Applications of Definite Integrals - PowerPoint PPT Presentation

1 / 71
About This Presentation
Title:

Applications of Definite Integrals

Description:

7.1 Integral as Net Change (4, Example 2-2) Linear Motion Revisited ... syms x. fn = 2*cos(x)-x*x 1; intfn = int((fn), x, -1.2654, 1.2654); s1 = double(intfn) ... – PowerPoint PPT presentation

Number of Views:68
Avg rating:3.0/5.0
Slides: 72
Provided by: ching6
Category:

less

Transcript and Presenter's Notes

Title: Applications of Definite Integrals


1
Applications of Definite Integrals
  • Dr. Ching I Chen

2
7.1 Integral as Net Change (2, Example 1)Linear
Motion Revisited
3
7.1 Integral as Net Change (3, Example
2-1)Linear Motion Revisited
4
7.1 Integral as Net Change (4, Example
2-2)Linear Motion Revisited
5
7.1 Integral as Net Change (5, Example
2-3)Linear Motion Revisited
6
7.1 Integral as Net Change (6, Exploration
1-1)Linear Motion Revisited
7
7.1 Integral as Net Change (7, Exploration
1-2)Linear Motion Revisited
8
7.1 Integral as Net Change (8, Exploration
1-3)Linear Motion Revisited
9
7.1 Integral as Net Change (9, Example 3)Linear
Motion Revisited
10
7.1 Integral as Net Change (10)General Strategy
11
7.1 Integral as Net Change (11)General Strategy
12
7.1 Integral as Net Change (12, Example
4-1)General Strategy
13
7.1 Integral as Net Change (13, Example
4-2)General Strategy
14
7.1 Integral as Net Change (14, Example
4-3)General Strategy
15
7.1 Integral as Net Change (15, Example
4-4)General Strategy
16
7.1 Integral as Net Change (16, Example
4-5)General Strategy
17
7.1 Integral as Net Change (17, Example
4-6)General Strategy
18
7.1 Integral as Net Change (18, Example
5-1)Consumption over Time
19
7.1 Integral as Net Change (19, Example
5-2)Consumption over Time
20
7.1 Integral as Net Change (20, Example
5-3)Consumption over Time
21
7.1 Integral as Net Change (21, Example 6)Net
Change from Data
22
7.1 Integral as Net Change (22, Example 7) Work
23
7.2 Areas in the Plane (1) Area Between Curves
How to find the area of a region that is bounded
above by one curve y f(x), and below by
another, y g(x)
24
7.2 Areas in the Plane (2) Area Between Curves
  • We partition the region into vertical strips of
    equal width
  • Dx and approximate each strip with rectangle
    with base
  • parallel to a, b. Each rectangle has

25
7.2 Areas in the Plane (3) Area Between Curves
26
7.2 Area in the Plane (4)Area Between Curves
27
7.2 Areas in the Plane (5, Example 1) Area
Between Curves
28
7.2 Areas in the Plane (6, Exploration 1-1,2)
Area Between Curves
29
7.2 Areas in the Plane (7, Exploration 1-3) Area
Between Curves
30
7.2 Areas in the Plane (8, Exploration 1-4,5)
Area Between Curves
31
7.2 Areas in the Plane (9, Example 2) Area
Enclosed by Intersecting Curves
32
7.2 Areas in the Plane (10, Example 3) Area
Enclosed by Intersecting Curves
33
7.2 Areas in the Plane (11, Example 3) Area
Enclosed by Intersecting Curves
Solving by Matlab syms x fn 2cos(x)-xx1 intf
n int((fn), x, -1.2654, 1.2654) s1
double(intfn)
34
7.2 Areas in the Plane (12, Example 4)
Boundaries with Changing Functions
35
7.2 Areas in the Plane (13, Example 5)
Integrating with Respect to y
36
7.2 Areas in the Plane (14, Example 5)
Integrating with Respect to y
37
7.2 Areas in the Plane (15, Example 6)
Integrating with Respect to y
How about if the integrating with respect to x ?
38
7.2 Areas in the Plane (16, Example 7) Saving
Time with Geometry Formulas
39
7.3 Volumes (1) Volume as an Integral
40
7.3 Volumes (2) Volume as an Integral
41
7.3 Volumes (3) Volume as an Integral
42
7.3 Volumes (4, Example 1) Volume as an Integral
43
7.3 Volumes (5, Example 2) Square Cross Sections
44
7.3 Volumes (6, Example 3) Circular Cross
Sections
45
7.3 Volumes (7, Example 4) Circular Cross
Sections
46
7.3 Volumes (8, Example 5-1) Circular Cross
Sections
47
7.3 Volumes (9, Example 5-2) Circular Cross
Sections
48
7.3 Volumes (10, Example 6) Other Cross Sections
49
7.4 Lengths of Curves (1, Example 1-1) A Sine
Wave
50
7.4 Lengths of Curves (2, Example 1-2) A Sine
Wave
51
7.4 Lengths of Curves (3, Example 1-3) A Sine
Wave
52
7.4 Lengths of Curves (4) Length of a Smooth
Curve
53
7.4 Lengths of Curves (5) Length of a Smooth
Curve
54
7.4 Lengths of Curves (6) Length of a Smooth
Curve
55
7.4 Lengths of Curves (7) Length of a Smooth
Curve
56
7.4 Lengths of Curves (8, Example 2) Length of a
Smooth Curve
57
7.4 Lengths of Curves (9, Example 3) Vertical
Tangents, Corners, and Cusps
58
7.4 Lengths of Curves (10, Example 4) Vertical
Tangents, Corners, and Cusps
59
7.4 Lengths of Curves (11, Example 4) Vertical
Tangents, Corners, and Cusps
By Matlab syms x fn (1(2x3)2)0.5 intfn
int((fn), x, -4, 0) s1 double(intfn) fn
(1(2x-5)2)0.5 intfn int((fn), x, 0, 4) s2
double(intfn) L s1s2
60
7.5 Applications from Science and Statistics (1)
Work Revisited (Example 1-1)
61
7.5 Applications from Science and Statistics (2)
Work Revisited (Example 1-2)
62
7.5 Applications from Science and Statistics (3)
Work Revisited (Example 1-3)
63
7.5 Applications from Science and Statistics (4)
Work Revisited (Example 1-4)
64
7.5 Applications from Science and Statistics (5)
Work Revisited (Example 2)
65
7.5 Applications from Science and Statistics (6)
Fluid Force and Fluid Pressure
66
7.5 Applications from Science and Statistics (7)
Fluid Force and Fluid Pressure (Example 3-a)
67
7.5 Applications from Science and Statistics (8)
Fluid Force and Fluid Pressure (Example 3-b)
68
7.5 Applications from Science and Statistics (9)
Normal Probabilities
omitted
69
Normal Probabilities
70
Normal Probabilities
71
Normal Probabilities
Write a Comment
User Comments (0)
About PowerShow.com