线性代数导论 第2版(影印版)
基本信息
- 原书名:Introduction to Linear Algebra,Second Edition
- 原出版社: Springer-Verlag
- 作者: Serge Lang
- 丛书名: Undergraduate Texts in Mathematics
- 出版社:世界图书出版公司
- ISBN:7506271869
- 上架时间:2004-11-5
- 出版日期:2004 年11月
- 开本:24开
- 页码:293
- 版次:2-1
- 所属分类:
数学 > 代数,数论及组合理论 > 线性代数
教材 > 研究生/本科/专科教材 > 理学 > 数学
内容简介回到顶部↑
This book is meant as a short text in linear algebra for a one-term course. Except for an occasional example or exercise the text is logically independent of calculus, and could be taught early. In practice, I expect it to be used mostly for students who have had two or three terms of calculus. The course could also be given simultaneously with, or im mediately after, the first course in calculus.
目录回到顶部↑
chapter i
vectors
1. definition of points in space
2. located vectors
3. scalar product
4. the norm of a vector
5. parametric lines
6. planes
chapter ii
matrices and linear equations
1. matrices
2. multiplication of matrices
3. homogeneous linear equations and elimination
4. row operations and gauss elimination
5 row operations and elementary matrices
6. linear combinations
chapter iii
vector spaces
1. definitions
2. linear combinations
vectors
1. definition of points in space
2. located vectors
3. scalar product
4. the norm of a vector
5. parametric lines
6. planes
chapter ii
matrices and linear equations
1. matrices
2. multiplication of matrices
3. homogeneous linear equations and elimination
4. row operations and gauss elimination
5 row operations and elementary matrices
6. linear combinations
chapter iii
vector spaces
1. definitions
2. linear combinations
前言回到顶部↑
This book is meant as a short text in linear algebra for a one-term course. Except for an occasional example or exercise the text is logically independent of calculus, and could be taught early. In practice, I expect it to be used mostly for students who have had two or three terms of calculus. The course could also be given simultaneously with, or im mediately after, the first course in calculus.
I have included some examples concerning vector spaces of functions, but these could be omitted throughout without impairing the under standing of the rest of the book, for those who wish to concentrate exclusively on euclidean space. Furthermore, the reader who does not like n = n can always assume that n =1, 2, or 3 and omit other interpre tations. However, such a reader should note that using n = n simplifies some formulas, say by making them shorter, and should get used to this as rapidly as possible. Furthermore, since one does want to cover both the case n=2 and n=3 at the very least, using n to denote either number avoids very tedious repetitions.
The first chapter is designed to serve several purposes. First, and most basically, it establishes the fundamental connection between linear algebra and geometric intuition. There are indeed two aspects (at least) to linear algebra: the formal manipulative aspect of computations with matrices, and the geometric interpretation. I do not wish to prejudice one in favor of the other, and I believe that grounding formal manipulations in geometric contexts gives a very valuable background for those who use linear algebra. Second, this first chapter gives immediately concrete examples, with coordinates, for linear combinations, perpendicu larity, and other notions developed later in the book. In addition to the geometric context, discussion of these notions provides examples for subspaces, and also gives a fundamental interpretation for linear equations. Thus the first chapter gives a quick overview of many topics in the book. The content of the first chapter is also the most fundamental part of what is used in calculus courses concerning functions of several variables, which can do a lot of things without the more general ma-trices. If students have covered the material of Chapter I in another course, or if the instructor wishes to emphasize matrices right away, then the first chapter can be skipped, or can be used selectively for examples and motivation.
After this introductory chapter, we start with linear equations, matrices, and Gauss elimination. This chapter emphasizes computational aspects of linear algebra. Then we deal with vector spaces, linear maps and scalar products, and their relations to matrices. This mixes both the computational and theoretical aspects.
Determinants are treated much more briefly than in the first edition, and several proofs are omitted. Students interested in theory can refer to a more complete treatment in theoretical books on linear algebra.
I have included a chapter on eigenvalues and eigenvectors. This gives practice for notions studied previously, and leads into material which is used constantly in all parts of mathematics and its applications.
I am much indebted to Toby Orloff and Daniel Horn for their useful comments and corrections as they were teaching the course from a preliminary version of this book. I thank Allen Altman and Gimli Khazad for lists of corrections.
I have included some examples concerning vector spaces of functions, but these could be omitted throughout without impairing the under standing of the rest of the book, for those who wish to concentrate exclusively on euclidean space. Furthermore, the reader who does not like n = n can always assume that n =1, 2, or 3 and omit other interpre tations. However, such a reader should note that using n = n simplifies some formulas, say by making them shorter, and should get used to this as rapidly as possible. Furthermore, since one does want to cover both the case n=2 and n=3 at the very least, using n to denote either number avoids very tedious repetitions.
The first chapter is designed to serve several purposes. First, and most basically, it establishes the fundamental connection between linear algebra and geometric intuition. There are indeed two aspects (at least) to linear algebra: the formal manipulative aspect of computations with matrices, and the geometric interpretation. I do not wish to prejudice one in favor of the other, and I believe that grounding formal manipulations in geometric contexts gives a very valuable background for those who use linear algebra. Second, this first chapter gives immediately concrete examples, with coordinates, for linear combinations, perpendicu larity, and other notions developed later in the book. In addition to the geometric context, discussion of these notions provides examples for subspaces, and also gives a fundamental interpretation for linear equations. Thus the first chapter gives a quick overview of many topics in the book. The content of the first chapter is also the most fundamental part of what is used in calculus courses concerning functions of several variables, which can do a lot of things without the more general ma-trices. If students have covered the material of Chapter I in another course, or if the instructor wishes to emphasize matrices right away, then the first chapter can be skipped, or can be used selectively for examples and motivation.
After this introductory chapter, we start with linear equations, matrices, and Gauss elimination. This chapter emphasizes computational aspects of linear algebra. Then we deal with vector spaces, linear maps and scalar products, and their relations to matrices. This mixes both the computational and theoretical aspects.
Determinants are treated much more briefly than in the first edition, and several proofs are omitted. Students interested in theory can refer to a more complete treatment in theoretical books on linear algebra.
I have included a chapter on eigenvalues and eigenvectors. This gives practice for notions studied previously, and leads into material which is used constantly in all parts of mathematics and its applications.
I am much indebted to Toby Orloff and Daniel Horn for their useful comments and corrections as they were teaching the course from a preliminary version of this book. I thank Allen Altman and Gimli Khazad for lists of corrections.
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发表于:2010-1-18 0:36:00
经典好书!
这本书是MIT的线性代数课使用的教材,也是被很多其它大学选用的经典教材。它的难度适中,讲解清晰,重要的是对许多核心的概念讨论得比较透彻。我个人觉得,学习线性代数,最重要的不是去熟练矩阵运算和解方程的方法——这些在实际工作中MATLAB可以代劳,关键的是要深入理解几个基础而又重要的概念:子空间(Subspace),正交(Orthogonality),特征值和特征向量(Eigenvalues and eigenvectors),和线性变换(Linear transform)。(如果你能理解傅立叶变化究竟做了一件什么事情,你才能说你知道了子空间!学线性代数一定要理解MATLAB能为你做的事情之外其他的东西,这才是精髓。而很遗憾,很多高校的线性代数考试只测试学生的计算能力。有几个数学老师能告诉学生:我们为什么要计算特征值?)从我的角度看来,一本线代教科书的质量,就在于它能否给这些根本概念以足够的重视,能否把它们的联系讲清楚。
Strang的这本书在这方面是做得很好的。而且,这本书有个得天独厚的优势。书的作者长期在MIT讲授线性代数课(18.06),课程的video在MIT的Open courseware网站上有提供。有时间的朋友可以一边看着名师授课的录像,一边对照课本学习或者复习。
http://ocw.mit.edu/OcwWeb/Mathematics/18-06Spring-2005/CourseHome/index.htm
这本书是MIT的线性代数课使用的教材,也是被很多其它大学选用的经典教材。它的难度适中,讲解清晰,重要的是对许多核心的概念讨论得比较透彻。我个人觉得,学习线性代数,最重要的不是去熟练矩阵运算和解方程的方法——这些在实际工作中MATLAB可以代劳,关键的是要深入理解几个基础而又重要的概念:子空间(Subspace),正交(Orthogonality),特征值和特征向量(Eigenvalues and eigenvectors),和线性变换(Linear transform)。(如果你能理解傅立叶变化究竟做了一件什么事情,你才能说你知道了子空间!学线性代数一定要理解MATLAB能为你做的事情之外其他的东西,这才是精髓。而很遗憾,很多高校的线性代数考试只测试学生的计算能力。有几个数学老师能告诉学生:我们为什么要计算特征值?)从我的角度看来,一本线代教科书的质量,就在于它能否给这些根本概念以足够的重视,能否把它们的联系讲清楚。
Strang的这本书在这方面是做得很好的。而且,这本书有个得天独厚的优势。书的作者长期在MIT讲授线性代数课(18.06),课程的video在MIT的Open courseware网站上有提供。有时间的朋友可以一边看着名师授课的录像,一边对照课本学习或者复习。
http://ocw.mit.edu/OcwWeb/Mathematics/18-06Spring-2005/CourseHome/index.htm
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