Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot

The polishing process is the final step in the manufacturing workflow for many parts and tools. While previous tasks have evolved technically, the finishing of freeform surfaces is still effected mostly by hand. Many parts are rejected because no control of the process is possible. The main problems...

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Bibliographic Details
Main Authors: Angel Fernandez, Dieste Jose Antonio, Carlos Javierre, Santolaria Jorge
Format: Article
Language:English
Published: SAGE Publishing 2015-09-01
Series:International Journal of Advanced Robotic Systems
Online Access:https://doi.org/10.5772/61251
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spelling doaj-cf958b81893a473c8dc200d2da847db32020-11-25T03:40:52ZengSAGE PublishingInternational Journal of Advanced Robotic Systems1729-88142015-09-011210.5772/6125110.5772_61251Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a RobotAngel Fernandez0Dieste Jose Antonio1Carlos Javierre2Santolaria Jorge3 Universidad de Zaragoza, Zaragoza, Spain Fundación AITIIP, Zaragoza, Spain Universidad de Zaragoza, Zaragoza, Spain Universidad de Zaragoza, Zaragoza, SpainThe polishing process is the final step in the manufacturing workflow for many parts and tools. While previous tasks have evolved technically, the finishing of freeform surfaces is still effected mostly by hand. Many parts are rejected because no control of the process is possible. The main problems are geometrical shape deviations and no repeatability of the process. A new methodology has been developed for the passes of the abrasive on the polished part. This research focusses on the feasibility of robotic polishing and the development of a new evolution model pertaining to the surface roughness for an abrasive tool mounted on a spherical robot. The polishing principle is mechanic and based on dry friction. The tool is multilayered with a compressive foamed core. The combination of rotational and translational movement requires the creation of a model that can predict the footprint on the polished surface. The mathematical model developed for the evolution model permits for making a prediction of the final surface quality in the function of the programmed polishing parameters. Furthermore, the model described allows for setting up polishing parameters in order to reach a desired final roughness with less than 15% deviation. Repeatability is assured and polishing time is reduced down to 1/5 of manually effected procedures.https://doi.org/10.5772/61251
collection DOAJ
language English
format Article
sources DOAJ
author Angel Fernandez
Dieste Jose Antonio
Carlos Javierre
Santolaria Jorge
spellingShingle Angel Fernandez
Dieste Jose Antonio
Carlos Javierre
Santolaria Jorge
Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot
International Journal of Advanced Robotic Systems
author_facet Angel Fernandez
Dieste Jose Antonio
Carlos Javierre
Santolaria Jorge
author_sort Angel Fernandez
title Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot
title_short Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot
title_full Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot
title_fullStr Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot
title_full_unstemmed Surface Roughness Evolution Model for Finishing Using an Abrasive Tool on a Robot
title_sort surface roughness evolution model for finishing using an abrasive tool on a robot
publisher SAGE Publishing
series International Journal of Advanced Robotic Systems
issn 1729-8814
publishDate 2015-09-01
description The polishing process is the final step in the manufacturing workflow for many parts and tools. While previous tasks have evolved technically, the finishing of freeform surfaces is still effected mostly by hand. Many parts are rejected because no control of the process is possible. The main problems are geometrical shape deviations and no repeatability of the process. A new methodology has been developed for the passes of the abrasive on the polished part. This research focusses on the feasibility of robotic polishing and the development of a new evolution model pertaining to the surface roughness for an abrasive tool mounted on a spherical robot. The polishing principle is mechanic and based on dry friction. The tool is multilayered with a compressive foamed core. The combination of rotational and translational movement requires the creation of a model that can predict the footprint on the polished surface. The mathematical model developed for the evolution model permits for making a prediction of the final surface quality in the function of the programmed polishing parameters. Furthermore, the model described allows for setting up polishing parameters in order to reach a desired final roughness with less than 15% deviation. Repeatability is assured and polishing time is reduced down to 1/5 of manually effected procedures.
url https://doi.org/10.5772/61251
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