Design and Modeling of a Six-Bar Mechanism for Repetitive Tasks with Symmetrical End-Effector Motion

This study investigates the dynamics of a novel planar six-bar mechanism with one Degree of Freedom (DoF), incorporating both four-bar and five-bar linkages. Kinematic analysis is performed by setting up closed-loop equations, and the results are validated against SOLIDWORKS software simulations. Additionally, a static stress analysis assesses the structural integrity of the mechanism under operational loads, identifying potential failure points and ensuring design adequacy. Dynamic force analysis is then performed to determine the driving torque of the actuator for the designed amphibious mechanism. These findings highlight the mechanism's potential for precise motion control in compact applications, providing valuable insights into its practical utility in various industrial applications.

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Publication Details

Journal
Engineering Technology & Applied Science Research
Published
2024-10-09
DOI
https://doi.org/10.48084/etasr.8139
Citations
6
Primary Topic
Robotic Mechanisms and Dynamics
Type
article
Field-Weighted Citation Impact
1.97
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article

Design and Modeling of a Six-Bar Mechanism for Repetitive Tasks with Symmetrical End-Effector Motion

Ahmed Saber, Eddie Gazo Hanna, Semaan Amine
6 citations
Engineering Technology & Applied Science Research
Robotic Mechanisms and Dynamics
1.97
article

Design and Modeling of a Six-Bar Mechanism for Repetitive Tasks with Symmetrical End-Effector Motion

Ahmed Saber, Eddie Gazo Hanna, Semaan Amine
article en
6 citations

Abstract

This study investigates the dynamics of a novel planar six-bar mechanism with one Degree of Freedom (DoF), incorporating both four-bar and five-bar linkages. Kinematic analysis is performed by setting up closed-loop equations, and the results are validated against SOLIDWORKS software simulations. Additionally, a static stress analysis assesses the structural integrity of the mechanism under operational loads, identifying potential failure points and ensuring design adequacy. Dynamic force analysis is then performed to determine the driving torque of the actuator for the designed amphibious mechanism. These findings highlight the mechanism's potential for precise motion control in compact applications, providing valuable insights into its practical utility in various industrial applications.

Engineering Technology & Applied Science ResearchVol. 14(5)
American University of the Middle East (KW)
Peace, Justice and strong institutions
Openalex Percentile: Top 13%
Robotic Mechanisms and Dynamics
1.97
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