2.1 描述流体运动的两种方法 2.2 迹线和流线 2.3 流体微团的变形和旋转 2.4 有旋运动和无旋运动 2.5 速度势 • 速度势 (velocity potential) • 流函数 (stream function) —— 针对不可压缩流体。 —— 针对无旋运动流体

1.1 流体的定义 1.2 流体的特性 • 流体的易流动性 (fluidity) • 流体的易变形形(deformability) • 流体的粘性 (viscosity) • 流体的可压缩(compressibility) 1.3 流体连续介质模型 1.4 作用在流体上的力 体积力 (body force) 表面力 (surface force) 表面张力 (surface tension)

相似分析是沟通流体力学理论和实验之间的桥梁。 10.1 相似概念 10.2 相似原理 10.3 方程分析方法 10.4 量纲分析 10.5 量纲分析基本概念 10.6 Rayleigh法 10.7 Π定理 10.8 模型实验设计

• 流体力学与现实生活 • 流体力学的发展过程 • 流体力学的研究方法 • 流体力学的研究内容

6.1 Introduction 6.2 Traffic control along a line 6.3 Traffic control within an area 6.4 Intelligent traffic control within an area

5.1 Basic concept of traffic signal control 5.2 Parameters in traffic signal control 5.3 Choice of Objective Function 5.4 Calculation of Cycle Length 5.5 Calculation of Split 5.6 Intelligent Traffic Control at Intersection

4.1 Conflicts of the traffic at an intersection 4.2 Traffic Signals 4.3 Traffic Controller 4.4 Installation of traffic signals at intersection 4.5 Functions of Monitoring System 4.6 Traffic Detection and Data Processing 4.7 Traffic Detection Equipment 4.8 Environment detection 4.9 System Structure of Monitoring Center

3.1 Overview of Comparable Domains 3.2 Characteristics of Traffic Flow 3.3 Typical process situations(scenarios) 3.4 Evolution of network process control

2.1 Introduction 2.2 General Concept of Automatic Control 2.3 Open loop control 2.4 Closed loop control 2.5 State Space of Control System 2.6 Urban traffic control system 2.7 Some other automatic controls

1.1 What are transport systems 1.2 What is traffic control system 1.3 What are the differences between transport planning and traffic control 1.4 History of the traffic control system 1.5 Next generation of traffic control system