用于未来火星和泰坦太空任务的先进独创性和蜻蜓无人机的空气动力学性能

O. Ata
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引用次数: 0

摘要

火星和土星卫星宜居空间任务的未来;就派遣同轴旋翼飞行器或双四轴飞行器着陆器在极端大气中飞行而言,土卫六对人类来说是非常有希望的。火星独创性的空气动力学性能与土卫六和地球上的相比。进一步探索和分析了独创性的先进设计特点,从而增加了悬停时间,有效载荷约为其总重量的28%。先进设计的增强性能将使其角色从直升机演示器转变为着陆漫游车的直升机助手,在沙丘洞穴和火山口执行勘探和挖掘任务。此外,双四轴飞行器着陆器的性能;探索了泰坦蜻蜓,并与地球上的蜻蜓进行了比较。相对稠密的大气和较低的重力加速度为旋翼飞机提供了有利的飞行条件,如果设备进一步加强抵御泰坦上极冷的温度,就可以节省电力消耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Aerodynamic Performance of Advanced Ingenuity and Dragonfly Drones for Future Space Missions to Mars and Titan
The future of space missions to habitable Mars and Saturnian moon; Titan, is very promising to mankind as far as sending coaxial rotorcrafts or dual-quadcopter landers, to fly in their atmospheric extremes, are concerned. The aerodynamic performance of Martian Ingenuity is compared to that on Titan and Earth. Advanced design features of Ingenuity are further explored and analyzed that resulted in added benefits of increased hover time, range with a payload of about 28% of its gross weight. The enhanced performance of the advanced design would move its role from a helicopter demonstrator to a helicopter assistant of a landed rover with exploration and excavation tasks to perform in dune caves and volcano craters. Further, the performance of a dual-quadcopter lander; Titanean Dragonfly, is explored and compared to that on Earth. The relatively denser atmosphere and lower gravitational acceleration offer favorable flying conditions for rotorcrafts that can save on power consumption if the equipment is further fortified against the extremely cold temperature on Titan.
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