{"title":"基于CAD/CAE技术的机器人跨学科建模","authors":"M. V. Chugunov, I. N. Polunina","doi":"10.15507/0236-2910.028.201802.181-190","DOIUrl":null,"url":null,"abstract":"Introduction. The paper describes an interdisciplinary approach that integrates physical and virtual (3D) modelling methods and tools in a high industrial undergraduate engineering school research environment and in an industrial design. The CAD/CAE procedures were connected directly with physical modelling for robotic systems of various types: mobile robots, manipulators etc. Thus, the design problems for the robot are solved in the both environments: physical and virtual. Materials and Methods. The approach includes three separate parts: 1) SolidWorks; 2) Arduino, Fischertechnik and RoboRobo sets; 3) MS Visual Studio C++, COM technology SolidWorks and a POSIEX socket API (Application Program Interface). API and COM are used as the integration tools for physical and virtual parts. Corresponding Add-In or Stand-Alone applications extract the model features used for determining the necessary kinematic and dynamic parameters for robotics control. Robot webcams, sensors and feedback allow to establish a bidirectional connection between the behaviours of the 3D (virtual) and the physical models. Results. The developed virtual (3D), physics models and software for the robots represent the integrated framework used in industrial design and research process. This interdisciplinary approach is realized as project-based learning in the educational and research process and in the industrial design practice. Conclusions. The modern industry design is the interdisciplinary field with high level of integration between the disciplines. This research demonstrated that the developed integrated framework is effective for both industry design practice and engineering research.","PeriodicalId":53930,"journal":{"name":"Mordovia University Bulletin","volume":"75 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2018-06-29","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"3","resultStr":"{\"title\":\"Interdisciplinary Modelling of Robots Using CAD/CAE Technology\",\"authors\":\"M. V. Chugunov, I. N. Polunina\",\"doi\":\"10.15507/0236-2910.028.201802.181-190\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Introduction. The paper describes an interdisciplinary approach that integrates physical and virtual (3D) modelling methods and tools in a high industrial undergraduate engineering school research environment and in an industrial design. The CAD/CAE procedures were connected directly with physical modelling for robotic systems of various types: mobile robots, manipulators etc. Thus, the design problems for the robot are solved in the both environments: physical and virtual. Materials and Methods. The approach includes three separate parts: 1) SolidWorks; 2) Arduino, Fischertechnik and RoboRobo sets; 3) MS Visual Studio C++, COM technology SolidWorks and a POSIEX socket API (Application Program Interface). API and COM are used as the integration tools for physical and virtual parts. Corresponding Add-In or Stand-Alone applications extract the model features used for determining the necessary kinematic and dynamic parameters for robotics control. Robot webcams, sensors and feedback allow to establish a bidirectional connection between the behaviours of the 3D (virtual) and the physical models. Results. The developed virtual (3D), physics models and software for the robots represent the integrated framework used in industrial design and research process. This interdisciplinary approach is realized as project-based learning in the educational and research process and in the industrial design practice. Conclusions. The modern industry design is the interdisciplinary field with high level of integration between the disciplines. 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引用次数: 3
摘要
介绍。本文描述了一种跨学科的方法,将物理和虚拟(3D)建模方法和工具集成到高工业本科工程学院的研究环境和工业设计中。CAD/CAE程序直接连接到各种类型的机器人系统的物理建模:移动机器人,操纵器等。从而解决了机器人在物理和虚拟两种环境下的设计问题。材料与方法。该方法包括三个独立的部分:1)SolidWorks;2) Arduino、Fischertechnik、RoboRobo套装;3) MS Visual Studio c++, COM技术SolidWorks和POSIEX套接字API(应用程序接口)。采用API和COM作为物理部件和虚拟部件的集成工具。相应的插件或独立应用程序提取用于确定机器人控制所需的运动学和动态参数的模型特征。机器人网络摄像头、传感器和反馈允许在3D(虚拟)和物理模型的行为之间建立双向连接。结果。开发的机器人虚拟(3D)、物理模型和软件代表了工业设计和研究过程中使用的集成框架。这种跨学科的方法是在教育和研究过程中以及在工业设计实践中实现的基于项目的学习。结论。现代工业设计是学科间高度融合的跨学科领域。研究表明,所开发的集成框架对工业设计实践和工程研究都是有效的。
Interdisciplinary Modelling of Robots Using CAD/CAE Technology
Introduction. The paper describes an interdisciplinary approach that integrates physical and virtual (3D) modelling methods and tools in a high industrial undergraduate engineering school research environment and in an industrial design. The CAD/CAE procedures were connected directly with physical modelling for robotic systems of various types: mobile robots, manipulators etc. Thus, the design problems for the robot are solved in the both environments: physical and virtual. Materials and Methods. The approach includes three separate parts: 1) SolidWorks; 2) Arduino, Fischertechnik and RoboRobo sets; 3) MS Visual Studio C++, COM technology SolidWorks and a POSIEX socket API (Application Program Interface). API and COM are used as the integration tools for physical and virtual parts. Corresponding Add-In or Stand-Alone applications extract the model features used for determining the necessary kinematic and dynamic parameters for robotics control. Robot webcams, sensors and feedback allow to establish a bidirectional connection between the behaviours of the 3D (virtual) and the physical models. Results. The developed virtual (3D), physics models and software for the robots represent the integrated framework used in industrial design and research process. This interdisciplinary approach is realized as project-based learning in the educational and research process and in the industrial design practice. Conclusions. The modern industry design is the interdisciplinary field with high level of integration between the disciplines. This research demonstrated that the developed integrated framework is effective for both industry design practice and engineering research.