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ODE (Open Dynamics Engine) based stability control algorithm for six legged robot
Legged locomotion systems, especially anthropomorphic mechanisms, can be modeled by using highly complex dynamic structures. In order to model these complex dynamic structures, some assumptions must be made, such as no-friction, rigid links or non-redundancy. However, with the dynamic simulators dev...
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Published in: | Measurement : journal of the International Measurement Confederation 2018-08, Vol.124, p.367-377 |
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container_title | Measurement : journal of the International Measurement Confederation |
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creator | Yıldırım, Şahin Arslan, Erdem |
description | Legged locomotion systems, especially anthropomorphic mechanisms, can be modeled by using highly complex dynamic structures. In order to model these complex dynamic structures, some assumptions must be made, such as no-friction, rigid links or non-redundancy. However, with the dynamic simulators developed in recent years, it has become possible to create dynamic models without making any assumptions. In this study, a posture control algorithm was developed to automatically balance a six-legged mobile robot against external dynamic effects such as incline or contact polygon changes. A model-based control structure is preferred in order to implement the posture control algorithm to the robot control. The reference model used in model-based control was created using the ODE (Open Dynamics Engine) physics simulator. The reference model created on the ODE is always in communication with the IMU (Inertial Measurement Unit) sensor connected to the robot's body. For this reason, all the dynamic effects including externally applied forces to the real robot can be considered in the control process without making any assumptions. Consequently, real-time application results of the six-legged mobile robot on a moving platform are observed and the results have shown better performance as depicted on graphs. |
doi_str_mv | 10.1016/j.measurement.2018.03.057 |
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subjects | Algorithms Automation Computer simulation Control algorithms Control stability Control theory Dynamic models Dynamic stability Dynamical systems Inertial platforms Inertial sensing devices Legged robot Locomotion Model based control Open Dynamics Engine Redundancy Robot control Robot dynamics Robots Simulators Stabilization algorithm Systems stability |
title | ODE (Open Dynamics Engine) based stability control algorithm for six legged robot |
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