第一节 一元线性回归模型的概念 第二节 模型参数的最小二乘估计 第三节 最小二乘估计量的统计性质及分布 第四节 一元线性回归模型的统计检验 第五节 一元线性回归模型的预测 第六节 案例分析

实验一 Eviews 软件的基本操作.1 实验二 一元回归模型 .10 实验三 多元和非线性回归模型 .20 实验四 多重共线性 .29 实验五 异方差性 .38 实验六 自相关性 .49 实验七 滞后变量模型 .63 实验八 虚拟解释变量模型 .75 实验九 模型设定误差诊断与检验 .82 实验十 联立方程模型 .90 实验十一 平稳时间序列分析 .106 实验十二 非平稳时间序列分析（一） .118

•第一节、多元线性回归模型 •第二节、多元线性回归模型的参数估计 •第三节、多元线性回归模型的统计检验 •第四节、多元线性回归模型的预测 •第五节、回归模型的其他形式

一、虚拟变量的基本含义 二、虚拟变量的设置原则 三、虚拟变量的引入 四、虚拟变量的特殊应用 五、虚拟变量引入模型的作用

第一节 一元线性回归模型的概念 第二节 模型参数的最小二乘估计 第三节 最小二乘估计量的统计性质及分布 第四节 一元线性回归模型的统计检验 第五节 一元线性回归模型的预测 第六节 案例分析

Ch. 23 Cointegration 1 Introduction An important property of (1) variables is that there can be linear combinations of theses variables that are I(O). If this is so then these variables are said to be cointegrated. Suppose that we consider two variables Yt and Xt that are I(1) (For example, Yt= Yt-1+ St and Xt= Xi-1+nt.)Then, Yt and Xt are said to be cointegrated if there exists a B such

Ch. 24 Johansen's mle for Cointegration We have so far considered only single-equation estimation and testing for cointe- gration. While the estimation of single equation is convenient and often consis- tent, for some purpose only estimation of a system provides sufficient information This is true, for example, when we consider the estimation of multiple cointe- grating vectors, and inference about the number of such vectors. This chapter examines methods of finding the cointegrating rank and derive the asymptotic

Ch. 3 Estimation 1 The Nature of statistical Inference It is argued that it is important to develop a mathematical model purporting to provide a generalized description of the data generating process. A prob bility model in the form of the parametric family of the density functions p=f(:0),0E e and its various ramifications formulated in last chapter

Ch. 4 Asymptotic Theory From the discussion of last Chapter it is obvious that determining the dis- tribution of h(X1, X2, . . Xr) is by no means a trival exercise. It turns out that more often than not we cannot determine the distribution exactly. Because of the importance of the problem, however, we are forced to develop approximations the subject of this Chapter

Ch. 5 Hypothesis Testing The current framework of hypothesis testing is largely due to the work of Neyman and Pearson in the late 1920s, early 30s, complementing Fisher's work on estimation. As in estimation, we begin by postulating a statistical model but instead of seeking an estimator of 6 in e we consider the question whether