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Climbing ring robot for inspection of offshore wind turbines

机译:用于海上风机检查的爬环机器人

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摘要

Purpose - Structural integrity inspection of offshore wind turbine blades poses problems of gaining access to the blades, danger to human operatives and large costs of removing a blade and transporting it off-shore for inspection. The purpose of this paper is to show that a climbing robot that can perform in situ blade inspection with microano focus computed axial X-ray tomography is a solution to find defects in the thickest blade sections and reduce the cost of inspection. Design/methodology/approach - The weight of such an inspection system will be high, typically 200 kg and cross sectional scanner dimensions of 1 × 2m to envelope a blade. The design of a climbing ring robot that completely encircles a turbine tower, typically 3m in diameter, will provide the best means of climbing with this payload. Because of the development costs of such a huge robot, the optimal design path is to first prototype a small scale model. Findings - First results on such a model are described and from its performance the load carrying capabilities of a full scale version computed. The robot is able to climb either straight up or down, or with a spiralling motion, or rotate around the circumference at the same height. Furthermore, the design is entirely modular thus enabling easy on-site assembly of the robot. Originality/value - A climbing robot with high payload and versatile motion capability, with adhesive forces between the robot and climbing surface provided entirely by mechanical means rather than by vacuum suction or magnetic force, making the system much safer and easier to manipulate.
机译:目的-对海上风力涡轮机叶片进行结构完整性检查会带来接触叶片的问题,对操作人员造成危险以及拆卸叶片并将其运输到岸外进行检查的巨大成本。本文的目的是表明可以通过微型/纳米焦点计算机轴向X射线断层扫描进行原位叶片检查的攀爬机器人是一种在最厚的叶片部分发现缺陷并降低检查成本的解决方案。设计/方法/方法-这种检查系统的重量很高,通常为200千克,扫描仪的横截面尺寸为1×2m,以包裹刀片。完全环绕通常直径为3m的涡轮机塔架的爬环机器人的设计将提供利用这种有效载荷进行爬升的最佳方法。由于这种大型机器人的开发成本,最佳的设计路径是首先制作小规模模型的原型。发现-描述了此类模型的初步结果,并根据其性能计算了满量程版本的承载能力。机器人可以垂直向上或向下或以螺旋运动的方式爬升,或绕圆周以相同的高度旋转。此外,该设计是完全模块化的,因此可以方便地在现场组装机器人。原创性/价值-具有高负载能力和多功能运动能力的攀爬机器人,其与攀爬表面之间的粘附力完全由机械手段提供,而不是由真空吸力或磁力提供,因此该系统更加安全且易于操作。

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