Category:Neural networks

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  2D data training SOM.gif 635×801; 1,39 MB
  
• A-Brain-Machine-Muscle-Interface-for-Restoring-Hindlimb-Locomotion-after-Complete-Spinal-pone.0103764.s002.ogv 57 s, 320×240; 3,49 MB
  
• 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
  
• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s011.ogv 9,1 s, 720×360; 318 kB
  
• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s012.ogv 9,1 s, 720×360; 346 kB
  
• A-Computational-Model-of-Afterimage-Rotation-in-the-Peripheral-Drift-Illusion-Based-on-Retinal-pone.0115464.s013.ogv 9,1 s, 720×360; 390 kB
  
• A-Distinct-Layer-of-the-Medulla-Integrates-Sky-Compass-Signals-in-the-Brain-of-an-Insect-pone.0027855.s001.ogv 8,2 s, 624×960; 13,56 MB
  
• A-Distinct-Layer-of-the-Medulla-Integrates-Sky-Compass-Signals-in-the-Brain-of-an-Insect-pone.0027855.s002.ogv 6,7 s, 624×960; 9,15 MB
  
• A-Distinct-Layer-of-the-Medulla-Integrates-Sky-Compass-Signals-in-the-Brain-of-an-Insect-pone.0027855.s003.ogv 8,2 s, 624×960; 12,91 MB
  
• A-Distinct-Layer-of-the-Medulla-Integrates-Sky-Compass-Signals-in-the-Brain-of-an-Insect-pone.0027855.s004.ogv 6,7 s, 1.264×960; 5,43 MB
  
• A-Distinct-Layer-of-the-Medulla-Integrates-Sky-Compass-Signals-in-the-Brain-of-an-Insect-pone.0027855.s005.ogv 8,2 s, 1.264×960; 5,1 MB
  
• A-Neurocomputational-Model-of-Goal-Directed-Navigation-in-Insect-Inspired-Artificial-Agents-Video1.ogv 3 min 3 s, 1.280×1.024; 11,37 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-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s007.ogv 30 s, 1.280×720; 11,61 MB
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s008.ogv 30 s, 1.280×720; 8,81 MB
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s009.ogv 30 s, 1.280×720; 8,85 MB
  
• A-Theory-of-Cheap-Control-in-Embodied-Systems-pcbi.1004427.s010.ogv 30 s, 1.280×720; 9,56 MB
  
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  Accuracy per T allN dec13 submission.png 640×480; 46 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s001.ogv 10 s, 300×230; 1.022 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s002.ogv 2,6 s, 300×286; 72 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s003.ogv 8,2 s, 280×300; 355 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s004.ogv 5,3 s, 280×300; 90 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s005.ogv 20 s, 150×82; 264 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s006.ogv 17 s, 242×300; 267 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s007.ogv 17 s, 522×150; 909 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s008.ogv 2,3 s, 380×294; 1,65 MB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s009.ogv 2,3 s, 300×160; 429 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s010.ogv 1,3 s, 300×134; 475 kB
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s011.ogv 13 s, 300×220; 314 kB
  
• Adaptive-Movement-Compensation-for-In-Vivo-Imaging-of-Fast-Cellular-Dynamics-within-a-Moving-Tissue-pone.0019928.s003.ogv 12 s, 263×435; 1,65 MB
  
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  AdobeSpeechEnhancementScreenshot.png 1.896×1.077; 105 kB
  
• Amplitude-of-the-SCN-Clock-Enhanced-by-the-Behavioral-Activity-Rhythm-pone.0039693.s003.ogv 1 min 1 s, 640×480; 1,29 MB
  
• Amplitude-of-the-SCN-Clock-Enhanced-by-the-Behavioral-Activity-Rhythm-pone.0039693.s004.ogv 59 s, 640×480; 1,21 MB
  
• Anatomical-Connectivity-Influences-both-Intra--and-Inter-Brain-Synchronizations-pone.0036414.s004.ogv 50 s, 570×440; 13 MB
  
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  Ann Recurrente.jpg 2.448×3.264; 284 kB
  
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  Asegsde.PNG 653×776; 101 kB
  
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  Attention-qkv.png 2.129×906; 152 kB
  
• Automated-and-Accurate-Detection-of-Soma-Location-and-Surface-Morphology-in-Large-Scale-3D-Neuron-pone.0062579.s003.ogv 29 s, 1.024×576; 8,89 MB
  
• Automated-and-Accurate-Detection-of-Soma-Location-and-Surface-Morphology-in-Large-Scale-3D-Neuron-pone.0062579.s004.ogv 29 s, 1.280×720; 15,73 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
  
• Biological-Motion-Coding-in-the-Brain-Analysis-of-Visually-Driven-EEG-Functional-Networks-pone.0084612.s004.ogv 2,5 s, 482×354; 43 kB
  
• Biological-Motion-Coding-in-the-Brain-Analysis-of-Visually-Driven-EEG-Functional-Networks-pone.0084612.s005.ogv 1,8 s, 570×398; 35 kB
  
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  Bipolar Rectified Linear Unit (BReLU).png 120×101; 1 kB
  
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  BPM input space wiki.pdf 1.239×1.752; 381 kB
  
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  BPM MLP wiki.pdf 1.239×1.752; 383 kB
  
• Brainstem-and-Spinal-Cord-Circuitry-Regulating-REM-Sleep-and-Muscle-Atonia-pone.0024998.s001.ogv 16 s, 1.664×860; 1,39 MB
  
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  Caption 1.jpg 640×400; 10 kB
  
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  Cayley Tree Branch with Branching Ratio = 2.jpg 2.188×1.906; 1,05 MB
  
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  CerebCircuit.png 388×377; 23 kB
  
• Characterization-of-the-Gbx1−−-Mouse-Mutant-A-Requirement-for-Gbx1-in-Normal-Locomotion-and-pone.0056214.s002.ogv 1 min 14 s, 480×360; 6,57 MB
  
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  Clasification.png 454×340; 455 kB
  
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  Closed Cayley Tree with Branching Ratio = 4.jpg 2.666×1.584; 1,14 MB
  
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  Codi 16bit cell.png 553×181; 46 kB
  
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  Codi chromosome start growth.png 583×177; 51 kB
  
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  Comparison of Loss functions for binary classification.png 1.920×756; 45 kB
  
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  Comparison of loss functions.png 1.545×811; 41 kB
  
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  Comparison of speed and accuracy of detectors.png 1.094×1.021; 363 kB
  
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  Connectome extraction procedure.jpg 3.652×3.127; 1,11 MB
  
• Continuous-Attractor-Network-Model-for-Conjunctive-Position-by-Velocity-Tuning-of-Grid-Cells-pcbi.1003558.s001.ogv 5 min 0 s, 1.500×1.000; 5,74 MB
  
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  Cortical Columns.jpg 2.304×1.800; 1,85 MB
  
• Cortical-Neurovascular-Coupling-Driven-by-Stimulation-of-Channelrhodopsin-2-pone.0046607.s001.ogv 35 s, 500×670; 5,11 MB
  
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  Decaying Sine Unit (DSU).png 3.000×2.000; 420 kB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s019.ogv 2,7 s, 880×880; 895 kB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s020.ogv 2,7 s, 900×900; 1,87 MB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s021.ogv 6,4 s, 1.220×1.020; 2,13 MB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s022.ogv 6,4 s, 1.280×1.080; 5,76 MB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s023.ogv 6,4 s, 1.220×1.020; 2,16 MB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s024.ogv 6,4 s, 1.220×1.020; 1,16 MB
  
• Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s025.ogv 6,4 s, 1.280×1.080; 11,76 MB
  
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  Default-network-graph-maturation.jpeg 3.006×2.827; 588 kB
  
• Dendritic-Slow-Dynamics-Enables-Localized-Cortical-Activity-to-Switch-between-Mobile-and-Immobile-pone.0024007.s005.ogv 30 s, 480×480; 1,61 MB
  
• Dendritic-Slow-Dynamics-Enables-Localized-Cortical-Activity-to-Switch-between-Mobile-and-Immobile-pone.0024007.s006.ogv 40 s, 480×480; 2,54 MB
  
• Dendritic-Slow-Dynamics-Enables-Localized-Cortical-Activity-to-Switch-between-Mobile-and-Immobile-pone.0024007.s007.ogv 40 s, 480×480; 2,69 MB
  
• Developmental-Self-Construction-and--Configuration-of-Functional-Neocortical-Neuronal-Networks-pcbi.1003994.s004.ogv 51 s, 768×576; 5,71 MB
  
• Developmental-Self-Construction-and--Configuration-of-Functional-Neocortical-Neuronal-Networks-pcbi.1003994.s005.ogv 21 s, 1.280×720; 4,64 MB
  
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  Diagram of the Microanatomy of Human Cerebellar Cortex-es.svg 512×497; 18 kB
  
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  Diagram of the Microanatomy of Human Cerebellar Cortex.svg 512×497; 12 kB
  
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  Diagrama Flujo red ART.png 490×620; 5 kB
  
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  DiagramElmanNet deutsch.png 2.051×736; 58 kB
  
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  DiagramElmanNet english.png 2.017×739; 52 kB
  
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  DiagramElmanNet.png 1.463×739; 28 kB
  
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  DiagramTDNN.png 956×2.383; 88 kB
  
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  Dibujo2.jpg 640×400; 13 kB
  
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  Dictionnaire Sparse Coding.png 2.400×1.800; 248 kB
  
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  Domino Analogy.jpg 2.479×1.379; 3,69 MB
  
• Dynamic-Excitatory-and-Inhibitory-Gain-Modulation-Can-Produce-Flexible-Robust-and-Optimal-Decision-pcbi.1003099.s007.ogv 5,0 s, 560×420; 108 kB
  
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  DZOpQ44X4AM8m t.jpg 2.048×1.152; 167 kB
  
• Electrical-Responses-and-Spontaneous-Activity-of-Human-iPS-Derived-Neuronal-Networks-Characterized-Video1.ogv 28 s, 1.440×1.080; 5,79 MB
  
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  Elementary perceptron.jpg 2.126×1.024; 181 kB
  
• Emergence-of-Assortative-Mixing-between-Clusters-of-Cultured-Neurons-pcbi.1003796.s007.ogv 20 s, 342×312; 16,33 MB
  
• Equal-Graph-Partitioning-on-Estimated-Infection-Network-as-an-Effective-Epidemic-Mitigation-Measure-pone.0022124.s001.ogv 35 s, 1.140×1.230; 1,57 MB
  
• Equal-Graph-Partitioning-on-Estimated-Infection-Network-as-an-Effective-Epidemic-Mitigation-Measure-pone.0022124.s002.ogv 32 s, 1.140×1.230; 1,34 MB
  
• Equal-Graph-Partitioning-on-Estimated-Infection-Network-as-an-Effective-Epidemic-Mitigation-Measure-pone.0022124.s003.ogv 29 s, 1.140×1.230; 1 MB
  
• Equal-Graph-Partitioning-on-Estimated-Infection-Network-as-an-Effective-Epidemic-Mitigation-Measure-pone.0022124.s004.ogv 14 s, 1.140×1.230; 592 kB
  
• Equal-Graph-Partitioning-on-Estimated-Infection-Network-as-an-Effective-Epidemic-Mitigation-Measure-pone.0022124.s005.ogv 42 s, 1.140×1.230; 1,22 MB
  
• Equal-Graph-Partitioning-on-Estimated-Infection-Network-as-an-Effective-Epidemic-Mitigation-Measure-pone.0022124.s006.ogv 27 s, 1.140×1.230; 871 kB
  
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  Evil Shōki NN.svg 4.260×2.472; 3,16 MB
  
• Exploring-the-Morphospace-of-Communication-Efficiency-in-Complex-Networks-pone.0058070.s007.ogv 41 s, 1.600×1.200; 6,15 MB
  
• Exploring-the-Morphospace-of-Communication-Efficiency-in-Complex-Networks-pone.0058070.s008.ogv 42 s, 1.600×1.200; 4,49 MB
  
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  ExtendedCorrelationFunction.jpg 2.960×2.416; 300 kB
  
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  Fcell-10-1071961-g001.jpg 920×540; 141 kB
  
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  Feedforward-vs-feedback-driven-eye-movements.svg 661×248; 25 kB
  
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  Figura6.Marcha.jpg 1.313×721; 107 kB
  
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  Fitting a straight line to a data with outliers.png 1.011×610; 48 kB
  
• Five scenarios of evolution from chaos to stagnation depending on selfishness level.ogv 2 min 5 s, 1.564×880; 89,78 MB
  
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  Fphy-08-525731.pdf 1.239 × 1.622, 8 trang; 2,64 MB
  
• From-Spontaneous-Motor-Activity-to-Coordinated-Behaviour-A-Developmental-Model-pcbi.1003653.s006.ogv 1 min 31 s, 853×480; 1,8 MB
  
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  Fully connected architecture.pdf 2.310×3.247; 81 kB
  
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  Functional Brain Networks Develop from a “Local to Distributed” Organization.gif 545×410; 2,41 MB
  
• Functional-Brain-Networks-Develop-from-a-“Local-to-Distributed”-Organization-pcbi.1000381.s009.ogv 49 s, 1.024×768; 18,46 MB
  
• Gia Dvali.webm 12 min 27 s, 640×360; 33,52 MB
  
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  Global Brain - centralized information processing.gif 400×300; 17 kB
  
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  Global Brain - columns and layes in neural structure.gif 749×818; 35 kB
  
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  Global Brain - exformation as invisible output.gif 735×558; 17 kB
  
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  Global Brain - human neurons forming communication patterns.gif 150×450; 5 kB
  
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  Global Brain - neural company (neuro-bionics).png 996×1.130; 374 kB
  
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  Global Brain - single neuron represents activity pattern.gif 450×450; 154 kB
  
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  Global Brain - supranational communication patterns.gif 400×300; 29 kB
  
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  Global Brain - task-specific communication patterns in a neural company.gif 460×559; 209 kB
  
• Glutamatergic-Neurotransmission-from-Melanopsin-Retinal-Ganglion-Cells-Is-Required-for-Neonatal-pone.0083974.s001.ogv 3 min 0 s, 640×480; 4,08 MB
  
• Glutamatergic-Neurotransmission-from-Melanopsin-Retinal-Ganglion-Cells-Is-Required-for-Neonatal-pone.0083974.s002.ogv 3 min 0 s, 640×480; 3,98 MB
  
• Glutamatergic-Neurotransmission-from-Melanopsin-Retinal-Ganglion-Cells-Is-Required-for-Neonatal-pone.0083974.s003.ogv 3 min 1 s, 720×480; 10,32 MB
  
• Glutamatergic-Neurotransmission-from-Melanopsin-Retinal-Ganglion-Cells-Is-Required-for-Neonatal-pone.0083974.s004.ogv 3 min 1 s, 720×480; 9,35 MB
  
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  Growing Cosine Unit (GCU) activation function.png 3.000×2.186; 273 kB
  
• Growth-Dynamics-Explain-the-Development-of-Spatiotemporal-Burst-Activity-of-Young-Cultured-Neuronal-pone.0043352.s003.ogv 35 s, 696×600; 13,49 MB
  
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  GWNN and GWR prediction differences.jpg 1.200×1.179; 110 kB
  
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  Hidden space linear classifier on Gaussian data.png 500×350; 7 kB
  
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  Hindmarsh-Rose membrane potential.png 1.032×593; 7 kB
  
• Hippocampal-Representation-of-Touch-Guided-Behavior-in-Rats-Persistent-and-Independent-Traces-of-pone.0016462.s002.ogv 10 s, 512×512; 638 kB
  
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  Hypothesized Propagation of Activity in Human Neocortex.jpeg 611×538; 26 kB
  
• Imaging-activity-in-astrocytes-and-neurons-with-genetically-encoded-calcium-indicators-following-in-Video1.ogv 12 s, 359×310; 727 kB
  
• Imaging-activity-in-astrocytes-and-neurons-with-genetically-encoded-calcium-indicators-following-in-Video2.ogv 13 s, 294×294; 331 kB
  
• Imaging-activity-in-astrocytes-and-neurons-with-genetically-encoded-calcium-indicators-following-in-Video3.ogv 9,1 s, 300×300; 371 kB
  
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• In-Vivo-Transplantation-of-Enteric-Neural-Crest-Cells-into-Mouse-Gut-Engraftment-Functional-pone.0147989.s004.ogv 5,0 s, 1.980×560; 6,66 MB
  
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  Isometric view of Tobermory Phase I.png 1.557×908; 644 kB
  
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  Izhikevich - High Resolution (360).gif 763×687; 17,17 MB
  
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  Izhikevich - Low Resolution.gif 555×500; 22 MB
  
• Learning-indoor-robot-navigation-using-visual-and-sensorimotor-map-information-Movie1.ogv 36 s, 400×300; 9,68 MB
  
• Learning-indoor-robot-navigation-using-visual-and-sensorimotor-map-information-Movie2.ogv 3 min 15 s, 1.072×608; 28,83 MB
  
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  Leg Neural Network.jpg 837×556; 39 kB
  
• Long-term-Relationships-between-Cholinergic-Tone-Synchronous-Bursting-and-Synaptic-Remodeling-pone.0040980.s002.ogv 5,0 s, 640×480; 2,35 MB
  
• Long-term-Relationships-between-Cholinergic-Tone-Synchronous-Bursting-and-Synaptic-Remodeling-pone.0040980.s003.ogv 5,0 s, 640×480; 3,14 MB
  
• Long-Term-Relationships-between-Synaptic-Tenacity-Synaptic-Remodeling-and-Network-Activity-pbio.1000136.s008.ogv 34 s, 544×436; 20,17 MB
  
• Long-Term-Relationships-between-Synaptic-Tenacity-Synaptic-Remodeling-and-Network-Activity-pbio.1000136.s009.ogv 7,4 s, 304×296; 1,51 MB
  
• Long-Term-Relationships-between-Synaptic-Tenacity-Synaptic-Remodeling-and-Network-Activity-pbio.1000136.s010.ogv 7,4 s, 304×296; 1,51 MB
  
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  LSTM Cell.svg 512×350; 20 kB
  
• Machine-Learning-of-Hierarchical-Clustering-to-Segment-2D-and-3D-Images-pone.0071715.s004.ogv 55 s, 972×321; 4,27 MB
  
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• Monoaminergic-Orchestration-of-Motor-Programs-in-a-Complex-C.-elegans-Behavior-pbio.1001529.s007.ogv 38 s, 640×480; 1,03 MB
  
• Monoaminergic-Orchestration-of-Motor-Programs-in-a-Complex-C.-elegans-Behavior-pbio.1001529.s008.ogv 24 s, 640×480; 1,59 MB
  
• Monoaminergic-Orchestration-of-Motor-Programs-in-a-Complex-C.-elegans-Behavior-pbio.1001529.s009.ogv 14 s, 640×480; 885 kB
  
• Monoaminergic-Orchestration-of-Motor-Programs-in-a-Complex-C.-elegans-Behavior-pbio.1001529.s010.ogv 9,5 s, 640×480; 1,62 MB
  
• Monoaminergic-Orchestration-of-Motor-Programs-in-a-Complex-C.-elegans-Behavior-pbio.1001529.s011.ogv 8,4 s, 640×480; 1,3 MB
  
• Motor-Recovery-and-Synaptic-Preservation-after-Ventral-Root-Avulsion-and-Repair-with-a-Fibrin-pone.0063260.s002.ogv 26 s, 426×240; 1,27 MB
  
• Motor-Recovery-and-Synaptic-Preservation-after-Ventral-Root-Avulsion-and-Repair-with-a-Fibrin-pone.0063260.s003.ogv 7,7 s, 322×101; 321 kB
  
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  Moving From unknown to known feature spaces based on TS-ELM with random kernels and connections.tif 1.670×1.464; 7,02 MB
  
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  Multi-Label Wireless Interference Identification with Convolutional Neural Networks.pdf 1.275 × 1.650, 6 trang; 346 kB
  
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  Mycrossdatabase.jpg 850×1.170; 244 kB
  
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  Nerve-cell-neuron-brain-neurons.png 2.400×3.904; 1,36 MB
  
• Network-analysis-of-time-lapse-microscopy-recordings-Video1.ogv 1 min 15 s, 1.920×1.080; 25,22 MB
  
• Network-analysis-of-time-lapse-microscopy-recordings-Video2.ogv 1 min 31 s, 1.920×1.080; 16,22 MB
  
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  Neural detector nossenson 2013.png 3.675×2.034; 364 kB
  
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• NeuroChip-A-Microfluidic-Electrophysiological-Device-for-Genetic-and-Chemical-Biology-Screening-of-pone.0064297.s001.ogv 3 min 0 s, 640×360; 1,36 MB
  
• NeuroChip-A-Microfluidic-Electrophysiological-Device-for-Genetic-and-Chemical-Biology-Screening-of-pone.0064297.s002.ogv 55 s, 640×360; 573 kB
  
• NeuroChip-A-Microfluidic-Electrophysiological-Device-for-Genetic-and-Chemical-Biology-Screening-of-pone.0064297.s003.ogv 1 min 7 s, 936×604; 1,89 MB
  
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• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s001.ogv 28 s, 640×480; 256 kB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s002.ogv 34 s, 640×480; 346 kB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s003.ogv 32 s, 640×480; 162 kB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s004.ogv 12 s, 640×480; 871 kB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s005.ogv 22 s, 640×480; 1,87 MB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s006.ogv 15 s, 640×480; 543 kB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s007.ogv 27 s, 640×480; 7,18 MB
  
• Optical-Dissection-of-Neural-Circuits-Responsible-for-Drosophila-Larval-Locomotion-with-pone.0029019.s008.ogv 15 s, 640×480; 11,46 MB