1) Lunar probe
月球探测器
1.
Through the analysis on kinematical constraint characters of the launch window for Earth-to-Moon transfer trajectories based on the high elliptical parking orbit,laws of kinematical constraint influence on the launch window are given,and launch opportunities of the lunar probe and the probability to add the launch window are verified.
通过分析大椭圆停泊轨道月球探测器发射窗口的运动学约束特性,给出了转移轨道运动学约束对发射窗口的影响规律,进一步明确了在该种情况下月球探测器的发射机会和增加窗口的可能性。
2.
This paper studies the attitude large angle slew problem that rate and control moment of the lunar probe are limited.
研究了月球探测器转速与控制力矩受限的姿态大角度机动问题。
3.
Taking an lunar probe around the earth and the moon from the earth parking orbit for example, we analyze some questions of navigation of the lunar probe based on ground tracking site, including the choice of tracking type, distribution of ground tracking site, adjustment of the guiding time, and accuracy of navigation.
针对一个从地球停泊轨道出发绕地月飞行的月球探测器 ,讨论地面站对月球探测器导航的几个问题 ,包括观测方式的选取、地面站的分布、制导点的调整、导航精度等。
2) Lunar explorer
月球探测器
1.
Autonomous navigation, guidance and control is one of key technologies for lunar explorer.
自主导航与控制是月球探测器的关键技术之一。
3) lunar rover
月球巡视探测器
1.
Based on the concept and main functions of lunar rovers,system design including composition of subsystems,operational states and modes is analyzed and investigated.
简要回顾月球探测的发展现状,给出月球巡视探测器的概念和主要功能,据此分析和研究系统方案设计、分系统组成、工作状态和工作模式。
2.
The lunar exploration mission requires a long-range autonomous navigation of lunar rover,heading information is an important part of lunar rover navigation,its precision will affects the localization precision and the performance of navigation directly,especially for long range,long duration traverse on the moon.
月球巡视探测器自主导航是其能在月面执行探测任务的关键,而定向又是月球巡视探测器自主导航的一个重要组成部分,其定向精度将直接影响到月球巡视探测器定位性能。
3.
The significance of lunar rover localization is introduced first,and the corresponding limitations of all localization algorithms are indicated by analyzing the lunar environment.
介绍了月球巡视探测器进行定位的目的及意义。
4) small lunar explorer
小型月球探测器
1.
Nonlinear predictive control of the small lunar explorer three-axes attitude control using reaction wheels;
轮控小型月球探测器姿态稳定的非线性预测控制
5) lunar robot
月球探测机器人
1.
System modeling for lunar robot;
月球探测机器人的系统建模
2.
D - S theory is adopted in lunar robot s information fu- sion.
采用D-S证据理论实现了月球探测机器人的信息融合,并以障碍物检测为例进行了验证,实验结果表明了该方法的可行性和有效性。
补充资料:月球探测器
见空间探测器。
说明:补充资料仅用于学习参考,请勿用于其它任何用途。
参考词条