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Application of Derivatives

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Title: Application of Derivatives


1
Application of Derivatives
  • Dr. Ching I Chen

2
4.1 Extreme Values of Functions (1) Absolute
(Global) Extreme Values
3
4.1 Extreme Values of Functions (2) Absolute
(Global) Extreme Values (Example 1)
4
4.1 Extreme Values of Functions (3) Absolute
(Global) Extreme Values (Example 2-a)
5
4.1 Extreme Values of Functions (4) Absolute
(Global) Extreme Values (Example 2-b)
6
4.1 Extreme Values of Functions (5) Absolute
(Global) Extreme Values (Example 2-c)
7
4.1 Extreme Values of Functions(6, Example 2-d)
Absolute (Global) Extreme Values
8
4.1 Extreme Values of Functions (7) Absolute
(Global) Extreme Values (Theorem 1)
Maximum and minimum at interior points
9
4.1 Extreme Values of Functions (8) Absolute
(Global) Extreme Values (Theorem 1)
Maximum and minimum at endpoints
10
4.1 Extreme Values of Functions (9) Absolute
(Global) Extreme Values (Theorem 1)
Maximum at interior point, minimum at endpoint
11
4.1 Extreme Values of Functions (10) Absolute
(Global) Extreme Values (Theorem 1)
Minimum at interior point, maximum at endpoint
12
4.1 Extreme Values of Functions (11) Local
(Relative) Extreme Values
13
4.1 Extreme Values of Functions (12) Local
(Relative) Extreme Values
14
4.1 Extreme Values of Functions (13) Finding
Extreme Values (Theorem 2)
15
4.1 Extreme Values of Functions (14) Finding
Extreme Values
16
4.1 Extreme Values of Functions (15) Finding
Extreme Values (Example 3-1)
Absolute maximum value of about 2 at x 3 and
absolute minimum value of 0 at x 0
17
4.1 Extreme Values of Functions (16) Finding
Extreme Values (Example 3-2)
18
4.1 Extreme Values of Functions (17) Finding
Extreme Values (Example 4)
19
4.1 Extreme Values of Functions (18) Finding
Extreme Values (Example 5-1)
20
4.1 Extreme Values of Functions (19) Finding
Extreme Values (Example 5-2)
21
4.1 Extreme Values of Functions (20) Finding
Extreme Values (Example 6)
22
4.1 Extreme Values of Functions (21) Finding
Extreme Values (Exploration 1)
23
4.1 Extreme Values of Functions (22) Finding
Extreme Values (Exploration 1-2)
24
4.1 Extreme Values of Functions (23)
Exercise 1 , 4, 7, 10, 13, 16, 19, 22, 25, 28,
31, 34, 37, 40, 43
25
4.2 Mean Value Theorem (1) Mean Value Theorem
26
4.2 Mean Value Theorem (2) Mean Value Theorem
27
4.2 Mean Value Theorem (3) Mean Value Theorem
28
4.2 Mean Value Theorem (4, Example 1) Mean Value
Theorem
29
4.2 Mean Value Theorem (5, Example 2) Mean Value
Theorem
30
4.2 Mean Value Theorem (6, Example 3) Physical
Interpretation
31
4.2 Mean Value Theorem (7) Increasing and
Decreasing Functions
32
4.2 Mean Value Theorem (8, Example 4) Increasing
and Decreasing Functions
33
4.2 Mean Value Theorem (9, Example 5) Increasing
and Decreasing Functions
34
4.2 Mean Value Theorem (10) Other Consequences
35
4.2 Mean Value Theorem (11, Example 6) Other
Consequences
36
4.2 Mean Value Theorem (12) Other Consequences
37
4.2 Mean Value Theorem (13, Example 7) Other
Consequences
38
4.3 Connecting f ? and f ? with the Graph of f
(1) First Derivative Test for Local Extrema
39
4.3 Connecting f ? and f ? with the Graph of f
(2) First Derivative Test for Local Extrema
(Theorem 4)
40
4.3 Connecting f ? and f ? with the Graph of f
(3) First Derivative Test for Local Extrema
(Theorem 4)
41
4.3 Connecting f ? and f ? with the Graph of f
(4) First Derivative Test for Local Extrema
(Theorem 4)
42
4.3 Connecting f ? and f ? with the Graph of f
(5) First Derivative Test for Local Extrema
(Theorem 4)
43
4.3 Connecting f ? and f ? with the Graph of f
(6) First Derivative Test for Local Extrema
(Theorem 4)
44
4.3 Connecting f ? and f ? with the Graph of f
(7) First Derivative Test for Local Extrema
(Example 1)
45
4.3 Connecting f ? and f ? with the Graph of f
(8) First Derivative Test for Local Extrema
(Example 2)
46
4.3 Connecting f ? and f ? with the Graph of f
(9) Concavity
47
4.3 Connecting f ? and f ? with the Graph of f
(10) Concavity
48
4.3 Connecting f ? and f ? with the Graph of f
(11) Concavity (Example 3)
49
4.3 Connecting f ? and f ? with the Graph of f
(12) Concavity (Example 4)
50
4.3 Connecting f ? and f ? with the Graph of f
(13)Points of Inflection
51
4.3 Connecting f ? and f ? with the Graph of f
(14) Points of Inflection (Example 5-1)
52
4.3 Connecting f ? and f ? with the Graph of f
(15) Points of Inflection (Example 5-2)
53
4.3 Connecting f ? and f ? with the Graph of f
(16) Points of Inflection (Example 5-3)
54
4.3 Connecting f ? and f ? with the Graph of f
(17) Points of Inflection (Example 6)
55
4.3 Connecting f ? and f ? with the Graph of f
(18) Points of Inflection (Example 6)
56
4.3 Connecting f ? and f ? with the Graph of f
(19) Second Derivative Test for Local Extrema
57
4.3 Connecting f ? and f ? with the Graph of f
(20) Second Derivative Test for Local Extrema
(Ex. 7)
58
4.3 Connecting f ? and f ? with the Graph of f
(21) Second Derivative Test for Local Extrema
(Ex. 8)
59
4.3 Connecting f ? and f ? with the Graph of f
(22) Second Derivative Test for Local Extrema
(Ex. 8-a,b)
60
4.3 Connecting f ? and f ? with the Graph of f
(23) Second Derivative Test for Local Extrema
(Ex. 8-c,d)
61
4.3 Connecting f ? and f ? with the Graph of f
(24) Learning about Function From Derivatives
62
4.3 Connecting f ? and f ? with the Graph of f
(25) Learning about Function From Derivatives
(Explo. 2)
63
4.4 Modeling and Optimization (1, Example 1)
Example from Business and Industry
64
4.4 Modeling and Optimization (2, Example 2)
Example from Business and Industry
65
4.4 Modeling and Optimization (3, Example 3)
Example from Mathematics
66
4.4 Modeling and Optimization (4, Example 4)
Example from Mathematics
67
4.4 Modeling and Optimization (5) Example from
Mathematics(Exploration 1)
68
4.4 Modeling and Optimization (6) Example from
Mathematics (Exploration 1-1)
69
4.4 Modeling and Optimization (7) Example from
Mathematics (Exploration 1-2)
70
4.4 Modeling and Optimization (8) Example from
Mathematics (Exploration 1-3)
71
4.4 Modeling and Optimization (9) Example from
Mathematics (Exploration 1-4)
72
4.4 Modeling and Optimization (10) Example from
Mathematics (Exploration 1-5)
73
4.4 Modeling and Optimization (11) Example from
Economics
74
4.4 Modeling and Optimization (12) Example from
Economics
75
4.4 Modeling and Optimization (13, Example 5)
Example from Economics
76
4.4 Modeling and Optimization (14, Example 6)
Example from Economics
77
4.5 Linearization and Newtons Method (1) Linear
Approximation (Exploration 1-1,2)
78
4.5 Linearization and Newtons Method (2) Linear
Approximation (Exploration 1-3)
79
4.5 Linearization and Newtons Method (3) Linear
Approximation
80
4.5 Linearization and Newtons Method (4) Linear
Approximation (Example 1)
81
4.5 Linearization and Newtons Method (5) Linear
Approximation (Example 2)
82
4.5 Linearization and Newtons Method (6) Linear
Approximation (Example 3)
83
4.5 Linearization and Newtons Method (7) Linear
Approximation (Example 4)
84
4.5 Linearization and Newtons Method (8)
Newtons Method
Newtons method is a numerical technique for
approximating a zero of a function of with zeros
of its linearizations. Under favorable
circumstances, The zeros of the linearizations
converge rapidly to an accurate approximation.
Many calculators use the method because it
applies to a wide range of functions and usually
gets results in only a few steps.
85
4.5 Linearization and Newtons Method (9)
Newtons Method
86
4.5 Linearization and Newtons Method (10)
Newtons Method
87
4.5 Linearization and Newtons Method (11)
Newtons Method (Example 5)
88
4.5 Linearization and Newtons Method (12)
Newtons Method
Fig 4.43
89
4.5 Linearization and Newtons Method (13)
Newtons Method
90
4.5 Linearization and Newtons Method (14)
Differentials
91
4.5 Linearization and Newtons Method (15)
Differentials (Example 6)
92
4.5 Linearization and Newtons Method (16)
Differentials (Example 7)
93
4.5 Linearization and Newtons Method (17)
Estimating Change with Differentials
94
4.5 Linearization and Newtons Method (18)
Estimating Change with Differentials
95
4.5 Linearization and Newtons Method (19)
Estimating Change with Differentials (Example 8)
96
4.5 Linearization and Newtons Method (20)
Absolute, Relative, and Percentage Change
97
4.5 Linearization and Newtons Method (21)
Absolute, Relative, and Percentage Change (Ex. 9)
98
4.5 Linearization and Newtons Method (22)
Absolute, Relative, and Percentage Change (Ex.
10)
99
4.5 Linearization and Newtons Method (23)
Absolute, Relative, and Percentage Change (Ex.
11)
100
4.5 Linearization and Newtons Method (24)
Absolute, Relative, and Percentage Change (Ex.
12)
101
4.5 Linearization and Newtons Method (25)
Sensitivity to Change (Ex. 13)
102
4.6 Related Rates (1) Related Rate Equations
103
4.6 Related Rates (2, Example 1) Related Rate
Equations
104
4.6 Related Rates (3, Example 2-1) Solution
Strategy
105
4.6 Related Rates (3, Example 2-2) Solution
Strategy
106
4.6 Related Rates (4, Example 2-3) Solution
Strategy
107
4.6 Related Rates (5, Example 2-4) Solution
Strategy
108
4.6 Related Rates (6, Example 2-5) Solution
Strategy
109
4.6 Related Rates (7) Solution Strategy
110
4.6 Related Rates (8) Solution Strategy
111
4.6 Related Rates (8, Example 3-1) Related Rate
Equations
112
4.6 Related Rates (10, Example 3-2) Related Rate
Equations
113
4.6 Related Rates (11, Example 3-3) Solution
Strategy
114
4.6 Related Rates (12, Example 3-4) Solution
Strategy
115
4.6 Related Rates (13, Example 3-5) Solution
Strategy
116
4.6 Related Rates (14, Example 4-1) Related Rate
Equations
117
4.6 Related Rates (15, Example 4-2) Related Rate
Equations
118
4.6 Related Rates (16, Example 4-3) Solution
Strategy
119
4.6 Related Rates (17, Example 4-4) Solution
Strategy
120
4.6 Related Rates (18, Example 4-5) Solution
Strategy
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