-by-pone.0137236.s013.ogv 13 s, 560×420; 1,73 MB
  
• 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
  
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• 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-Comparative-Approach-Linking-Molecular-Dynamics-of-Altered-Peptide-Ligands-and-MHC-with-In-Vivo-pone.0011653.s001.ogv 2 min 2 s, 315×356; 8,97 MB
  
• A-Comparative-Proteomic-Analysis-Reveals-a-New-Bi-Lobe-Protein-Required-for-Bi-Lobe-Duplication-and-pone.0009660.s006.ogv 10 s, 660×492; 1,8 MB
  
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• A-Comparative-Proteomic-Analysis-Reveals-a-New-Bi-Lobe-Protein-Required-for-Bi-Lobe-Duplication-and-pone.0009660.s009.ogv 9,6 s, 660×492; 1,12 MB
  
• A-Comparative-Proteomic-Analysis-Reveals-a-New-Bi-Lobe-Protein-Required-for-Bi-Lobe-Duplication-and-pone.0009660.s010.ogv 9,8 s, 660×492; 1,34 MB
  
• A-Comparative-Study-of-Early-Afterdepolarization-Mediated-Fibrillation-in-Two-Mathematical-Models-pone.0130632.s001.ogv 49 s, 1.200×902; 10,73 MB
  
• A-Comparative-Study-of-Variables-Influencing-Ischemic-Injury-in-the-Longa-and-Koizumi-Methods-of-pone.0148503.s013.ogv 54 s, 1.920×1.080; 41,42 MB
  
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• 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
  
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• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s007.ogv 9,0 s, 720×360; 400 kB
  
• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s008.ogv 9,0 s, 720×360; 401 kB
  
• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s009.ogv 9,1 s, 720×360; 377 kB
  
• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s010.ogv 9,1 s, 720×360; 283 kB