scholarly journals Trend of the Less Wiring and Wireless Technology in the Industrial Robot System

2015 ◽  
Vol 33 (5) ◽  
pp. 334-337 ◽  
Author(s):  
Ken Onishi
2021 ◽  
Vol 1939 (1) ◽  
pp. 012027
Author(s):  
Jingsen Jin ◽  
Weidong Hao ◽  
Daoguo Yang ◽  
Zhaoquan Tan ◽  
Chuan Zheng

Author(s):  
Anthony Downs ◽  
William Harrison ◽  
Craig Schlenoff

Purpose This paper aims to define and describe test methods and metrics to assess industrial robot system agility in both simulation and in reality. Design/methodology/approach The paper describes test methods and associated quantitative and qualitative metrics for assessing robot system efficiency and effectiveness, which can then be used for the assessment of system agility. Findings The paper describes how the test methods were implemented in a simulation environment and real-world environment. It also shows how the metrics are measured and assessed as they would be in a future competition. Practical implications The test methods described in this paper will push forward the state of the art in software agility for manufacturing robots, allowing small and medium manufacturers to better utilize robotic systems. Originality/value The paper fulfills the identified need for standard test methods to measure and allow for improvement in software agility for manufacturing robots.


Author(s):  
Meng XianHui ◽  
Yuan Chong

This paper introduces the related technology in the design of robot virtual prototype. Research is mainly focused on the virtual prototype of the mechanism design, kinematics simulation, control logic and main problems of prototype performance analysis, and try to use X3D technology to realize virtual prototype model of the robot. It is verifies the effectiveness of X3D technology in robot virtual prototype design. The key to realize the robot mechanism design, kinematics simulation, several aspects such as the logic control. But the design of the robot system is a comprehensive mechanical mechanisms, kinematics, dynamics, graphics, artificial intelligence, concurrent engineering, and simulation project of multiple disciplines such as advanced manufacturing technology. The design of the robot system includes dynamic analysis, static analysis, speed, trajectory control, sensor fusion, artificial intelligence analysis, and other technology. The comprehensive realization of multidisciplinary various restrictive factors is to achieve a feasible, effective and ideal robot virtual prototype model of the key problems. Further use X3D technology to add various related techniques to achieve X3D virtual prototype model, the design of robot system, the development of industrial robot has important practical significance.


Author(s):  
D. J. Jeon ◽  
T. Y. Noh ◽  
C. W. Jung ◽  
Y. S. Lee ◽  
Y. C. Oh

An engine for marine propulsion and power generation consists of several cylinder liner-piston sets. And the oil groove is on the cylinder liner inside wall for the lubrication between piston and cylinder. The grinding processes of oil groove have been carried by manual work so far, because of the diversity of the shape. Recently, we developed an automatic grinding robot system for oil groove grinding of engine cylinder liners. It can cover various types of oil grooves and adjust its position by itself. The grinding robot system consists of a robot, a grinding tool head, sensors, a control system and setting equipment. The robot automatically recognizes the cylinder liner’s inside configuration by using a laser distance sensor and a vision sensor after the cylinder liner is placed on setting equipment. And grinding programs are generated on the basis of measured data. The grinding system of oil groove incorporating an industrial robot was successfully developed and can cover various cylinder types efficiently in this field. The developed system helps to increase productivity of cylinder liner and remove difficult works.


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