Download PDF CALCULUS EARLY TRANSCENDENTALS 9TH Edition by HOWARD ANTON



Sinopsis


One of the important themes in calculus is the analysis of relationships between physical or mathematical quantities. Such relationships can be described in terms of graphs, formulas, numerical data, or words. In this chapter we will develop the concept of a “function,” which is the basic idea that underlies almost all mathematical and physical relationships, regardless of the form in which they are expressed. We will study properties of some of the most basic functions that occur in calculus, including polynomials, trigonometric functions, inverse trigonometric functions, exponential functions, and logarithmic functions.

Many scientific laws and engineering principles describe how one quantity depends on another. This idea was formalized in 1673 by Gottfried Wilhelm Leibniz (see p. xx) who coined the term function to indicate the dependence of one quantity on another, as described in the following definition.

In the mid-eighteenth century the Swiss mathematician Leonhard Euler (pronounced “oiler”) conceived the idea of denoting functions by letters of the alphabet, thereby making it possible to refer to functions without stating specific formulas, graphs, or tables. To understand Euler’s idea, think of a function as a computer program that takes an input x, operates on it in some way, and produces exactly one output y. The computer program is an object in its own right, so we can give it a name, say f . Thus, the function f (the computer program) associates a unique output y with each input x (Figure 0.1.2). This suggests the following definition.




Content

  1. BEFORE CALCULUS
  2. LIMITS AND CONTINUITY
  3. THE DERIVATIVE
  4. TOPICS IN DIFFERENTIATION
  5. THE DERIVATIVE IN GRAPHING AND APPLICATIONS
  6. INTEGRATION
  7. APPLICATIONS OF THE DEFINITE INTEGRAL IN GEOMETRY, SCIENCE, AND ENGINEERING
  8. PRINCIPLES OF INTEGRAL EVALUATION
  9. MATHEMATICAL MODELING WITH DIFFERENTIAL EQUATIONS
  10. INFINITE SERIES
  11. PARAMETRIC AND POLAR CURVES; CONIC SECTIONS
  12. THREE-DIMENSIONAL SPACE; VECTORS
  13. VECTOR-VALUED FUNCTIONS
  14. PARTIAL DERIVATIVES
  15. MULTIPLE INTEGRALS
  16. TOPICS IN VECTOR CALCULUS





Download PDF Calculus For The Practical Man by D. Van Nostrand

Download PDF Advanced Mathematical Concepts Precalculus With Applications by Glencoe

Download PDF CALCULUS III Paul Dawkins


Sinopsis

In this chapter we will start taking a more detailed look at three dimensional space (3-D space or ¡3 ). This is a very important topic in Calculus III since a good portion of Calculus III is done in three (or higher) dimensional space.

We will be looking at the equations of graphs in 3-D space as well as vector valued functions and how we do calculus with them. We will also be taking a look at a couple of new coordinate systems for 3-D space.

This is the only chapter that exists in two places in my notes. When I originally wrote these notes all of these topics were covered in Calculus II however, we have since moved several of them into Calculus III. So, rather than split the chapter up I have kept it in the Calculus II notes and also put a copy in the Calculus III notes. Many of the sections not covered in Calculus III will be used on occasion there anyway and so they serve as a quick reference for when we need them.

Content

  1. Three Dimensional Space
  2. Partial Derivatives
  3. Applications of Partial Derivatives
  4. Multiple Integrals
  5. Line Integrals
  6. Surface Integrals