A Review of Collaborated Educational Drone Development and Design at the BRICS 2018 Future Skills Challenge

C. I. Basson, S. Hansraj, R. Stopforth, P. Mooney, Russell Phillips, T. V. Niekerk, K. D. Preez
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引用次数: 2

Abstract

Unmanned aerial vehicles, remote piloted aircraft systems, or drones, have the ability to enable autonomy in manufacturing environments through self-charging and maintenance diagnostics. Drone development for manufacturing application was exploited in the BRICS 2018 (Brazil, Russia, India, China and South Africa) Future Skills Challenge. The challenge was completed over a period of three (3) days and five (5) teams participated in designing and manufacturing unique drones and self-charging stations. Quadcopters and base stations were designed and developed for manual flight and self-charging for autonomous production environments. The paper discussed design elements in terms of mechanical design, mechatronic design, flight control optimisation and drone performance criteria. The drones were evaluated according to work organisation and management, manufacturing and assembly principles, programming and testing standards, and commissioning performance criteria. The results of each design group from the evaluation were compared and discussed accordingly. The evaluation was done through subjective visual inspections for quality and could potentially misinterpret the results of the assessment. A technical evaluation approach is recommended to evaluate drone performance, utilising in-flight measuring instruments for repeatability and stable flight.
2018年金砖国家未来技能挑战赛合作教育无人机研发与设计综述
无人驾驶飞行器、远程驾驶飞机系统或无人机能够通过自我充电和维护诊断,在制造环境中实现自主。2018年金砖国家(巴西、俄罗斯、印度、中国和南非)未来技能挑战赛利用无人机开发制造应用。这项挑战在三天内完成,五个团队参与设计和制造独特的无人机和自动充电站。四轴飞行器和基站是为自主生产环境的手动飞行和自充电而设计和开发的。本文从机械设计、机电一体化设计、飞行控制优化和无人机性能标准等方面讨论了设计要素。无人机根据工作组织和管理、制造和装配原则、编程和测试标准以及调试性能标准进行评估。对各设计组的评价结果进行了比较和讨论。评估是通过主观的目视检查来完成的,可能会误解评估结果。建议采用一种技术评估方法来评估无人机性能,利用飞行中测量仪器进行可重复性和稳定飞行。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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