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An introduction to calculus
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Calculus Lecture Notes
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Calculus Lecture Notes
Contents
Contents
An introduction to calculus
Constant functions
Linear functions
Factoring differences of powers
Squaring functions
Cubing functions
The general case
The fundamental theorem of calculus
The rates of change of some other functions
Some extensions of our results
Positive rational powers
More on rates of change
Rates of change of sums
Two applications
What do we mean by ``approaching''?
The funnelling theorem:
Formalizing the concept of ``approaching''
Constant functions:
Linear functions
Quadratic functions
The sum of two functions
Other properties
An abuse of notation and terminology
Homework, due 1/28:
Infinity
Continuity
More rates of change for familiar functions
The tangent function
Negative integer powers
Rates of change for inverse functions
The natural logarithm
The arctangent function:
The arcsine function:
Another extension of the power rule
The algebraic computation
The geometric approach
Some gaps in our reasoning
Information from derivatives
Product rule, quotient rule, and chain rule
Differentiating products:
Differentiating quotients
Composite functions:
More on composite functions
Continuity composite functions
Differentiabilty and continuous difference quotients
Another application of the same idea
Summary of differentiation
The definition
The interpretation
General rules
Specific derivatives:
Additional derivatives:
A note on the power rule
Some simple applications of differentiation
Growth and Decay Problems
Hooke's Law
Implicit Differentiation
Related rates
Numerical solutions of equations
Homework, due 2/23
Two important properties of functions
The range of a continuous function
Where maxima are not located
Applications of Rolle's Theorem
The mean value theorem
Some examples of searching for extreme values
The fundamental theorem of calculus
More on limits
Related facts about the natural logarithm
Cauchy's Mean Value Theorem and L'Hopital's Rule
Examples
Polynomial Approximations
Approximating sine for small values
Approximating the natural logarithm
Linear approximations
David G Radcliffe
8/18/1998