File:A-Novel-Robot-System-Integrating-Biological-and-Mechanical-Intelligence-Based-on-Dissociated-Neural-pone.0165600.s001.ogv
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DescriptionA-Novel-Robot-System-Integrating-Biological-and-Mechanical-Intelligence-Based-on-Dissociated-Neural-pone.0165600.s001.ogv |
English: Video of improvement process in the robot’s performance. This video of a differential robot run is running at 3 × real speed. The yellow papers in the middle of the arena are acted as the objects. In the no training phase, the robot controlled by the dissociated neural network makes no correct turn. The increase of correct turn occurs when the high frequency stimuli are added into the dissociated neural network. But there are still some mistakes existing in the first 10 minutes training phase. Further increase of correct turn is observed in the second 10 minutes training phase, which makes the robot closer to the objects as the experiment goes on. All of the improvement in the robot’s performance is independently caused by the plasticity of the dissociated neural network as demonstrated in the Fig 14. |
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Source | S1 Video from Li Y, Sun R, Wang Y, Li H, Zheng X (2016). "A Novel Robot System Integrating Biological and Mechanical Intelligence Based on Dissociated Neural Network-Controlled Closed-Loop Environment". PLOS ONE. DOI:10.1371/journal.pone.0165600. PMID 27806074. PMC: 5091833. | ||
Author | Li Y, Sun R, Wang Y, Li H, Zheng X | ||
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This file is licensed under the Creative Commons Attribution 4.0 International license.
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current | 08:19, 31 January 2017 | 2 min 5 s, 856 × 480 (10.76 MB) | Open Access Media Importer Bot (talk | contribs) | Automatically uploaded media file from Open Access source. Please report problems or suggestions here. |
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Short title | Video of improvement process in the robot’s performance. |
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Author | Li Y, Sun R, Wang Y, Li H, Zheng X |
Usage terms | http://creativecommons.org/licenses/by/4.0/ |
Image title | This video of a differential robot run is running at 3 × real speed. The yellow papers in the middle of the arena are acted as the objects. In the no training phase, the robot controlled by the dissociated neural network makes no correct turn. The increase of correct turn occurs when the high frequency stimuli are added into the dissociated neural network. But there are still some mistakes existing in the first 10 minutes training phase. Further increase of correct turn is observed in the second 10 minutes training phase, which makes the robot closer to the objects as the experiment goes on. All of the improvement in the robot’s performance is independently caused by the plasticity of the dissociated neural network as demonstrated in the Fig 14. |
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Date and time of digitizing | 2016 |