6.1 喷气推力姿态稳定原理 6.2 喷气姿态稳定系统的非线性控制律 6.3 航天器的喷气推力器系统 6.4 飞轮姿态稳定原理 6.5 零动量反作用轮三轴姿态稳定系统 6.6 偏置动置轮三轴姿态稳定系统 6.7 控制力矩陀螺三轴姿态稳定系统

5.1 自旋卫星的稳定性和章动性 5.2 自旋卫星的章动阻尼 5.3 双自旋卫星稳定系统 5.4 重力梯度稳定系统 5.5 重力梯度稳定卫星的天平动阻尼

3.1 航天器的姿态运动学 3.2 航天器的姿态动力学 3.3 航天器的一般运动方程 3.4 姿态干扰力矩

2.1航天器轨道的基本定律 2.2二体轨道力学和运动方程 2.3航天器轨道的几何特性 2.5航天器的轨道摄动 2.4航天器的轨道描述

11.1 空间站的概念和组成 11.2 空间站的导航、制导与控制

10.1 航天飞机的结构组成 10.2 航天飞机的控制系统 10.3 航天飞机的飞行控制 10.4 航天飞机再入与着陆的制导与控制

1.1 世界航天技术发展的概况 1.2航天器的分类与系统组成 1.3航天器控制的基本概念

This handout provides the essential elements needed to understand finite random matrix theory. A cursory observation should reveal that the tools for infinite random matrix theory are quite different from the tools for finite random matrix theory. Nonetheless

In class, we saw the connection between the so-called Hermite matrix and the semi-circular law. There is actually a deeper story that connects the classical random matrix ensembles to the classical orthogonal polynomials studied in classical texts such as [1] and more recent monographs such as

A requirement of this course is that the students experiment with a random matrix problem that is of interest to them. Often these explorations take the shape of a little bit of theory and a little bit of computational experimentation. Some of you might already have some ideas that are relevant to your current research. Regardless, we thought we’d put together some ideas for projects. Feel free to adapt them