利用机器人辅助成像和基于 CNN 的机器学习实现数控车削加工过程自动化

Chayan Maiti, Deep Patel, Sreekumar Muthuswamy
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摘要

近年来,随着工业物联网(IIoT)和工业 4.0 的出现,工业自动化已发展成为一个重要的垂直领域。如今,智能制造技术已成为跟上全球工业竞争的关键。减少机床停机时间和延长刀具寿命是降低加工成本的关键因素。因此,利用智能自动化系统引入完整的流程自动化可以提高生产流程的吞吐量。为此,可以设计智能制造系统来识别与之交互的材料,并在需要时自主决定采取何种行动。本文旨在介绍一种适用于全自动加工过程的通用方法,以开发智能制造系统。为了实现这一目标,所提出的系统使用基于 CNN 的机器学习算法自动检测和识别工件材料的存在。此外,数控车床的加工刀具路径是根据工件图像自动生成的,用于表面精加工操作。加工过程参数(主轴转速和进给速度)也可自主控制,从而实现全加工过程自动化。实施的系统将认知能力引入加工系统,创建了一个智能制造生态系统。改进后的系统能够识别各种材料,并根据工件类型生成刀具路径。系统的准确性和鲁棒性也通过不同的实验设置得到了验证。实验结果表明,所提出的方法可应用于制造系统,无需进行重大修改。
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Machining Process Automation in CNC Turning using Robot Assisted Imaging and CNN based Machine Learning
With the emergence of the Industrial Internet of Things(IIoT) and Industry 4.0, industrial automation has grown as an important vertical in recent years. Smart manufacturing techniques are now becoming essential to keeping up with the global industrial competition. Decreasing the machine's downtime and increasing tool life are crucial factors in reducing machining process costs. Therefore, introducing complete process automation utilizing an intelligent automation system can enhance the throughput of manufacturing processes. To achieve this, intelligent manufacturing systems can be designed to recognize materials they interact with and autonomously decide what actions to take whenever needed. This paper aims to present a generalized approach for fully automated machining processes to develop an intelligent manufacturing system. As an objective to accomplish this, the presence of workpiece material is automatically detected and identified in the proposed system using a CNN-based machine learning algorithm. Further, the CNC lathe's machining toolpath is automatically generated based on workpiece images for a surface finishing operation. Machining process parameters (spindle speed and feed rate) are also autonomously controlled, thus enabling full machining process automation. The implemented system introduces cognitive abilities into a machining system, creating an intelligent manufacturing ecosystem. The improvised system is capable of identifying various materials and generating toolpaths based on the type of workpieces. The accuracy and robustness of the system are also validated with different experimental setups. The presented results demonstrate that the proposed approach can be applied in manufacturing systems without the need for significant modification.
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