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建立增强型飞行吊舱以研究系留昆虫飞行。

Building an Enhanced Flight Mill for the Study of Tethered Insect Flight.

机构信息

Department of Ecology and Evolution, University of Chicago;

出版信息

J Vis Exp. 2021 Mar 10(169). doi: 10.3791/62171.

Abstract

Makerspaces have a high potential of enabling researchers to develop new techniques and to work with novel species in ecological research. This protocol demonstrates how to take advantage of the technology found in makerspaces in order to build a more versatile flight mill for a relatively low cost. Given that this study extracted its prototype from flight mills built in the last decade, this protocol focuses more on outlining divergences made from the simple, modern flight mill. Previous studies have already shown how advantageous flight mills are to measuring flight parameters such as speed, distance, or periodicity. Such mills have allowed researchers to associate these parameters with morphological, physiological, or genetic factors. In addition to these advantages, this study discusses the benefits of using the technology in makerspaces, like 3D printers and laser cutters, in order to build a more flexible, sturdy, and collapsible flight mill design. Most notably, the 3D printed components of this design allow the user to test insects of various sizes by making the heights of the mill arm and infrared (IR) sensors adjustable. The 3D prints also enable the user to easily disassemble the machine for quick storage or transportation to the field. Moreover, this study makes greater use of magnets and magnetic paint to tether insects with minimal stress. Lastly, this protocol details a versatile analysis of flight data through computer scripts that efficiently separate and analyze differentiable flight trials within a single recording. Although more labor-intensive, applying the tools available in makerspaces and on online 3D modeling programs facilitates multidisciplinary and process-orientated practices and helps researchers avoid costly, premade products with narrowly adjustable dimensions. By taking advantage of the flexibility and reproducibility of technology in makerspaces, this protocol promotes creative flight mill design and inspires open science.

摘要

创客空间具有很大的潜力,可以使研究人员能够开发新技术,并在生态研究中使用新的物种。本方案演示了如何利用创客空间中的技术来构建更具通用性的飞行磨具,成本相对较低。鉴于本研究的原型取自于过去十年中建造的飞行磨具,因此本方案更侧重于概述与简单、现代的飞行磨具的差异。先前的研究已经表明,飞行磨具在测量速度、距离或周期性等飞行参数方面具有很大的优势。这种磨具使研究人员能够将这些参数与形态、生理或遗传因素联系起来。除了这些优势,本研究还讨论了在创客空间中使用技术的好处,如 3D 打印机和激光切割机,以构建更灵活、更坚固和可折叠的飞行磨具设计。值得注意的是,该设计的 3D 打印部件允许用户通过调整磨具臂和红外(IR)传感器的高度来测试各种大小的昆虫。3D 打印还使使用者能够轻松拆卸机器,以便快速存放或运输到现场。此外,本研究更多地利用磁铁和磁性涂料来固定昆虫,从而将对昆虫的应激减至最小。最后,本方案详细说明了通过计算机脚本对飞行数据进行灵活分析,该脚本可以在单个记录中有效地分离和分析可区分的飞行试验。虽然更加耗时,但在创客空间和在线 3D 建模程序中使用可用工具可以促进多学科和面向过程的实践,并帮助研究人员避免使用成本高昂、尺寸可调性窄的预制产品。通过利用创客空间中技术的灵活性和可重复性,本方案促进了飞行磨具的设计创新,并激发了开放科学。

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