Graphic optimization model of the process of welding products by a robot based on Radishchev blueprint

F. Pritykin, V. Nebritov
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Abstract

This article reviews the example of using a geometric model of a hypersurface in multidimensional space on the Radishchev blueprint, which reflects interconnection between the four variables in solution of one of the tasks associated with structuring the technological process fulfilled by a welding robot. In structuring technological processes related to welding, it is necessary to solve the optimization task of determining the position of the foundation of welding robot relative to the welded brackets and the axis of the container of cylindrical shape. The welding process requires finding the most optimal welding robot, the geometric model of the kinematic chain of which would move the output link and welding head across all sections of welding seams. As an example, the author reviews the case when the robot is outside the cylindrical container, and welding objects inside and outside. For carrying out the optimization task, the author examines the correlation between the parameters that determine the position of the robot relative to the container, and the minimum possible vertical displacement of the center of the output link based on the graphic optimization model.  The multicomponent system comprised of the four parameters is studied based on the Radishchev blueprint. The author drew the combinations of curves that set the framework of curve lines of the dual level of the hypersurface in the four-dimensional space. For determination of the curves, the author found the combinations of projections of the dots on the Radishchev blueprint. The use of dual level lines on the Radishchev blueprint allowed determining most optimal position of the manipulator mechanism with regards to the cylindrical surface in welding the items for various industrial robots described in this article.
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基于Radishchev蓝图的机器人焊接产品工艺图形优化模型
本文回顾了在Radishchev蓝图上使用多维空间超曲面几何模型的示例,该模型反映了与构建焊接机器人所完成的工艺过程相关的任务之一的解决方案中四个变量之间的相互联系。在与焊接相关的结构工艺过程中,需要解决确定焊接机器人基础相对于焊接支架和圆柱形容器轴线的位置的优化任务。焊接过程需要找到最优的焊接机器人,其运动链的几何模型将使输出连杆和焊接头在所有焊缝段上移动。作为实例,作者回顾了机器人在圆柱形容器外,焊接内外物体的情况。为了执行优化任务,作者基于图形优化模型考察了决定机器人相对于容器位置的参数与输出连杆中心的最小可能垂直位移之间的相关性。基于Radishchev蓝图,研究了由四个参数组成的多组分系统。作者在四维空间中绘制了设置超曲面对偶水平曲线框架的曲线组合。为了确定曲线,作者找到了拉迪舍夫蓝图上点的投影组合。在Radishchev蓝图上使用双水平线可以确定机械臂机构在焊接本文中描述的各种工业机器人项目的圆柱形表面上的最佳位置。
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