Differential and Integral Calculus

Volume 2

Chapter II: Functions of Several Variables and their Derivatives

2.1. THE CONCEPT OP FUNCTION IN THE CASE OF SEVERAL VARIABLES

 

2.4.2 Differentiation in a Given Direction

  2.7.2 Application to the Theory of Curves in Space. Resolution of a Motion into Tangential and Normal Components
2.1.1 Functions and their Ranges of Definition   2.4.3. Geometrical Interpretation. The Tangent Plane  

2.7.3 The Gradient of a Scalar

2.1.2 The Simplest Types of Functions   2.4.4 The Total Differential of a Function   Exercises 2.5
2.1.3 Geometrical Representation of Functions   2.4.5. Application to the Calculus of Errors   2.7.4. The Divergence and Curl of a Vector field

2.2 CONTINUITY

 

2.5. FUNCTIONS OF FUNCTIONS (COMPOUND FUNCTIONS) AND THE INTRODUCTION OF NEW INDEPENDENT VARIABLES

 

Appendix to Chapter II 

2.2.1 Definition  

5.1 General Remarks. The Chain Rule

 

A2.1. THE PRINCIPLE OF THE POINT OF ACCUMULATION IN SEVERAL DIMENSIONS AND ITS APPLICATIONS 

2.2.2 The Concept of limit in the Case of Several Variables   2.5.2. Examples   A2.1.1 The Principle of the Point of Accumulation
2.2.3 The Order to which a Function vanishes   2.5.3 Change of the Independent Variables   A2.1.2. Some Concepts of the Theory of Sets of Points
Exercises 2.1   Exercises 2.3   A2.1.3 The Heine-Borel Covering Theorem

2.3 THE DERIVATIVES OF A FUNCTION

 

2.6. THE MEAN VALUE THEOREM AND TAYLOR'S THEOREM FOR FUNCTIONS OF SEVERAL VARIABLES 

  Exercise 2.6
2.3.1 Definition. Geometrical Representation  

2.6.1 Statement of the Problem. Preliminary Remarks

 

A2.2 The Concept of Limit for Functions of Several Variables

2.3.2. Continuity and the Existence of Partial Derivatives with respect to x and y   2.6.2 The Mean Value Theorem   A2.2.1 Double Sequences and their Limits
2.3.3. Change of the Order of Differentiation   2.6.3 Taylor's Theorem for Several Independent Variables   A2.2.3 Dini's Theorem on the Uniform Convergence of Monotonic Sequences of Functions
Exercises 2.2   Exercises 2.4   Exercises 2.7

2.4 THE TOTAL DIFFERENTIAI. OF A FUNCTION AND ITS GEOMETRICAL MEANING 

 

2.7 THE APPLICATION OF VECTOR METHODS

 

A2.3. HOMOGENEOUS FUNCTIONS

2.4.1. The Concept of Differentiability   2.7.1 Vector Fields and Families of Vectors   Exercises 2.8