Bootstrapped Neuro-Simulation for complex robots.

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Bibliographic Details
Title: Bootstrapped Neuro-Simulation for complex robots.
Authors: Woodford, Grant W.1 (AUTHOR) grant.woodford@mandela.ac.za, du Plessis, Mathys C.1 (AUTHOR) mc.duplessis@mandela.ac.za
Source: Robotics & Autonomous Systems. Feb2021, Vol. 136, pN.PAG-N.PAG. 1p.
Subjects: Artificial neural networks, Robots, Machine learning
Abstract: Robotic simulators are often used to speed up the Evolutionary Robotics (ER) process. Most simulation approaches are based on physics modelling. However, physics-based simulators can become complex to develop and require prior knowledge of the robotic system. Robotics simulators can be constructed using Machine Learning techniques, such as Artificial Neural Networks (ANNs). ANN-based simulator development usually requires a lengthy behavioural data collection period before the simulator can be trained and used to evaluate controllers during the ER process. The Bootstrapped Neuro-Simulation (BNS) approach can be used to simultaneously collect behavioural data, train an ANN-based simulator and evolve controllers for a particular robotic problem. This paper investigates proposed improvements to the BNS approach and demonstrates the viability of the approach by optimising gait controllers for a Hexapod and Snake robot platform. • Bootstrapped Neuro-Simulation (BNS) is shown to evolve closed-loop controllers. • Constructs robotic simulators using Artificial Neural Networks and Machine Learning techniques. • Investigates improvements to the BNS approach. • Demonstrates viability of the BNS approach on Hexapod and Snake robot platforms. [ABSTRACT FROM AUTHOR]
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Database: Engineering Source
Description
Abstract:Robotic simulators are often used to speed up the Evolutionary Robotics (ER) process. Most simulation approaches are based on physics modelling. However, physics-based simulators can become complex to develop and require prior knowledge of the robotic system. Robotics simulators can be constructed using Machine Learning techniques, such as Artificial Neural Networks (ANNs). ANN-based simulator development usually requires a lengthy behavioural data collection period before the simulator can be trained and used to evaluate controllers during the ER process. The Bootstrapped Neuro-Simulation (BNS) approach can be used to simultaneously collect behavioural data, train an ANN-based simulator and evolve controllers for a particular robotic problem. This paper investigates proposed improvements to the BNS approach and demonstrates the viability of the approach by optimising gait controllers for a Hexapod and Snake robot platform. • Bootstrapped Neuro-Simulation (BNS) is shown to evolve closed-loop controllers. • Constructs robotic simulators using Artificial Neural Networks and Machine Learning techniques. • Investigates improvements to the BNS approach. • Demonstrates viability of the BNS approach on Hexapod and Snake robot platforms. [ABSTRACT FROM AUTHOR]
ISSN:09218890
DOI:10.1016/j.robot.2020.103708