Category:Videos of locomotion

Subcategories

This category has the following 4 subcategories, out of 4 total.

Media in category "Videos of locomotion"

The following 183 files are in this category, out of 183 total.

• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s002.ogv 6.0 s, 640 × 512; 369 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s003.ogv 15 s, 640 × 512; 91 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s004.ogv 5.2 s, 640 × 512; 362 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s005.ogv 8.0 s, 640 × 512; 397 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s006.ogv 15 s, 640 × 512; 340 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s007.ogv 15 s, 640 × 512; 198 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s008.ogv 15 s, 640 × 512; 203 KB
  
• A-Differential-Role-for-Neuropeptides-in-Acute-and-Chronic-Adaptive-Responses-to-Alcohol-pone.0010422.s009.ogv 6.0 s, 640 × 512; 166 KB
  
• A-Markerless-3D-Computerized-Motion-Capture-System-Incorporating-a-Skeleton-Model-for-Monkeys-pone.0166154.s005.ogv 1 min 4 s, 492 × 450; 7.36 MB
  
• A-Pair-of-Dopamine-Neurons-Target-the-D1-Like-Dopamine-Receptor-DopR-in-the-Central-Complex-to-pone.0009954.s009.ogv 9.0 s, 394 × 236; 1.54 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-Wireless-EEG-Recording-Method-for-Rat-Use-inside-the-Water-Maze-pone.0147730.s001.ogv 51 s, 854 × 480; 4.08 MB
  
• A-Wireless-EEG-Recording-Method-for-Rat-Use-inside-the-Water-Maze-pone.0147730.s002.ogv 30 s, 854 × 480; 2.38 MB
  
• A-Wireless-EEG-Recording-Method-for-Rat-Use-inside-the-Water-Maze-pone.0147730.s003.ogv 23 s, 854 × 480; 1.71 MB
  
• Allatostatin-A-Signalling-in-Drosophila-Regulates-Feeding-and-Sleep-and-Is-Modulated-by-PDF-pgen.1006346.s021.ogv 5.1 s, 530 × 480; 623 KB
  
• Allatostatin-A-Signalling-in-Drosophila-Regulates-Feeding-and-Sleep-and-Is-Modulated-by-PDF-pgen.1006346.s022.ogv 5.1 s, 530 × 480; 920 KB
  
• Allatostatin-A-Signalling-in-Drosophila-Regulates-Feeding-and-Sleep-and-Is-Modulated-by-PDF-pgen.1006346.s023.ogv 3 min 40 s, 854 × 480; 6.47 MB
  
• An-Integrated-In-Vitro-Imaging-Platform-for-Characterizing-Filarial-Parasite-Behavior-within-a-pntd.0003305.s002.ogv 2.1 s, 640 × 480; 84 KB
  
• An-Integrated-In-Vitro-Imaging-Platform-for-Characterizing-Filarial-Parasite-Behavior-within-a-pntd.0003305.s003.ogv 2.1 s, 640 × 480; 62 KB
  
• An-Integrated-In-Vitro-Imaging-Platform-for-Characterizing-Filarial-Parasite-Behavior-within-a-pntd.0003305.s004.ogv 2.1 s, 640 × 480; 35 KB
  
• Automated-Planar-Tracking-the-Waving-Bodies-of-Multiple-Zebrafish-Swimming-in-Shallow-Water-pone.0154714.s001.ogv 39 s, 640 × 480; 2.12 MB
  
• Basiliscus basiliscus running on water - pone.0037300.s001.ogv 10 s, 320 × 240; 906 KB
  
• Blenniella gibbifrons jumping - pone.0011197.s005.ogv 6.4 s, 512 × 512; 487 KB
  
• Chemotaxis-and-Binding-of-Pseudomonas-aeruginosa-to-Scratch-Wounded-Human-Cystic-Fibrosis-Airway-pone.0150109.s001.ogv 30 s, 720 × 240; 1.7 MB
  
• Chemotaxis-and-Binding-of-Pseudomonas-aeruginosa-to-Scratch-Wounded-Human-Cystic-Fibrosis-Airway-pone.0150109.s002.ogv 30 s, 720 × 240; 827 KB
  
• Chemotaxis-and-Binding-of-Pseudomonas-aeruginosa-to-Scratch-Wounded-Human-Cystic-Fibrosis-Airway-pone.0150109.s003.ogv 30 s, 720 × 240; 1.19 MB
  
• Chronic-Toxoplasma-Infection-Modifies-the-Structure-and-the-Risk-of-Host-Behavior-pone.0032489.s006.ogv 33 s, 320 × 240; 251 KB
  
• Collective-Behaviour-in-Video-Viewing-A-Thermodynamic-Analysis-of-Gaze-Position-pone.0168995.s013.ogv 21 s, 920 × 592; 9.01 MB
  
• Detour-Behavior-of-Mice-Trained-with-Transparent-Semitransparent-and-Opaque-Barriers-pone.0162018.s002.ogv 3 min 58 s, 375 × 288; 3.89 MB
  
• Do-Quiescence-and-Wasp-Venom-Induced-Lethargy-Share-Common-Neuronal-Mechanisms-in-Cockroaches-pone.0168032.s001.ogv 9.5 s, 640 × 480; 535 KB
  
• Do-Quiescence-and-Wasp-Venom-Induced-Lethargy-Share-Common-Neuronal-Mechanisms-in-Cockroaches-pone.0168032.s002.ogv 39 s, 854 × 480; 2.96 MB
  
• Dopamine-Modulates-Motor-Control-in-a-Specific-Plane-Related-to-Support-pone.0155058.s001.ogv 2 min 47 s, 640 × 480; 15.29 MB
  
• Dragonfly wing movement.webm 9.6 s, 1,920 × 1,080; 6.72 MB
  
• Dtorsin-the-Drosophila-Ortholog-of-the-Early-Onset-Dystonia-TOR1A-(DYT1)-Plays-a-Novel-Role-in-pone.0026183.s006.ogv 1 min 1 s, 352 × 288; 761 KB
  
• Dtorsin-the-Drosophila-Ortholog-of-the-Early-Onset-Dystonia-TOR1A-(DYT1)-Plays-a-Novel-Role-in-pone.0026183.s007.ogv 1 min 0 s, 352 × 288; 597 KB
  
• Emergence-and-Modular-Evolution-of-a-Novel-Motility-Machinery-in-Bacteria-pgen.1002268.s016.ogv 13 s, 200 × 200; 45 KB
  
• Emergence-and-Modular-Evolution-of-a-Novel-Motility-Machinery-in-Bacteria-pgen.1002268.s017.ogv 13 s, 195 × 152; 18 KB
  
• Enhancement-of-Chemotactic-Cell-Aggregation-by-Haptotactic-Cell-To-Cell-Interaction-pone.0154717.s004.ogv 4.8 s, 754 × 750; 12.41 MB
  
• Enhancement-of-Chemotactic-Cell-Aggregation-by-Haptotactic-Cell-To-Cell-Interaction-pone.0154717.s005.ogv 12 s, 502 × 500; 5.54 MB
  
• Enhancement-of-Chemotactic-Cell-Aggregation-by-Haptotactic-Cell-To-Cell-Interaction-pone.0154717.s006.ogv 4.8 s, 754 × 750; 10.43 MB
  
• Flapping-before-Flight-High-Resolution-Three-Dimensional-SkeletalKinematics-of-Wings-and-Legs-pone.0153446.s002.ogv 39 s, 480 × 480; 1.26 MB
  
• Flapping-before-Flight-High-Resolution-Three-Dimensional-SkeletalKinematics-of-Wings-and-Legs-pone.0153446.s003.ogv 18 s, 360 × 480; 556 KB
  
• Flapping-before-Flight-High-Resolution-Three-Dimensional-SkeletalKinematics-of-Wings-and-Legs-pone.0153446.s004.ogv 8.4 s, 1,440 × 1,080; 1.85 MB
  
• Flapping-before-Flight-High-Resolution-Three-Dimensional-SkeletalKinematics-of-Wings-and-Legs-pone.0153446.s005.ogv 4.2 s, 1,180 × 884; 1.54 MB
  
• Flapping-before-Flight-High-Resolution-Three-Dimensional-SkeletalKinematics-of-Wings-and-Legs-pone.0153446.s006.ogv 0.7 s, 1,024 × 1,024; 337 KB
  
• Forelimb-Kinematics-of-Rats-Using-XROMM-with-Implications-for-Small-Eutherians-and-Their-Fossil-pone.0149377.s010.ogv 1 min 47 s, 1,280 × 720; 32.74 MB
  
• Forelimb-Kinematics-of-Rats-Using-XROMM-with-Implications-for-Small-Eutherians-and-Their-Fossil-pone.0149377.s011.ogv 17 s, 1,280 × 720; 3.05 MB
  
• Forelimb-Kinematics-of-Rats-Using-XROMM-with-Implications-for-Small-Eutherians-and-Their-Fossil-pone.0149377.s012.ogv 17 s, 1,280 × 720; 1.01 MB
  
• Functional-and-Gait-Assessment-in-Children-and-Adolescents-Affected-by-Friedreichs-Ataxia-A-One-pone.0162463.s001.ogv 8.0 s, 640 × 480; 2.99 MB
  
• Gait-Transitions-in-Human-Infants-Coping-with-Extremes-of-Treadmill-Speed-pone.0148124.s002.ogv 3.5 s, 640 × 480; 4.01 MB
  
• Genetic-Analysis-of-Collective-Motility-of-Paenibacillus-sp.-NAIST15-1-pgen.1006387.s014.ogv 20 s, 640 × 480; 472 KB
  
• Gigantometra gigas (Gerridae) DEAD LEG DOWNWARD MOVE.webm 3.5 s, 1,080 × 1,080; 2.67 MB
  
• Gigantometra gigas (Gerridae) Jump in Tank 1 annotated EVT16 50%.webm 11 s, 400 × 300; 1,008 KB
  
• Gigantometra gigas (Gerridae) JUMP IN THE TANK 1.webm 12 s, 390 × 330; 651 KB
  
• Gigantometra gigas (Gerridae) JUMP IN THE TANK 2 70PERC.webm 10 s, 1,920 × 1,080; 2.11 MB
  
• Gigantometra gigas (Gerridae) JUMP IN THE TANK 3.webm 5.3 s, 840 × 460; 1.61 MB
  
• Gigantometra gigas (Gerridae) JUMP IN THE TANK 4.webm 12 s, 1,920 × 1,080; 4.71 MB
  
• Gigantometra gigas (Gerridae) Natural Habitat Jump 3.webm 32 s, 1,920 × 1,080; 12.56 MB
  
• Gigantometra gigas (Gerridae) Natural Habitat Jump 4.webm 16 s, 1,920 × 1,080; 6.45 MB
  
• Gigantometra gigas (Gerridae) Natural Habitat Jump 5.webm 7.6 s, 1,400 × 1,080; 6.8 MB
  
• Gigantometra gigas upward jump in Natural Habitat Pumat National Park Jump 1.webm 17 s, 1,400 × 920; 14.53 MB
  
• Gliding-Swifts-Attain-Laminar-Flow-over-Rough-Wings-pone.0099901.s003.ogv 1 min 11 s, 640 × 480; 4.48 MB
  
• Gliding-Swifts-Attain-Laminar-Flow-over-Rough-Wings-pone.0099901.s004.ogv 53 s, 640 × 480; 9.81 MB
  
• Heads-or-Tails-Do-Stranded-Fish-(Mosquitofish-Gambusia-affinis)-Know-Where-They-Are-on-a-Slope-and-pone.0104569.s002.ogv 6.7 s, 1,280 × 720; 4.86 MB
  
• Heads-or-Tails-Do-Stranded-Fish-(Mosquitofish-Gambusia-affinis)-Know-Where-They-Are-on-a-Slope-and-pone.0104569.s003.ogv 6.4 s, 1,280 × 720; 4.4 MB
  
• Heads-or-Tails-Do-Stranded-Fish-(Mosquitofish-Gambusia-affinis)-Know-Where-They-Are-on-a-Slope-and-pone.0104569.s004.ogv 12 s, 1,280 × 720; 8.5 MB
  
• Heads-or-Tails-Do-Stranded-Fish-(Mosquitofish-Gambusia-affinis)-Know-Where-They-Are-on-a-Slope-and-pone.0104569.s005.ogv 4.4 s, 1,280 × 720; 3.25 MB
  
• Hsp70-May-Be-a-Molecular-Regulator-of-Schistosome-Host-Invasion-pntd.0004986.s002.ogv 1 min 10 s, 1,280 × 720; 13.6 MB
  
• Hsp70-May-Be-a-Molecular-Regulator-of-Schistosome-Host-Invasion-pntd.0004986.s003.ogv 1 min 10 s, 1,280 × 720; 25.44 MB
  
• Hsp70-May-Be-a-Molecular-Regulator-of-Schistosome-Host-Invasion-pntd.0004986.s004.ogv 28 s, 1,280 × 720; 43.89 MB
  
• Human-Quadrupeds-Primate-Quadrupedalism-and-Uner-Tan-Syndrome-pone.0101758.s003.ogv 15 s, 640 × 480; 1.43 MB
  
• Immersed-Boundary-Simulations-of-Active-Fluid-Droplets-pone.0162474.s001.ogv 26 s, 640 × 480; 984 KB
  
• Immersed-Boundary-Simulations-of-Active-Fluid-Droplets-pone.0162474.s002.ogv 25 s, 640 × 480; 3.82 MB
  
• Immersed-Boundary-Simulations-of-Active-Fluid-Droplets-pone.0162474.s003.ogv 26 s, 640 × 480; 2.12 MB
  
• Immersed-Boundary-Simulations-of-Active-Fluid-Droplets-pone.0162474.s004.ogv 26 s, 640 × 480; 1.69 MB
  
• Immersed-Boundary-Simulations-of-Active-Fluid-Droplets-pone.0162474.s005.ogv 4.7 s, 640 × 480; 592 KB
  
• Immersed-Boundary-Simulations-of-Active-Fluid-Droplets-pone.0162474.s006.ogv 17 s, 640 × 480; 1.66 MB
  
• In-Vivo-Time-Resolved-Microtomography-Reveals-the-Mechanics-of-the-Blowfly-Flight-Motor-pbio.1001823.s001.ogv 30 s, 1,280 × 720; 25.55 MB
  
• In-Vivo-Time-Resolved-Microtomography-Reveals-the-Mechanics-of-the-Blowfly-Flight-Motor-pbio.1001823.s002.ogv 10 s, 1,440 × 680; 9.69 MB
  
• In-Vivo-Time-Resolved-Microtomography-Reveals-the-Mechanics-of-the-Blowfly-Flight-Motor-pbio.1001823.s003.ogv 10 s, 1,200 × 720; 8.66 MB
  
• Intermittent-Motion-in-Desert-Locusts-Behavioural-Complexity-in-Simple-Environments-pcbi.1002498.s011.ogv 3 min 0 s, 960 × 540; 5.43 MB
  
• Jellyfish at Sydney Aquarium.ogv 11 s, 384 × 288; 544 KB
  
• Kinematic-Responses-to-Changes-in-Walking-Orientation-and-Gravitational-Load-in-Drosophila-pone.0109204.s010.ogv 10 s, 512 × 138; 675 KB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s011.ogv 38 s, 1,280 × 720; 10.99 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s012.ogv 1 min 7 s, 1,280 × 720; 30.54 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s013.ogv 42 s, 1,280 × 720; 5.67 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s014.ogv 44 s, 1,280 × 720; 7.09 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s015.ogv 32 s, 1,280 × 720; 3.62 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s016.ogv 28 s, 854 × 480; 1.38 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s017.ogv 25 s, 854 × 480; 2.28 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s018.ogv 1 min 0 s, 854 × 480; 4.3 MB
  
• LudusScope-Accessible-Interactive-Smartphone-Microscopy-for-Life-Science-Education-pone.0162602.s019.ogv 17 s, 1,280 × 720; 2.61 MB
  
• Mannose-Binding-Lectin-Inhibits-the-Motility-of-Pathogenic-Salmonella-by-Affecting-the-Driving-pone.0154165.s005.ogv 6.0 s, 315 × 210; 551 KB
  
• Mannose-Binding-Lectin-Inhibits-the-Motility-of-Pathogenic-Salmonella-by-Affecting-the-Driving-pone.0154165.s007.ogv 5.9 s, 587 × 396; 488 KB
  
• Mannose-Binding-Lectin-Inhibits-the-Motility-of-Pathogenic-Salmonella-by-Affecting-the-Driving-pone.0154165.s009.ogv 30 s, 50 × 50; 1.31 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s001.ogv 9.6 s, 852 × 454; 578 KB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s002.ogv 1 min 40 s, 852 × 454; 5.24 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s003.ogv 21 s, 852 × 454; 1.15 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s004.ogv 29 s, 852 × 454; 1.52 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s005.ogv 20 s, 852 × 454; 1.16 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s006.ogv 44 s, 852 × 454; 2.37 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s007.ogv 11 s, 852 × 558; 660 KB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s008.ogv 40 s, 853 × 762; 4.57 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s009.ogv 40 s, 853 × 762; 3.96 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s010.ogv 40 s, 853 × 762; 4.12 MB
  
• Modeling-Contact-Inhibition-of-Locomotion-of-Colliding-Cells-Migrating-on-Micropatterned-Substrates-pcbi.1005239.s011.ogv 40 s, 853 × 762; 3.73 MB
  
• Modulating-Behavior-in-C.-elegans-Using-Electroshock-and-Antiepileptic-Drugs-pone.0163786.s003.ogv 2 min 4 s, 640 × 480; 6.25 MB
  
• Modulating-Behavior-in-C.-elegans-Using-Electroshock-and-Antiepileptic-Drugs-pone.0163786.s004.ogv 1 min 29 s, 640 × 480; 2.4 MB
  
• Monitoring-Flower-Visitation-Networks-and-Interactions-between-Pairs-of-Bumble-Bees-in-a-Large-pone.0150844.s002.ogv 15 s, 480 × 272; 769 KB
  
• Monitoring-Flower-Visitation-Networks-and-Interactions-between-Pairs-of-Bumble-Bees-in-a-Large-pone.0150844.s003.ogv 5.6 s, 480 × 272; 224 KB
  
• Monitoring-Flower-Visitation-Networks-and-Interactions-between-Pairs-of-Bumble-Bees-in-a-Large-pone.0150844.s004.ogv 3.4 s, 480 × 272; 223 KB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s002.ogv 2 min 38 s, 1,080 × 640; 7.49 MB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s003.ogv 7.9 s, 1,920 × 480; 4.36 MB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s004.ogv 5.6 s, 960 × 240; 349 KB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s005.ogv 6.0 s, 1,920 × 480; 3.77 MB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s006.ogv 4.0 s, 3,072 × 1,024; 1.31 MB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s007.ogv 8.0 s, 2,100 × 568; 1.07 MB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s008.ogv 6.0 s, 886 × 138; 346 KB
  
• Multi-Environment-Model-Estimation-for-Motility-Analysis-of-Caenorhabditis-elegans-pone.0011631.s009.ogv 1 min 20 s, 1,080 × 640; 3.77 MB
  
• Night and day movement behaviour of Milnesium tardigradum - 7901a02mm1.ogv 1 min 12 s, 300 × 300; 775 KB
  
• Observing-a-Movement-Correction-during-Walking-Affects-Evoked-Responses-but-Not-Unperturbed-Walking-pone.0104981.s004.ogv 16 s, 480 × 440; 412 KB
  
• Observing-a-Movement-Correction-during-Walking-Affects-Evoked-Responses-but-Not-Unperturbed-Walking-pone.0104981.s005.ogv 8.7 s, 480 × 450; 282 KB
  
• Octopus.ogv 53 s, 960 × 720; 22.95 MB
  
• Optogenetic-Mimicry-of-the-Transient-Activation-of-Dopamine-Neurons-by-Natural-Reward-Is-Sufficient-pone.0033612.s001.ogv 45 s, 320 × 240; 303 KB
  
• Passive-Dynamic Walking Robot.ogv 8.5 s, 522 × 240; 842 KB
  
• Quantitative-Gait-Analysis-Using-a-Motorized-Treadmill-System-Sensitively-Detects-Motor-pone.0152413.s002.ogv 7.0 s, 658 × 218; 1.57 MB
  
• Quantitative-Gait-Analysis-Using-a-Motorized-Treadmill-System-Sensitively-Detects-Motor-pone.0152413.s003.ogv 4.2 s, 658 × 218; 882 KB
  
• Quantitative-Gait-Analysis-Using-a-Motorized-Treadmill-System-Sensitively-Detects-Motor-pone.0152413.s004.ogv 9.1 s, 658 × 218; 1.81 MB
  
• Quantitative-Gait-Analysis-Using-a-Motorized-Treadmill-System-Sensitively-Detects-Motor-pone.0152413.s005.ogv 5.6 s, 658 × 218; 1.28 MB
  
• Quorum-Sensing-Desynchronization-Leads-to-Bimodality-and-Patterned-Behaviors-pcbi.1004781.s011.ogv 30 s, 1,280 × 720; 2.3 MB
  
• Quorum-Sensing-Desynchronization-Leads-to-Bimodality-and-Patterned-Behaviors-pcbi.1004781.s012.ogv 30 s, 1,280 × 720; 1.59 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s004.ogv 3 min 24 s, 640 × 360; 25.08 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s005.ogv 43 s, 640 × 360; 12.2 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s006.ogv 14 s, 640 × 360; 1.35 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s007.ogv 41 s, 640 × 360; 6.95 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s008.ogv 21 s, 640 × 360; 2.04 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s009.ogv 18 s, 640 × 360; 1.88 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s010.ogv 17 s, 640 × 360; 2.3 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s011.ogv 52 s, 640 × 360; 9.59 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s012.ogv 25 s, 640 × 360; 2.33 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s013.ogv 47 s, 640 × 360; 8.13 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s014.ogv 47 s, 640 × 360; 8.44 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s015.ogv 25 s, 640 × 360; 2.87 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s016.ogv 42 s, 640 × 360; 7.36 MB
  
• Reflex-Control-of-Robotic-Gait-Using-Human-Walking-Data-pone.0109959.s017.ogv 33 s, 640 × 360; 5.61 MB
  
• Regenwurm.ogv 24 s, 1,024 × 200; 1.19 MB
  
• Rheotaxis-in-Larval-Zebrafish-Is-Mediated-by-Lateral-Line-Mechanosensory-Hair-Cells-pone.0029727.s001.ogv 30 s, 572 × 334; 1.21 MB
  
• Rheotaxis-in-Larval-Zebrafish-Is-Mediated-by-Lateral-Line-Mechanosensory-Hair-Cells-pone.0029727.s002.ogv 27 s, 570 × 334; 974 KB
  
• Short-Term-Behavioural-Responses-of-the-Great-Scallop-Pecten-maximus-Exposed-to-the-Toxic-Alga-pone.0160935.s002.ogv 55 s, 1,920 × 1,080; 14.97 MB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s002.ogv 11 s, 1,346 × 780; 787 KB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s003.ogv 32 s, 798 × 348; 2.92 MB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s004.ogv 38 s, 1,920 × 1,080; 22.52 MB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s005.ogv 6.8 s, 1,920 × 1,080; 1.33 MB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s006.ogv 22 s, 1,450 × 758; 2.37 MB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s007.ogv 8.0 s, 1,294 × 512; 541 KB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s008.ogv 24 s, 1,698 × 730; 4.28 MB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s009.ogv 18 s, 960 × 540; 594 KB
  
• Simulating-the-Complex-Cell-Design-of-Trypanosoma-brucei-and-Its-Motility-pcbi.1003967.s010.ogv 6.9 s, 1,024 × 768; 715 KB
  
• Systematic-In-Vivo-Analysis-of-the-Intrinsic-Determinants-of-Amyloid-β-Pathogenicity-pbio.0050290.sv001.ogv 15 s, 320 × 240; 363 KB
  
• Systematic-In-Vivo-Analysis-of-the-Intrinsic-Determinants-of-Amyloid-β-Pathogenicity-pbio.0050290.sv002.ogv 19 s, 320 × 240; 566 KB
  
• The giant water strider (Gigantometra gigas; Gerridae) Natural Habitat Jump 2.webm 16 s, 1,920 × 1,080; 6.29 MB
  
• The-Diguanylate-Cyclase-HsbD-Intersects-with-the-HptB-Regulatory-Cascade-to-Control-Pseudomonas-pgen.1006354.s012.ogv 31 s, 114 × 88; 32 KB
  
• The-Diguanylate-Cyclase-HsbD-Intersects-with-the-HptB-Regulatory-Cascade-to-Control-Pseudomonas-pgen.1006354.s013.ogv 31 s, 108 × 112; 52 KB
  
• The-Drosophila-Gene-RanBPM-Functions-in-the-Mushroom-Body-to-Regulate-Larval-Behavior-pone.0010652.s009.ogv 9 min 23 s, 320 × 240; 543 KB
  
• The-Effect-of-Stress-on-Motor-Function-in-Drosophila-pone.0112076.s003.ogv 6.0 s, 363 × 900; 207 KB
  
• The-expanded-CAG-repeat-in-the-huntingtin-gene-as-target-for-therapeutic-RNA-modulation-throughout-pone.0171127.s006.ogv 6.5 s, 1,280 × 1,024; 2.16 MB
  
• The-expanded-CAG-repeat-in-the-huntingtin-gene-as-target-for-therapeutic-RNA-modulation-throughout-pone.0171127.s007.ogv 27 s, 1,280 × 1,024; 5.41 MB
  
• The-expanded-CAG-repeat-in-the-huntingtin-gene-as-target-for-therapeutic-RNA-modulation-throughout-pone.0171127.s008.ogv 7.4 s, 1,280 × 1,024; 2.49 MB
  
• The-Nicotine-Evoked-Locomotor-Response-A-Behavioral-Paradigm-for-Toxicity-Screening-in-Zebrafish-pone.0154570.s003.ogv 1 min 30 s, 640 × 480; 7.61 MB
  
• Toxoplasma-MIC2-Is-a-Major-Determinant-of-Invasion-and-Virulence-ppat.0020084.sv001.ogv 7.1 s, 203 × 187; 239 KB
  
• Toxoplasma-MIC2-Is-a-Major-Determinant-of-Invasion-and-Virulence-ppat.0020084.sv002.ogv 5.1 s, 202 × 264; 262 KB
  
• Toxoplasma-MIC2-Is-a-Major-Determinant-of-Invasion-and-Virulence-ppat.0020084.sv003.ogv 6.2 s, 342 × 297; 46 KB
  
• Toxoplasma-MIC2-Is-a-Major-Determinant-of-Invasion-and-Virulence-ppat.0020084.sv004.ogv 6.0 s, 361 × 344; 93 KB
  
• Trendelenburg-Like-Gait-Instability-and-Altered-Step-Patterns-in-a-Mouse-Model-for-Limb-Girdle-pone.0161984.s001.ogv 31 s, 960 × 540; 6.22 MB
  
• Walking-Like-Dinosaurs-Chickens-with-Artificial-Tails-Provide-Clues-about-Non-Avian-Theropod-pone.0088458.s001.ogv 14 s, 654 × 480; 873 KB