Category:Videos of nervous system

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Subcategories

This category has the following 8 subcategories, out of 8 total.

C

Videos of central nervous system (5 C, 146 F)

G

Videos of ganglia (1 C, 16 F)

M

Videos of motor control (1 C, 14 F)

N

Videos of neuroanatomy (5 C, 2 F)
Videos of neurohistology (4 C)

P

Videos of peripheral nervous system (5 C, 35 F)
Peripheral glia have a pivotal role in the initial response to axon degeneration of peripheral sensory neurons in zebrafish (5 F)

V

Videos of Drosophila melanogaster nervous system (1 C, 46 F)

Media in category "Videos of nervous system"

The following 200 files are in this category, out of 387 total.

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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
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-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s003.ogv 13 min 48 s, 321 × 240; 68.25 MB
A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s004.ogv 6.6 s, 1,440 × 1,080; 3.98 MB
A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s005.ogv 4 min 9 s, 912 × 612; 6.12 MB
A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s006.ogv 8.3 s, 784 × 736; 2.8 MB
A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s007.ogv 8.3 s, 784 × 736; 2.12 MB
A-Surgical-Model-of-Permanent-and-Transient-Middle-Cerebral-Artery-Stroke-in-the-Sheep-pone.0042157.s001.ogv 2 min 0 s, 384 × 288; 5.47 MB
Actin--and-Dynamin-Dependent-Maturation-of-Bulk-Endocytosis-Restores-Neurotransmission-following-pone.0036913.s008.ogv 30 s, 768 × 576; 1.11 MB
Actin--and-Dynamin-Dependent-Maturation-of-Bulk-Endocytosis-Restores-Neurotransmission-following-pone.0036913.s009.ogv 40 s, 1,024 × 256; 6.06 MB
Actin--and-Dynamin-Dependent-Maturation-of-Bulk-Endocytosis-Restores-Neurotransmission-following-pone.0036913.s010.ogv 50 s, 640 × 360; 7.3 MB
Allopregnanolone-Reinstates-Tyrosine-Hydroxylase-Immunoreactive-Neurons-and-Motor-Performance-in-an-pone.0050040.s001.ogv 25 s, 580 × 580; 396 KB
Altered-Perceptual-Sensitivity-to-Kinematic-Invariants-in-Parkinson's-Disease-pone.0030369.s002.ogv 59 s, 640 × 480; 411 KB
Altered-Reward-Circuitry-in-the-Norepinephrine-Transporter-Knockout-Mouse-pone.0057597.s002.ogv 30 s, 640 × 480; 1.79 MB
Altered-Reward-Circuitry-in-the-Norepinephrine-Transporter-Knockout-Mouse-pone.0057597.s003.ogv 50 s, 640 × 960; 3.16 MB
Altered-Reward-Circuitry-in-the-Norepinephrine-Transporter-Knockout-Mouse-pone.0057597.s004.ogv 41 s, 640 × 960; 3.1 MB
Altered-Reward-Circuitry-in-the-Norepinephrine-Transporter-Knockout-Mouse-pone.0057597.s005.ogv 27 s, 640 × 960; 2.77 MB
Altered-Reward-Circuitry-in-the-Norepinephrine-Transporter-Knockout-Mouse-pone.0057597.s006.ogv 40 s, 592 × 800; 25.89 MB
An-Image-Free-Opto-Mechanical-System-for-Creating-Virtual-Environments-and-Imaging-Neuronal-pone.0024666.s003.ogv 31 s, 678 × 576; 3.28 MB
An-Image-Free-Opto-Mechanical-System-for-Creating-Virtual-Environments-and-Imaging-Neuronal-pone.0024666.s005.ogv 59 s, 658 × 606; 2.65 MB
An-Image-Free-Opto-Mechanical-System-for-Creating-Virtual-Environments-and-Imaging-Neuronal-pone.0024666.s006.ogv 59 s, 550 × 560; 2.87 MB
An-Image-Free-Opto-Mechanical-System-for-Creating-Virtual-Environments-and-Imaging-Neuronal-pone.0024666.s007.ogv 43 s, 586 × 560; 1.98 MB
Anatomical-Connectivity-Influences-both-Intra--and-Inter-Brain-Synchronizations-pone.0036414.s004.ogv 50 s, 570 × 440; 13 MB
Aspartoacylase-LacZ-Knockin-Mice-An-Engineered-Model-of-Canavan-Disease-pone.0020336.s004.ogv 1 min 56 s, 768 × 576; 15.33 MB
Astroglia-in-Thick-Tissue-with-Super-Resolution-and-Cellular-Reconstruction-pone.0160391.s002.ogv 50 s, 852 × 455; 13.19 MB
Astroglia-in-Thick-Tissue-with-Super-Resolution-and-Cellular-Reconstruction-pone.0160391.s003.ogv 50 s, 852 × 455; 3 MB
Astroglia-in-Thick-Tissue-with-Super-Resolution-and-Cellular-Reconstruction-pone.0160391.s004.ogv 50 s, 852 × 455; 26.3 MB
Astroglia-in-Thick-Tissue-with-Super-Resolution-and-Cellular-Reconstruction-pone.0160391.s005.ogv 13 s, 852 × 455; 8.7 MB
Beta-but-Not-Gamma-Band-Oscillations-Index-Visual-Form-Motion-Integration-pone.0095541.s001.ogv 1.3 s, 160 × 120; 11 KB
Beta-but-Not-Gamma-Band-Oscillations-Index-Visual-Form-Motion-Integration-pone.0095541.s002.ogv 1.6 s, 160 × 120; 8 KB
Brainstem-and-Spinal-Cord-Circuitry-Regulating-REM-Sleep-and-Muscle-Atonia-pone.0024998.s001.ogv 16 s, 1,664 × 860; 1.39 MB
Brainstem-Neurons-Survive-the-Identical-Ischemic-Stress-That-Kills-Higher-Neurons-Insight-to-the-pone.0096585.s001.ogv 14 s, 320 × 240; 270 KB
Brainstem-Neurons-Survive-the-Identical-Ischemic-Stress-That-Kills-Higher-Neurons-Insight-to-the-pone.0096585.s002.ogv 22 s, 320 × 240; 453 KB
Causal-Inference-in-Multisensory-Heading-Estimation-pone.0169676.s006.ogv 43 s, 540 × 960; 15.77 MB
Ccdc80-l1-Is-Involved-in-Axon-Pathfinding-of-Zebrafish-Motoneurons-pone.0031851.s007.ogv 2.7 s, 720 × 576; 106 KB
Ccdc80-l1-Is-Involved-in-Axon-Pathfinding-of-Zebrafish-Motoneurons-pone.0031851.s008.ogv 5.0 s, 720 × 576; 242 KB
Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s010.ogv 8.0 s, 480 × 384; 2.71 MB
Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s011.ogv 8.3 s, 480 × 360; 2.06 MB
Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s012.ogv 8.3 s, 480 × 384; 3.43 MB
Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s013.ogv 5.0 s, 1,280 × 1,024; 816 KB
Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s014.ogv 5.0 s, 1,280 × 1,024; 425 KB
Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s015.ogv 5.0 s, 1,392 × 1,040; 1.56 MB
Central-Adaptation-to-Repeated-Galvanic-Vestibular-Stimulation-Implications-for-Pre-Flight-pone.0112131.s003.ogv 10 s, 640 × 480; 712 KB
Chromatic-Signals-Control-Proboscis-Movements-during-Hovering-Flight-in-the-Hummingbird-Hawkmoth-pone.0034629.s001.ogv 11 s, 512 × 384; 2.51 MB
Collective-Signal-Processing-in-Cluster-Chemotaxis-Roles-of-Adaptation-Amplification-and-Co-pcbi.1005008.s001.ogv 1 min 3 s, 640 × 480; 12.89 MB
Collective-Signal-Processing-in-Cluster-Chemotaxis-Roles-of-Adaptation-Amplification-and-Co-pcbi.1005008.s002.ogv 1 min 3 s, 928 × 306; 11.29 MB
Comprehensive-Evaluation-of-Peripheral-Nerve-Regeneration-in-the-Acute-Healing-Phase-Using-Tissue-pone.0094054.s006.ogv 30 s, 640 × 480; 2.61 MB
Comprehensive-Evaluation-of-Peripheral-Nerve-Regeneration-in-the-Acute-Healing-Phase-Using-Tissue-pone.0094054.s007.ogv 11 s, 854 × 304; 6.13 MB
Comprehensive-Evaluation-of-Peripheral-Nerve-Regeneration-in-the-Acute-Healing-Phase-Using-Tissue-pone.0094054.s008.ogv 1 min 55 s, 640 × 480; 7.81 MB
Comprehensive-Evaluation-of-Peripheral-Nerve-Regeneration-in-the-Acute-Healing-Phase-Using-Tissue-pone.0094054.s009.ogv 33 s, 640 × 480; 3.39 MB
Comprehensive-Evaluation-of-Peripheral-Nerve-Regeneration-in-the-Acute-Healing-Phase-Using-Tissue-pone.0094054.s010.ogv 19 s, 640 × 480; 2.76 MB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s008.ogv 10 s, 1,024 × 512; 997 KB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s009.ogv 14 s, 228 × 512; 434 KB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s010.ogv 11 s, 364 × 302; 859 KB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s011.ogv 9.2 s, 1,634 × 637; 1.64 MB
Contact-Mediated-Inhibition-Between-Oligodendrocyte-Progenitor-Cells-and-Motor-Exit-Point-Glia-pbio.1001961.s013.ogv 13 s, 1,024 × 512; 1.64 MB
Continuous-Three-Dimensional-Control-of-a-Virtual-Helicopter-Using-a-Motor-Imagery-Based-Brain-pone.0026322.s002.ogv 35 s, 320 × 240; 2.75 MB
Continuous-Three-Dimensional-Control-of-a-Virtual-Helicopter-Using-a-Motor-Imagery-Based-Brain-pone.0026322.s003.ogv 36 s, 320 × 240; 2.88 MB
Continuous-Three-Dimensional-Control-of-a-Virtual-Helicopter-Using-a-Motor-Imagery-Based-Brain-pone.0026322.s004.ogv 39 s, 320 × 240; 3.49 MB
Continuous-Three-Dimensional-Control-of-a-Virtual-Helicopter-Using-a-Motor-Imagery-Based-Brain-pone.0026322.s005.ogv 49 s, 320 × 240; 3.73 MB
Controlled-CreloxP-Site-Specific-Recombination-in-the-Developing-Brain-in-Medaka-Fish-Oryzias-pone.0066597.s004.ogv 13 s, 384 × 384; 2.63 MB
Coordination-in-Fast-Repetitive-Violin-Bowing-Patterns-pone.0106615.s001.ogv 14 s, 1,280 × 720; 4.94 MB
Coordination-in-Fast-Repetitive-Violin-Bowing-Patterns-pone.0106615.s002.ogv 14 s, 1,280 × 720; 4.35 MB
Coordination-in-Fast-Repetitive-Violin-Bowing-Patterns-pone.0106615.s003.ogv 14 s, 1,280 × 720; 4.64 MB
Cortical-Neurovascular-Coupling-Driven-by-Stimulation-of-Channelrhodopsin-2-pone.0046607.s001.ogv 35 s, 500 × 670; 5.11 MB
Cryptococcus-neoformans-Derived-Microvesicles-Enhance-the-Pathogenesis-of-Fungal-Brain-Infection-pone.0048570.s003.ogv 12 s, 1,150 × 608; 1.64 MB
Cryptococcus-neoformans-Derived-Microvesicles-Enhance-the-Pathogenesis-of-Fungal-Brain-Infection-pone.0048570.s004.ogv 12 s, 1,150 × 608; 1.78 MB
Cryptococcus-neoformans-Derived-Microvesicles-Enhance-the-Pathogenesis-of-Fungal-Brain-Infection-pone.0048570.s005.ogv 12 s, 1,150 × 608; 1.18 MB
Depending-on-Its-Nano-Spacing-ALCAM-Promotes-Cell-Attachment-and-Axon-Growth-pone.0040493.s006.ogv 1 min 12 s, 366 × 656; 828 KB
Depending-on-Its-Nano-Spacing-ALCAM-Promotes-Cell-Attachment-and-Axon-Growth-pone.0040493.s007.ogv 1 min 12 s, 670 × 722; 2.58 MB
Depending-on-Its-Nano-Spacing-ALCAM-Promotes-Cell-Attachment-and-Axon-Growth-pone.0040493.s008.ogv 1 min 12 s, 425 × 647; 1.72 MB
Depending-on-Its-Nano-Spacing-ALCAM-Promotes-Cell-Attachment-and-Axon-Growth-pone.0040493.s009.ogv 1 min 12 s, 300 × 360; 273 KB
Depending-on-Its-Nano-Spacing-ALCAM-Promotes-Cell-Attachment-and-Axon-Growth-pone.0040493.s010.ogv 1 min 12 s, 231 × 245; 192 KB
Derivation-of-Multivariate-Syndromic-Outcome-Metrics-for-Consistent-Testing-across-Multiple-Models-pone.0059712.s006.ogv 18 s, 792 × 696; 3.59 MB
Development-and-organization-of-the-larval-nervous-system-in-Phoronopsis-harmeri-new-insights-into-1742-9994-11-3-S1.ogv 1 min 15 s, 1,280 × 720; 7.11 MB
Differential-Lipid-Profiles-of-Normal-Human-Brain-Matter-and-Gliomas-by-Positive-and-Negative-Mode-pone.0163180.s002.ogv 12 s, 800 × 600; 1.01 MB
Direct-Generation-of-Neurosphere-Like-Cells-from-Human-Dermal-Fibroblasts-pone.0021801.s010.ogv 56 s, 640 × 480; 9.47 MB
Disorders-of-Upper-Limb-Movements-in-Ataxia-Telangiectasia-pone.0067042.s001.ogv 1 min 30 s, 320 × 240; 7.83 MB
Disruption-in-Connexin-Based-Communication-Is-Associated-with-Intracellular-Ca2+-Signal-Alterations-pone.0071361.s003.ogv 9.1 s, 532 × 275; 182 KB
Does-an-Eye-Hand-Coordination-Test-Have-Added-Value-as-Part-of-Talent-Identification-in-Table-pone.0085657.s001.ogv 12 s, 1,024 × 576; 2.26 MB
Does-an-Eye-Hand-Coordination-Test-Have-Added-Value-as-Part-of-Talent-Identification-in-Table-pone.0085657.s002.ogv 17 s, 1,024 × 576; 2.27 MB
Does-an-Eye-Hand-Coordination-Test-Have-Added-Value-as-Part-of-Talent-Identification-in-Table-pone.0085657.s003.ogv 11 s, 1,024 × 576; 1.84 MB
Does-an-Eye-Hand-Coordination-Test-Have-Added-Value-as-Part-of-Talent-Identification-in-Table-pone.0085657.s004.ogv 14 s, 1,024 × 576; 2.09 MB
Doing-It-Your-Way-How-Individual-Movement-Styles-Affect-Action-Prediction-pone.0165297.s004.ogv 1.0 s, 1,280 × 800; 251 KB
Drinking-Songs-Alcohol-Effects-on-Learned-Song-of-Zebra-Finches-pone.0115427.s006.ogv 2 min 59 s, 1,920 × 1,080; 5.14 MB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv001.ogv 3.2 s, 312 × 240; 35 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv002.ogv 23 s, 312 × 240; 176 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv003.ogv 8.4 s, 312 × 240; 88 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv004.ogv 5 min 17 s, 312 × 240; 1.77 MB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv005.ogv 49 s, 312 × 240; 719 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv006.ogv 21 s, 312 × 240; 211 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv007.ogv 21 s, 312 × 240; 170 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv008.ogv 56 s, 312 × 240; 457 KB
Drosophila-Neurotrophins-Reveal-a-Common-Mechanism-for-Nervous-System-Formation-pbio.0060284.sv009.ogv 25 s, 312 × 240; 384 KB
Dynamic-Visuomotor-Transformation-Involved-with-Remote-Flying-of-a-Plane-Utilizes-the-‘Mirror-pone.0033873.s001.ogv 28 s, 440 × 330; 2.6 MB
Dynamic-Visuomotor-Transformation-Involved-with-Remote-Flying-of-a-Plane-Utilizes-the-‘Mirror-pone.0033873.s002.ogv 32 s, 440 × 330; 5.72 MB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s001.ogv 5.0 s, 238 × 271; 248 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s002.ogv 6.9 s, 215 × 218; 405 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s003.ogv 5.1 s, 305 × 211; 204 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s004.ogv 2.0 s, 292 × 281; 148 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s005.ogv 0.6 s, 275 × 285; 57 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s006.ogv 7.1 s, 625 × 785; 2.54 MB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s007.ogv 5.0 s, 228 × 286; 459 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s008.ogv 5.6 s, 255 × 214; 578 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s009.ogv 5.6 s, 247 × 213; 595 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s010.ogv 5.0 s, 294 × 220; 287 KB
Early-Invasion-of-Brain-Parenchyma-by-African-Trypanosomes-pone.0043913.s011.ogv 5.0 s, 645 × 548; 2.28 MB
Edaravone-Protects-against-Methylglyoxal-Induced-Barrier-Damage-in-Human-Brain-Endothelial-Cells-pone.0100152.s005.ogv 9.0 s, 1,128 × 668; 597 KB
Edaravone-Protects-against-Methylglyoxal-Induced-Barrier-Damage-in-Human-Brain-Endothelial-Cells-pone.0100152.s006.ogv 9.0 s, 1,128 × 668; 520 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s001.ogv 2 min 45 s, 807 × 27; 342 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s002.ogv 3 min 29 s, 728 × 61; 468 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s003.ogv 3 min 3 s, 1,118 × 28; 303 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s004.ogv 22 s, 320 × 240; 347 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s005.ogv 13 s, 320 × 240; 257 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s006.ogv 31 s, 320 × 240; 443 KB
Effect-of-Angle-on-Flow-Induced-Vibrations-of-Pinniped-Vibrissae-pone.0069872.s007.ogv 21 s, 320 × 240; 517 KB
Evidence-for-the-Re-Enactment-of-a-Recently-Learned-Behavior-during-Sleepwalking-pone.0018056.s003.ogv 1 min 0 s, 768 × 576; 2.42 MB
Female-Mucopolysaccharidosis-IIIA-Mice-Exhibit-Hyperactivity-and-a-Reduced-Sense-of-Danger-in-the-pone.0025717.s003.ogv 25 s, 720 × 354; 1.31 MB
Fibro-Vascular-Coupling-in-the-Control-of-Cochlear-Blood-Flow-pone.0020652.s007.ogv 9.0 s, 720 × 576; 757 KB
Fin-Tail-Coordination-during-Escape-and-Predatory-Behavior-in-Larval-Zebrafish-pone.0032295.s002.ogv 5.6 s, 258 × 227; 629 KB
Fin-Tail-Coordination-during-Escape-and-Predatory-Behavior-in-Larval-Zebrafish-pone.0032295.s003.ogv 7.7 s, 224 × 133; 521 KB
Fin-Tail-Coordination-during-Escape-and-Predatory-Behavior-in-Larval-Zebrafish-pone.0032295.s004.ogv 7.8 s, 268 × 188; 578 KB
Fish-Geometry-and-Electric-Organ-Discharge-Determine-Functional-Organization-of-the-Electrosensory-pone.0027470.s001.ogv 48 s, 720 × 480; 3.35 MB
From-Spontaneous-Motor-Activity-to-Coordinated-Behaviour-A-Developmental-Model-pcbi.1003653.s006.ogv 1 min 31 s, 853 × 480; 1.8 MB
Genetically-Encoded-Green-Fluorescent-Ca2+-Indicators-with-Improved-Detectability-for-Neuronal-Ca2+-pone.0051286.s001.ogv 12 s, 400 × 400; 527 KB
Genetically-Encoded-Green-Fluorescent-Ca2+-Indicators-with-Improved-Detectability-for-Neuronal-Ca2+-pone.0051286.s002.ogv 10 s, 400 × 400; 766 KB
Handedness-of-a-Motor-Program-in-C.-elegans-Is-Independent-of-Left-Right-Body-Asymmetry-pone.0052138.s005.ogv 45 s, 1,024 × 576; 5.49 MB
High-Field-MRI-Reveals-a-Drastic-Increase-of-Hypoxia-Induced-Microhemorrhages-upon-Tissue-pone.0148441.s001.ogv 15 s, 1,436 × 762; 6.09 MB
Human-Mesenchymal-Cells-from-Adipose-Tissue-Deposit-Laminin-and-Promote-Regeneration-of-Injured-pone.0096020.s006.ogv 20 s, 640 × 480; 7.99 MB
Identification-of-the-Rostral-Migratory-Stream-in-the-Canine-and-Feline-Brain-pone.0036016.s001.ogv 9.0 s, 960 × 540; 795 KB
IL1RAPL1-Associated-with-Mental-Retardation-and-Autism-Regulates-the-Formation-and-Stabilization-of-pone.0066254.s001.ogv 9.9 s, 640 × 480; 3.67 MB
IL1RAPL1-Associated-with-Mental-Retardation-and-Autism-Regulates-the-Formation-and-Stabilization-of-pone.0066254.s002.ogv 2.9 s, 640 × 480; 344 KB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM11 ESM.ogv 7.9 s, 519 × 512; 1.2 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM3 ESM.ogv 9.7 s, 512 × 512; 4.33 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM4 ESM.ogv 6.3 s, 518 × 512; 1.15 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM5 ESM.ogv 5.0 s, 512 × 512; 2.67 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM6 ESM.ogv 7.9 s, 824 × 752; 3.98 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM7 ESM.ogv 7.9 s, 915 × 752; 4.12 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM8 ESM.ogv 7.9 s, 786 × 752; 4.02 MB
Improved-application-of-the-electrophoretic-tissue-clearing-technology-CLARITY-to-intact-solid-12861 2014 48 MOESM9 ESM.ogv 2.2 s, 534 × 512; 2.51 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.s003.ogv 10 s, 1,200 × 720; 8.66 MB
Indian-Ink-Perfusion-Based-Method-for-Reconstructing-Continuous-Vascular-Networks-in-Whole-Mouse-pone.0088067.s005.ogv 41 s, 640 × 480; 5.92 MB
Indian-Ink-Perfusion-Based-Method-for-Reconstructing-Continuous-Vascular-Networks-in-Whole-Mouse-pone.0088067.s006.ogv 26 s, 1,280 × 720; 25.26 MB
Indian-Ink-Perfusion-Based-Method-for-Reconstructing-Continuous-Vascular-Networks-in-Whole-Mouse-pone.0088067.s007.ogv 18 s, 1,280 × 720; 17.68 MB
Inhibition-of-PIKfyve-by-YM-201636-Dysregulates-Autophagy-and-Leads-to-Apoptosis-Independent-pone.0060152.s004.ogv 41 s, 300 × 226; 819 KB
Inhibition-of-PIKfyve-by-YM-201636-Dysregulates-Autophagy-and-Leads-to-Apoptosis-Independent-pone.0060152.s005.ogv 41 s, 300 × 226; 825 KB
Initiation-of-Bladder-Voiding-with-Epidural-Stimulation-in-Paralyzed-Step-Trained-Rats-pone.0108184.s001.ogv 13 s, 960 × 540; 3.07 MB
Initiation-of-Bladder-Voiding-with-Epidural-Stimulation-in-Paralyzed-Step-Trained-Rats-pone.0108184.s002.ogv 20 s, 480 × 272; 691 KB
Integration-of-Motion-Responses-Underlying-Directional-Motion-Anisotropy-in-Human-Early-Visual-pone.0067468.s001.ogv 27 s, 320 × 240; 1.26 MB
Integration-of-Motion-Responses-Underlying-Directional-Motion-Anisotropy-in-Human-Early-Visual-pone.0067468.s002.ogv 26 s, 320 × 240; 1.52 MB
Integration-of-Motion-Responses-Underlying-Directional-Motion-Anisotropy-in-Human-Early-Visual-pone.0067468.s003.ogv 27 s, 320 × 240; 1.33 MB
Intersegmental-Eye-Head-Body-Interactions-during-Complex-Whole-Body-Movements-pone.0095450.s001.ogv 9.3 s, 1,180 × 748; 2.09 MB
Intersegmental-Eye-Head-Body-Interactions-during-Complex-Whole-Body-Movements-pone.0095450.s002.ogv 31 s, 1,180 × 744; 12.11 MB
Intersegmental-Eye-Head-Body-Interactions-during-Complex-Whole-Body-Movements-pone.0095450.s003.ogv 1 min 7 s, 1,180 × 744; 16.17 MB
Intersegmental-Eye-Head-Body-Interactions-during-Complex-Whole-Body-Movements-pone.0095450.s004.ogv 17 s, 1,180 × 744; 6.24 MB
Intersegmental-Eye-Head-Body-Interactions-during-Complex-Whole-Body-Movements-pone.0095450.s005.ogv 46 s, 1,180 × 744; 17.92 MB
L-Type-Ca2+-Channel-Sparklets-Revealed-by-TIRF-Microscopy-in-Mouse-Urinary-Bladder-Smooth-Muscle-pone.0093803.s002.ogv 20 s, 512 × 172; 79.25 MB
L-Type-Ca2+-Channel-Sparklets-Revealed-by-TIRF-Microscopy-in-Mouse-Urinary-Bladder-Smooth-Muscle-pone.0093803.s003.ogv 20 s, 512 × 172; 68.32 MB
L-Type-Ca2+-Channel-Sparklets-Revealed-by-TIRF-Microscopy-in-Mouse-Urinary-Bladder-Smooth-Muscle-pone.0093803.s004.ogv 20 s, 512 × 172; 72.82 MB
L-Type-Ca2+-Channel-Sparklets-Revealed-by-TIRF-Microscopy-in-Mouse-Urinary-Bladder-Smooth-Muscle-pone.0093803.s005.ogv 20 s, 512 × 172; 64.45 MB
Laminoplasty-and-Laminectomy-Hybrid-Decompression-for-the-Treatment-of-Cervical-Spondylotic-pone.0095482.s001.ogv 2 min 44 s, 768 × 576; 50.67 MB
Laser-Based-Single-Axon-Transection-for-High-Content-Axon-Injury-and-Regeneration-Studies-pone.0026832.s001.ogv 38 s, 719 × 617; 7.27 MB
Laser-Based-Single-Axon-Transection-for-High-Content-Axon-Injury-and-Regeneration-Studies-pone.0026832.s002.ogv 42 s, 666 × 555; 6.51 MB
Laser-Based-Single-Axon-Transection-for-High-Content-Axon-Injury-and-Regeneration-Studies-pone.0026832.s003.ogv 37 s, 458 × 610; 3.29 MB
Laser-Based-Single-Axon-Transection-for-High-Content-Axon-Injury-and-Regeneration-Studies-pone.0026832.s004.ogv 47 s, 663 × 638; 8.64 MB
Laser-Based-Single-Axon-Transection-for-High-Content-Axon-Injury-and-Regeneration-Studies-pone.0026832.s005.ogv 16 s, 795 × 530; 2.32 MB
Lateralized-Kinematics-of-Predation-Behavior-in-a-Lake-Tanganyika-Scale-Eating-Cichlid-Fish-pone.0029272.s002.ogv 20 s, 853 × 480; 1.11 MB
Light-evoked-Somatosensory-Perception-of-Transgenic-Rats-That-Express-Channelrhodopsin-2-in-Dorsal-pone.0032699.s001.ogv 1 min 36 s, 640 × 480; 8.8 MB
Light-evoked-Somatosensory-Perception-of-Transgenic-Rats-That-Express-Channelrhodopsin-2-in-Dorsal-pone.0032699.s002.ogv 1 min 38 s, 640 × 480; 9.82 MB
Light-evoked-Somatosensory-Perception-of-Transgenic-Rats-That-Express-Channelrhodopsin-2-in-Dorsal-pone.0032699.s003.ogv 1 min 37 s, 640 × 480; 8.16 MB
Light-evoked-Somatosensory-Perception-of-Transgenic-Rats-That-Express-Channelrhodopsin-2-in-Dorsal-pone.0032699.s004.ogv 1 min 37 s, 640 × 480; 8.66 MB
Light-evoked-Somatosensory-Perception-of-Transgenic-Rats-That-Express-Channelrhodopsin-2-in-Dorsal-pone.0032699.s005.ogv 1 min 38 s, 640 × 480; 8.23 MB
Localized-IRES-Dependent-Translation-of-ER-Chaperone-Protein-mRNA-in-Sensory-Axons-pone.0040788.s002.ogv 3.1 s, 398 × 384; 4 KB
Localized-IRES-Dependent-Translation-of-ER-Chaperone-Protein-mRNA-in-Sensory-Axons-pone.0040788.s003.ogv 3.1 s, 398 × 384; 190 KB
Localized-IRES-Dependent-Translation-of-ER-Chaperone-Protein-mRNA-in-Sensory-Axons-pone.0040788.s004.ogv 3.1 s, 418 × 404; 34 KB
Localized-IRES-Dependent-Translation-of-ER-Chaperone-Protein-mRNA-in-Sensory-Axons-pone.0040788.s005.ogv 3.1 s, 418 × 404; 171 KB
Localized-IRES-Dependent-Translation-of-ER-Chaperone-Protein-mRNA-in-Sensory-Axons-pone.0040788.s006.ogv 3.1 s, 418 × 404; 100 KB
Localized-IRES-Dependent-Translation-of-ER-Chaperone-Protein-mRNA-in-Sensory-Axons-pone.0040788.s007.ogv 3.1 s, 372 × 358; 24 KB
Loss-of-the-V-ATPase-B1-Subunit-Isoform-Expressed-in-Non-Neuronal-Cells-of-the-Mouse-Olfactory-pone.0045395.s001.ogv 3 min 0 s, 960 × 540; 40.72 MB
Loss-of-the-V-ATPase-B1-Subunit-Isoform-Expressed-in-Non-Neuronal-Cells-of-the-Mouse-Olfactory-pone.0045395.s002.ogv 3 min 0 s, 960 × 540; 40.24 MB
Machine-Learning-of-Hierarchical-Clustering-to-Segment-2D-and-3D-Images-pone.0071715.s004.ogv 55 s, 972 × 321; 4.27 MB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S1.ogv 21 s, 968 × 318; 901 KB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S10.ogv 6.4 s, 536 × 512; 1.02 MB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S11.ogv 8.0 s, 510 × 510; 394 KB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S2.ogv 10 s, 722 × 296; 278 KB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S3.ogv 8.7 s, 686 × 510; 835 KB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S4.ogv 12 s, 636 × 632; 286 KB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S5.ogv 10 s, 636 × 516; 2.3 MB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S6.ogv 4.4 s, 828 × 603; 3 MB
Making-sense-of-zebrafish-neural-development-in-the-Minervois-1749-8104-2-15-S7.ogv 6.0 s, 518 × 467; 484 KB
Mapping-Connectivity-Damage-in-the-Case-of-Phineas-Gage-pone.0037454.s007.ogv 1 min 1 s, 640 × 480; 13.37 MB
Mechanical-Overstimulation-of-Hair-Bundles-Suppression-and-Recovery-of-Active-Motility-pone.0058143.s003.ogv 17 s, 560 × 360; 563 KB
Mechanisms-of-Hearing-Loss-after-Blast-Injury-to-the-Ear-pone.0067618.s002.ogv 2 min 0 s, 640 × 480; 10.52 MB
Mechanisms-Underlying-Metabolic-and-Neural-Defects-in-Zebrafish-and-Human-Multiple-Acyl-CoA-pone.0008329.s013.ogv 27 s, 247 × 242; 191 KB
Mechanisms-Underlying-Metabolic-and-Neural-Defects-in-Zebrafish-and-Human-Multiple-Acyl-CoA-pone.0008329.s014.ogv 27 s, 247 × 242; 240 KB
Mechanosensitive-Enteric-Neurons-in-the-Myenteric-Plexus-of-the-Mouse-Intestine-pone.0039887.s001.ogv 37 s, 720 × 576; 332 KB
Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s002.ogv 9.0 s, 561 × 512; 1.46 MB
Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s003.ogv 9.0 s, 561 × 512; 1.96 MB
Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s004.ogv 9.0 s, 561 × 512; 1.43 MB

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