Scholarlink

<p>To enhance space utilization and decrease energy consumption in reconfigurable cable-driven 3D printers, an optimization method was proposed for adjusting the base position and the&#xa0;driving cable tension of the mechanism. Motion/force transmissibility indeces for the reconfigurable cable-driven 3D printer mechanism were derived using screw theory, enabling the&#xa0;analysis of motion/force transmission performance within the mechanism's workspace. Optimization models for the system's base position and driving cable tension were developed based on these indeces. By optimizing the base position, motion/force transmissibility within the working space was enhanced, and the efficiency of driving tension utilization was increased through optimization of the cable tension range. The results of the study demonstrated that optimizing the base position could improve the system's motion/force transmission performance and reduce the overall footprint of the 3D printer system. Additionally, optimizing the driving cable tension could further enhance the&#xa0;driving tension utilization efficiency while maintaining good motion/force transmissibility within the printing space, leading to reduced energy consumption of the system.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Performance Optimization of Motion/Force Transmissibility of Reconfigurable Cable-Driven 3D Printers

  • 期刊论文

  • 发表日期：

    2025年2月15日

查看全文
  • Guigeng Yang,
  • Zechen Gong,
  • Aofei Tang,
  • Bin Zhang,
  • Tian Nan

摘要

To enhance space utilization and decrease energy consumption in reconfigurable cable-driven 3D printers, an optimization method was proposed for adjusting the base position and the driving cable tension of the mechanism. Motion/force transmissibility indeces for the reconfigurable cable-driven 3D printer mechanism were derived using screw theory, enabling the analysis of motion/force transmission performance within the mechanism's workspace. Optimization models for the system's base position and driving cable tension were developed based on these indeces. By optimizing the base position, motion/force transmissibility within the working space was enhanced, and the efficiency of driving tension utilization was increased through optimization of the cable tension range. The results of the study demonstrated that optimizing the base position could improve the system's motion/force transmission performance and reduce the overall footprint of the 3D printer system. Additionally, optimizing the driving cable tension could further enhance the driving tension utilization efficiency while maintaining good motion/force transmissibility within the printing space, leading to reduced energy consumption of the system.