A fractional model of the friction-temperature behavior in robot joints

It is well-known that friction changes with the temperature in robotic joints, and the temperature depends on the action being performed. In this paper we present a fractional model that describes the relationship between power generation/loss and temperature in the joints of industrial robots. The...

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Main Authors: Pagani, R., Padula, Fabrizio, Legnani, G., Loxton, Ryan, Visioli, A.
Format: Conference Paper
Language:English
Published: IEEE 2019
Subjects:
Online Access:http://hdl.handle.net/20.500.11937/89489
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author Pagani, R.
Padula, Fabrizio
Legnani, G.
Loxton, Ryan
Visioli, A.
author_facet Pagani, R.
Padula, Fabrizio
Legnani, G.
Loxton, Ryan
Visioli, A.
author_sort Pagani, R.
building Curtin Institutional Repository
collection Online Access
description It is well-known that friction changes with the temperature in robotic joints, and the temperature depends on the action being performed. In this paper we present a fractional model that describes the relationship between power generation/loss and temperature in the joints of industrial robots. The proposed mathematical model is used to predict friction variation during the robot working cycle without using temperature sensors. Several experimental tests have been performed on a commercial 6 degree-of-freedom anthropomorphic manipulator. Results confirm that the proposed model is able to estimate the behavior of the friction in the joints during robot working cycles. This can be used to compensate for friction, thus improving the control performance, and to predict energy consumption.
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publishDate 2019
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spelling curtin-20.500.11937-894892022-11-08T03:16:18Z A fractional model of the friction-temperature behavior in robot joints Pagani, R. Padula, Fabrizio Legnani, G. Loxton, Ryan Visioli, A. Science & Technology Technology Automation & Control Systems Engineering, Electrical & Electronic Robotics Engineering Fractional friction robotics IDENTIFICATION HYSTERESIS DESIGN LUGRE It is well-known that friction changes with the temperature in robotic joints, and the temperature depends on the action being performed. In this paper we present a fractional model that describes the relationship between power generation/loss and temperature in the joints of industrial robots. The proposed mathematical model is used to predict friction variation during the robot working cycle without using temperature sensors. Several experimental tests have been performed on a commercial 6 degree-of-freedom anthropomorphic manipulator. Results confirm that the proposed model is able to estimate the behavior of the friction in the joints during robot working cycles. This can be used to compensate for friction, thus improving the control performance, and to predict energy consumption. 2019 Conference Paper http://hdl.handle.net/20.500.11937/89489 10.1109/ICCMA46720.2019.8988638 English IEEE restricted
spellingShingle Science & Technology
Technology
Automation & Control Systems
Engineering, Electrical & Electronic
Robotics
Engineering
Fractional
friction
robotics
IDENTIFICATION
HYSTERESIS
DESIGN
LUGRE
Pagani, R.
Padula, Fabrizio
Legnani, G.
Loxton, Ryan
Visioli, A.
A fractional model of the friction-temperature behavior in robot joints
title A fractional model of the friction-temperature behavior in robot joints
title_full A fractional model of the friction-temperature behavior in robot joints
title_fullStr A fractional model of the friction-temperature behavior in robot joints
title_full_unstemmed A fractional model of the friction-temperature behavior in robot joints
title_short A fractional model of the friction-temperature behavior in robot joints
title_sort fractional model of the friction-temperature behavior in robot joints
topic Science & Technology
Technology
Automation & Control Systems
Engineering, Electrical & Electronic
Robotics
Engineering
Fractional
friction
robotics
IDENTIFICATION
HYSTERESIS
DESIGN
LUGRE
url http://hdl.handle.net/20.500.11937/89489