Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Robotic hand design with linear actuators based on Toronto development

View through CrossRef
In this work, the design of a robotic hand with 7 degrees of freedom is presented that allows greater flexibility, achieving the usual actions performed by a normal hand. The work consists of a prototype designed with linear actuators and myoelectric sensor, following the mechanism of the University of Toronto for the management of functional phalanges. The design, construction description, components and recommendations for the elaboration of a flexible and useful robotic hand for amputee patients with a residual limb for the socket are presented. Keywords: Robotic hand, Degree of freedom, Toronto´s Mechanism, lineal actuator. References [1]W. Diane, J. Braza and M. Yacub, Essentials of Physical Medicine and Rehabilitation, 4th ed. Philadelphia: Walter R. Frontera and Julie K. Silver and Thomas D. Rizzo, 2020, pp. 651 - 657. [2]A. Heerschop, C. Van Der Sluis, E. Otten, & R.M. Bongers, Looking beyond proportional control: The relevance of mode switching in learning to operate multi-articulating myoelectric upper-limb prostheses, . Biomedical Signal Processing and Control, 2020, doi:10.1016/j.bspc.2019.101647. [3]L. Heisnam, B. Suthar, 20 DOF robotic hand for tele-operation: — Design, simulation, control and accuracy test with leap motion. 2016 International Conference on Robotics and Automation for Humanitarian Applications (RAHA), 2016, doi:10.1109/raha.2016.7931886. [4]Y. Mishima, R. Ozawa, Design of a robotic finger using series gear chain mechanisms. 2014 IEEE/RSJ International Conference on Intelligent Robots and Systems, 2014, doi:10.1109/iros.2014.6942961. [5]N. Dechev, W. Cleghorn, S. Naumann, Multi-segmented finger design of an experimental prosthetic hand,Proceedings of the Sixth National Applied Mechanisms & Robotics Conference, december 1999. [6]O. Flor, “Building a mobile robot,” Education for the future. Accessed on: December 29, 2019. [Online] Available: https://omarflor2014.wixsite.com/misitio. [7]Vargas, O., Flor,O., Suarez, F., Design of a robotic prototype of the hand and right forearm for prostheses, Universidad, Ciencia y Tecnología, 2019. [8]O. Vargas, O. Flor, F. Suarez, C. Chimbo, Construction and functional tests of a robotic prototype for human prostheses, Revista espirales, 2020. [9]P. PonPriya, E. Priya, Design and control of prosthetic hand using myoelectric signal. International Conference on Computing and Communications Technologies (ICCCT), 2017, doi:10.1109/iccct2.2017.7972314. [10]N. Bajaj, A. Spiers, A. Dollar, State of the Art in Artificial Wrists: A Review of Prosthetic and Robotic Wrist Design. IEEE Transactions on Robotics, 2019, doi:10.1109/tro.2018.2865890.
Title: Robotic hand design with linear actuators based on Toronto development
Description:
In this work, the design of a robotic hand with 7 degrees of freedom is presented that allows greater flexibility, achieving the usual actions performed by a normal hand.
The work consists of a prototype designed with linear actuators and myoelectric sensor, following the mechanism of the University of Toronto for the management of functional phalanges.
The design, construction description, components and recommendations for the elaboration of a flexible and useful robotic hand for amputee patients with a residual limb for the socket are presented.
Keywords: Robotic hand, Degree of freedom, Toronto´s Mechanism, lineal actuator.
References [1]W.
Diane, J.
Braza and M.
Yacub, Essentials of Physical Medicine and Rehabilitation, 4th ed.
Philadelphia: Walter R.
Frontera and Julie K.
Silver and Thomas D.
Rizzo, 2020, pp.
651 - 657.
[2]A.
Heerschop, C.
Van Der Sluis, E.
Otten, & R.
M.
Bongers, Looking beyond proportional control: The relevance of mode switching in learning to operate multi-articulating myoelectric upper-limb prostheses, .
Biomedical Signal Processing and Control, 2020, doi:10.
1016/j.
bspc.
2019.
101647.
[3]L.
Heisnam, B.
Suthar, 20 DOF robotic hand for tele-operation: — Design, simulation, control and accuracy test with leap motion.
2016 International Conference on Robotics and Automation for Humanitarian Applications (RAHA), 2016, doi:10.
1109/raha.
2016.
7931886.
[4]Y.
Mishima, R.
Ozawa, Design of a robotic finger using series gear chain mechanisms.
2014 IEEE/RSJ International Conference on Intelligent Robots and Systems, 2014, doi:10.
1109/iros.
2014.
6942961.
[5]N.
Dechev, W.
Cleghorn, S.
Naumann, Multi-segmented finger design of an experimental prosthetic hand,Proceedings of the Sixth National Applied Mechanisms & Robotics Conference, december 1999.
[6]O.
Flor, “Building a mobile robot,” Education for the future.
Accessed on: December 29, 2019.
[Online] Available: https://omarflor2014.
wixsite.
com/misitio.
[7]Vargas, O.
, Flor,O.
, Suarez, F.
, Design of a robotic prototype of the hand and right forearm for prostheses, Universidad, Ciencia y Tecnología, 2019.
[8]O.
Vargas, O.
Flor, F.
Suarez, C.
Chimbo, Construction and functional tests of a robotic prototype for human prostheses, Revista espirales, 2020.
[9]P.
PonPriya, E.
Priya, Design and control of prosthetic hand using myoelectric signal.
International Conference on Computing and Communications Technologies (ICCCT), 2017, doi:10.
1109/iccct2.
2017.
7972314.
[10]N.
Bajaj, A.
Spiers, A.
Dollar, State of the Art in Artificial Wrists: A Review of Prosthetic and Robotic Wrist Design.
IEEE Transactions on Robotics, 2019, doi:10.
1109/tro.
2018.
2865890.

Related Results

Nonlinear optimal control for robotic exoskeletons with electropneumatic actuators
Nonlinear optimal control for robotic exoskeletons with electropneumatic actuators
Purpose To provide high torques needed to move a robot’s links, electric actuators are followed by a transmission system with a high transmission rate. For instance, gear ratios of...
Evaluating the Cost for Robotic vs “Non-Robotic” Transhiatal Esophagectomy
Evaluating the Cost for Robotic vs “Non-Robotic” Transhiatal Esophagectomy
Introduction This study was undertaken to analyze and compare the cost of robotic transhiatal esophagectomy (THE) to “non-robotic” THE (ie, “open” and laparosco...
Development of Light Weight, Low Cost Pleated Soft Actuators
Development of Light Weight, Low Cost Pleated Soft Actuators
Abstract Soft pneumatic actuators are a useful type of actuator for compliant structures, including inflatable robots, morphing wings, and assistive devices for astr...
Design
Design
Conventional definitions of design rarely capture its reach into our everyday lives. The Design Council, for example, estimates that more than 2.5 million people use design-related...
Biologically inspired swimming robotic frog based on pneumatic soft actuators
Biologically inspired swimming robotic frog based on pneumatic soft actuators
Abstract Research on soft robots and swimming robots has been widely reported and demonstrated. However, none of these soft swimming robots c...
Recent Patents on Artificial Muscle Actuators
Recent Patents on Artificial Muscle Actuators
Background: With the development of automation technology, various actuators are widely used in fields such as robotics and biomedical equipment. However, traditional mechanical ac...
217 Early Experience With Robotic Microvascular Anastomoses
217 Early Experience With Robotic Microvascular Anastomoses
INTRODUCTION: Robotics are becoming increasingly widespread within various neurosurgical subspecialties. The adoption of robotic technology within vascular neur...

Back to Top