Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains

This thesis presents the development of a novel two-wheeled robotic vehicle with a movable payload and able to manoeuvre in different environments and terrains. The vehicle structure is based on the double inverted pendulum on cart mechanism. The system has five degrees of freedom that allow the veh...

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Main Author: Almeshal, Abdullah
Other Authors: Tokhi, M. O.
Published: University of Sheffield 2013
Subjects:
Online Access:http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.589254
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spelling ndltd-bl.uk-oai-ethos.bl.uk-5892542017-10-04T03:25:01ZDevelopment and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrainsAlmeshal, AbdullahTokhi, M. O.2013This thesis presents the development of a novel two-wheeled robotic vehicle with a movable payload and able to manoeuvre in different environments and terrains. The vehicle structure is based on the double inverted pendulum on cart mechanism. The system has five degrees of freedom that allow the vehicle to serve as a basis for new mobility solution applications. In this study, the vehicle model is derived mathematically using the Euler-Lagrange approach to describe the system dynamics. A hybrid fuzzy logic control approach is designed to stabilise and drive the vehicle on different terrains with different inclination angles. The Matlab Simulink environment is used to simulate the vehicle system. A hybrid spiral dynamic bacteria chemotaxis optimisation algorithm is used to optimise the control parameters to achieve the least mean square error of system response and to reduce the amount of exerted control effort. Various simulation scenarios are considered to demonstrate the vehicle’s ability to work on smooth and frictional surfaces. Disturbances are applied to the vehicle to evaluate the performance of the developed control system in coping with disturbances of variable amplitudes and durations. It is shown that the vehicle exhibits a stable response and a high degree of control robustness. A steering mechanism is implemented to drive the vehicle in different environments and terrains encountered in real life. Environment modelling has been incorporated into the vehicle system to simulate various ground types and levels of frictional forces. It is demonstrated that the vehicle is able to successfully manoeuvre in indoor and outdoor environments and on flat and sloped surfaces fulfilling the aims and objectives of the research.629.8University of Sheffieldhttp://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.589254http://etheses.whiterose.ac.uk/4885/Electronic Thesis or Dissertation
collection NDLTD
sources NDLTD
topic 629.8
spellingShingle 629.8
Almeshal, Abdullah
Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
description This thesis presents the development of a novel two-wheeled robotic vehicle with a movable payload and able to manoeuvre in different environments and terrains. The vehicle structure is based on the double inverted pendulum on cart mechanism. The system has five degrees of freedom that allow the vehicle to serve as a basis for new mobility solution applications. In this study, the vehicle model is derived mathematically using the Euler-Lagrange approach to describe the system dynamics. A hybrid fuzzy logic control approach is designed to stabilise and drive the vehicle on different terrains with different inclination angles. The Matlab Simulink environment is used to simulate the vehicle system. A hybrid spiral dynamic bacteria chemotaxis optimisation algorithm is used to optimise the control parameters to achieve the least mean square error of system response and to reduce the amount of exerted control effort. Various simulation scenarios are considered to demonstrate the vehicle’s ability to work on smooth and frictional surfaces. Disturbances are applied to the vehicle to evaluate the performance of the developed control system in coping with disturbances of variable amplitudes and durations. It is shown that the vehicle exhibits a stable response and a high degree of control robustness. A steering mechanism is implemented to drive the vehicle in different environments and terrains encountered in real life. Environment modelling has been incorporated into the vehicle system to simulate various ground types and levels of frictional forces. It is demonstrated that the vehicle is able to successfully manoeuvre in indoor and outdoor environments and on flat and sloped surfaces fulfilling the aims and objectives of the research.
author2 Tokhi, M. O.
author_facet Tokhi, M. O.
Almeshal, Abdullah
author Almeshal, Abdullah
author_sort Almeshal, Abdullah
title Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
title_short Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
title_full Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
title_fullStr Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
title_full_unstemmed Development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
title_sort development and control of a novel-structure two-wheeled robotic vehicle manoeuvrable in different terrains
publisher University of Sheffield
publishDate 2013
url http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.589254
work_keys_str_mv AT almeshalabdullah developmentandcontrolofanovelstructuretwowheeledroboticvehiclemanoeuvrableindifferentterrains
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