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很感谢郑博的成果分享,本人对fastlivo2的lio部分,分别进行了无人机与无人车测试,相较于point-lio,livo2的资源开销是比较小的;使用rk3588在室内飞行定点飞行(系留电源)两个小时,程序没有出现数据溢出而造成的定位卡死问题,系统的稳定性非常棒!!!!(无人机车定点运行24小时也完全正常)。定位精度也有所提高,主要体现在定点时位置的跳动更小; 但开启重力对齐后,会出现起始点航向角在0.1°-0.7°跳动(每次误差不一样),希望郑博有时间关注一下这个问题;感谢!!!
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太酷了,你的反馈非常非常impressive和惊艳,进一步验证了fast-livo2使用低算力平台在长期运行下的稳定和高效。另外我会再优化下重力对齐。非常感谢你的支持和测试!
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很感谢郑博的成果分享,本人对fastlivo2的lio部分,分别进行了无人机与无人车测试,相较于point-lio,livo2的资源开销是比较小的;使用rk3588在室内飞行定点飞行(系留电源)两个小时,程序没有出现数据溢出而造成的定位卡死问题,系统的稳定性非常棒!!!!(无人机车定点运行24小时也完全正常)。定位精度也有所提高,主要体现在定点时位置的跳动更小; 但开启重力对齐后,会出现起始点航向角在0.1°-0.7°跳动(每次误差不一样),希望郑博有时间关注一下这个问题;感谢!!!
The text was updated successfully, but these errors were encountered: