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Limit and Continuity. y. 2.1 Rate of Change and Limits (1) Average and Instantaneous Speed. y. t=2. v=?. 2.1 Rate of Change and Limits (2, Example 2) Average and Instantaneous Speed. When different value of h. y. e. L. e. d. d. x. c.
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y 2.1 Rate of Change and Limits (1)Average and Instantaneous Speed
y t=2 v=? 2.1 Rate of Change and Limits (2, Example 2)Average and Instantaneous Speed When different value of h
y e L e d d x c 2.1 Rate of Change and Limits (3)Definition of Limit
2.1 Rate of Change and Limits (5)Properties of Limit This can be applied to do the limits of all polynominal and rational functions.
2.1 Rate of Change and Limits (6, Theorem 1)Properties of Limit
2.1 Rate of Change and Limits (7, Theorem 1)Properties of Limit
2.1 Rate of Change and Limits (8, Theorem 1)Properties of Limit
2.1 Rate of Change and Limits (9, Example 3)Properties of Limit
2.1 Rate of Change and Limits (10,Theorem 2)Properties of Limit
2.1 Rate of Change and Limits (11, Example 4)Properties of Limit
2-1 Exercise 63 2.1 Rate of Change and Limits (12, Example 5)Properties of Limit
2.1 Rate of Change and Limits (13, Example 6)Properties of Limit
f(x) f(c+) f(c-) x c 2.1 Rate of Change and Limits (14)One-sided and Two-sided Limits
2.1 Rate of Change and Limits (15, Example 7)One-sided and Two-sided Limits
2.1 Rate of Change and Limits (16, Theorem 3)One-sided and Two-sided Limits
2.1 Rate of Change and Limits (17, Example 8)One-sided and Two-sided Limits
y h L f g x c 2.1 Rate of Change and Limits (18, Theorem 4)Sandwich Theorem
h(x) = x2 g(x) = -x2 f(x) = x2 sin(1/x) 2.1 Rate of Change and Limits (19, Example 9) Sandwich Theorem
2.2 Limits Involving Infinite (1) Finite Limits as x→± • The symbol of infinite () does not represent a real number. • The use to describe the behavior of a function when the values in its domain or range out grow all finite bounds.
2.2 Limits Involving Infinite (4, Example 1)Finite Limits as x→±
2.2 Limits Involving Infinite (5, Example 2)Sandwich Theorem Revisited
2.2 Limits Involving Infinite (6, Theorem 5-1)Sandwich Theorem Revisited
2.2 Limits Involving Infinite (7, Theorem 5-2)Sandwich Theorem Revisited
2.2 Limits Involving Infinite (8, Example 3)Sandwich Theorem Revisited
2.2 Limits Involving Infinite (9, Exploration 1-1) Sandwich Theorem Revisited
2.2 Limits Involving Infinite (10, Exploration 1-2) Sandwich Theorem Revisited
2.2 Limits Involving Infinite (11, Exploration 1-3) Sandwich Theorem Revisited
2.2 Limits Involving Infinite (14, Example 4) Infinite Limits as x →a
2.2 Limits Involving Infinite (15, Example 5) Infinite Limits as x →a
2.2 Limits Involving Infinite (16, Example 6) End Behavior Models
2.2 Limits Involving Infinite (18, Example 7) End Behavior Models
2.2 Limits Involving Infinite (19) End Behavior Models • IF one function provides both a left and right behavior model, it called an end behavior model. • In general, g(x) = anxn ia an end behavior model for the polynominal function f(x) = anxn + an-1xn-1 +…+ ao .In the large, all polynominals behave like monomials. • This is the key to the end behavior of rational functions.
2.2 Limits Involving Infinite (20, Example 8)End Behavior Models
2.2 Limits Involving Infinite (21, Example 9)End Behavior Models
2.2 Limits Involving Infinite (22, Example 10)Seeing Limits as x→±
Continuity from both side Continuity from the left Continuity from the right a b c 2.3 Continuity (3)Continuity at a Point
y = f(x) 2 y = f(x) 1 1 continuous at x=0 continuous at x=0 If it had f(0)=1 y = f(x) 1 continuous at x=0 If it had f(0)=1 2.3 Continuity (5)Continuity at a Point continuity at x = 0 are removable
1 y = f(x) 2.3 Continuity (6)Continuity at a Point