Force transmission analysis of surface coating materials for multi-fingered robotic grippers

Robotic systems are generally used for grasping, carrying, holding, and many similar operations, typically in industrial applications. One of the most important components of robotic systems is robot grippers for the aforementioned operations, which are not only mission-critical but also represent a...

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Main Author: Gökhan Erdemir
Format: Article
Language:English
Published: PeerJ Inc. 2021-03-01
Series:PeerJ Computer Science
Subjects:
Online Access:https://peerj.com/articles/cs-401.pdf
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spelling doaj-cd02072754f34b2ca260a582b6a0c4a22021-03-20T15:05:07ZengPeerJ Inc.PeerJ Computer Science2376-59922021-03-017e40110.7717/peerj-cs.401Force transmission analysis of surface coating materials for multi-fingered robotic grippersGökhan ErdemirRobotic systems are generally used for grasping, carrying, holding, and many similar operations, typically in industrial applications. One of the most important components of robotic systems is robot grippers for the aforementioned operations, which are not only mission-critical but also represent a significant operational cost due to the time and expense associated with replacement. Grasping operations require sensitive and dexterous manipulation ability. As a consequence, tactile materials and sensors are an essential element in effective robot grippers; however, to date, little effort has been invested in the optimization of these systems. This study has set out to develop inexpensive, easily replaced pads, testing two different chemical compositions that are used to produce a tactile material for robot grippers, with the objective of generating cost, time, and environmental savings. Each tactile material produced has its specific individual dimension and weight. First, each of the materials under construction was tested under different constant pressures, and its characteristics were analyzed. Second, each tactile material was mounted on a two-fingered robot gripper and its characteristics. Material characteristics were tested and analyzed as regards their ability to grasp different sizes and types of objects using the two-fingered robot gripper. Based on the analysis of the results the most sensitive and cost-effective material for industrial type multi-fingered grippers was identified.https://peerj.com/articles/cs-401.pdfGraspForce transmissionMaterial characteristicsRobot gripperRobot finger coating
collection DOAJ
language English
format Article
sources DOAJ
author Gökhan Erdemir
spellingShingle Gökhan Erdemir
Force transmission analysis of surface coating materials for multi-fingered robotic grippers
PeerJ Computer Science
Grasp
Force transmission
Material characteristics
Robot gripper
Robot finger coating
author_facet Gökhan Erdemir
author_sort Gökhan Erdemir
title Force transmission analysis of surface coating materials for multi-fingered robotic grippers
title_short Force transmission analysis of surface coating materials for multi-fingered robotic grippers
title_full Force transmission analysis of surface coating materials for multi-fingered robotic grippers
title_fullStr Force transmission analysis of surface coating materials for multi-fingered robotic grippers
title_full_unstemmed Force transmission analysis of surface coating materials for multi-fingered robotic grippers
title_sort force transmission analysis of surface coating materials for multi-fingered robotic grippers
publisher PeerJ Inc.
series PeerJ Computer Science
issn 2376-5992
publishDate 2021-03-01
description Robotic systems are generally used for grasping, carrying, holding, and many similar operations, typically in industrial applications. One of the most important components of robotic systems is robot grippers for the aforementioned operations, which are not only mission-critical but also represent a significant operational cost due to the time and expense associated with replacement. Grasping operations require sensitive and dexterous manipulation ability. As a consequence, tactile materials and sensors are an essential element in effective robot grippers; however, to date, little effort has been invested in the optimization of these systems. This study has set out to develop inexpensive, easily replaced pads, testing two different chemical compositions that are used to produce a tactile material for robot grippers, with the objective of generating cost, time, and environmental savings. Each tactile material produced has its specific individual dimension and weight. First, each of the materials under construction was tested under different constant pressures, and its characteristics were analyzed. Second, each tactile material was mounted on a two-fingered robot gripper and its characteristics. Material characteristics were tested and analyzed as regards their ability to grasp different sizes and types of objects using the two-fingered robot gripper. Based on the analysis of the results the most sensitive and cost-effective material for industrial type multi-fingered grippers was identified.
topic Grasp
Force transmission
Material characteristics
Robot gripper
Robot finger coating
url https://peerj.com/articles/cs-401.pdf
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