Jocelyn C. teaches Educator's Multivariable Calculus course covering topics such as double integrals, partial derivatives, Lagrange Multipliers, and vector functions. She teaches the course from an engineering and physics standpoint using her background from MIT (B.S.) and Stanford (M.S.), as well as her 10+ years tutoring both in the classroom and online. She utilizes Educator's innovative interface to explain topics using diagrams and then spending the majority of time going over many sample questions which will likely be seen in assignments and tests. Other topics covered include continuity, triple integrals, line integrals, and Green's Theorem.
| I. Introduction to Vector Geometric Spaces |
| |
Three Dimensional Coordinate System |
31:42 |
| | |
Intro |
0:00 | |
| | |
Three Dimensional Coordinate Systems |
0:12 | |
| | |
| Topics Overview |
0:13 | |
| | |
Two Dimensional to Three Dimensional Coordinate Systems |
0:30 | |
| | |
| 'Addresses' of Points in Two Space |
0:31 | |
| | |
| Squares to Cubes |
1:40 | |
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Three Dimensional Coordinate Systems |
2:48 | |
| | |
| Orientation |
2:49 | |
| | |
| Octants |
5:11 | |
| | |
Plotting Points in Three Dimensions |
7:49 | |
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| Plotting Projection |
7:50 | |
| | |
Three Dimensional Distance Formula |
12:32 | |
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| Distance Formula in Two Space |
12:34 | |
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| Distance Formula in Three Space |
13:35 | |
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Curves in Space |
14:38 | |
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| Curves in Space |
14:39 | |
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| Equations of Spheres |
17:40 | |
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Higher Order Dimensions |
20:35 | |
| | |
| Higher Order Dimensions |
20:36 | |
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Example 1: Graphing x=2 in One, Two, and Three Dimensional Space |
24:07 | |
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Example 2: Graphing y=x in Two & Three Dimensional Space |
26:10 | |
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Example 3: Finding the Distance Between P(1,1,1) & Q(2,3,4) |
27:33 | |
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Example 4: Sphere, Center and Radius |
28:40 | |
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Vectors |
42:47 |
| | |
Intro |
0:00 | |
| | |
Vectors |
0:25 | |
| | |
| Topics Overview |
0:26 | |
| | |
Vectors & Components |
0:43 | |
| | |
| Vectors |
0:44 | |
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| Components |
2:50 | |
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Representations, Notation, and Position Vectors |
3:30 | |
| | |
| Representations |
3:31 | |
| | |
| Notations |
6:17 | |
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| Position Vectors |
9:30 | |
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Vector Length and Addition |
10:32 | |
| | |
| Vector Length |
10:33 | |
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| Vector Addition |
12:25 | |
| | |
Triangle Law |
19:54 | |
| | |
| The Triangle Law |
19:56 | |
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| Parallelogram Picture |
21:11 | |
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Scalar Multiplication |
23:19 | |
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| Scalar Vector Multiplication |
23:20 | |
| | |
Basis & Unit Vectors |
26:16 | |
| | |
| Definition of Basis Vectors |
26:18 | |
| | |
| Graphical Representation of Basis Vectors |
26:56 | |
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| Unit Vectors |
29:08 | |
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Properties of Vectors |
30:09 | |
| | |
| Properties of Vectors |
30:10 | |
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Example 1: Finding Vector |
34:00 | |
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Example 2: Finding Vector |
35:02 | |
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Example 3: Expressing Vectors |
38:00 | |
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Example 4: Finding Unit Vector |
40:32 | |
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Dot Products |
25:26 |
| | |
Intro |
0:00 | |
| | |
Dot Products |
0:13 | |
| | |
| Topics Overview |
0:14 | |
| | |
Definition of Dot Product |
0:29 | |
| | |
| Definition of Dot Product |
0:30 | |
| | |
Properties of Dot Products |
3:20 | |
| | |
| Properties of Dot Products |
3:21 | |
| | |
Angles Between Vectors |
7:00 | |
| | |
| Angles Between Vectors, Graphically |
7:01 | |
| | |
| Definition of Angles Between Vectors |
8:33 | |
| | |
| Cosine of Angles Between Vectors |
9:57 | |
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Direction Angles |
10:40 | |
| | |
| Definition of Direction Angles |
10:41 | |
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| Formulas of Direction Angles |
14:16 | |
| | |
Projections |
15:17 | |
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| Projections |
15:18 | |
| | |
| Vector Projections |
17:34 | |
| | |
| Scalar Projections |
18:58 | |
| | |
Example 1: Dot Product |
19:39 | |
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Example 2: Vectors and Dot Product |
20:30 | |
| | |
Example 3: Are a=2i+2j-2k & b=3i+j+4k Perpendicular? |
21:16 | |
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Example 4: Find the Direction Angles of the Vector |
22:44 | |
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The Cross Products |
47:21 |
| | |
Intro |
0:00 | |
| | |
The Cross Product |
0:13 | |
| | |
| Topics Overview |
0:15 | |
| | |
Definition of The Cross Product |
0:32 | |
| | |
| Example: Cross Product |
0:51 | |
| | |
Determinants |
2:51 | |
| | |
| What is a Determinant? |
3:26 | |
| | |
Determinants |
4:10 | |
| | |
| Geometrical Definition |
4:11 | |
| | |
| Simple Rectangle |
4:13 | |
| | |
| Sheared Rectangular |
4:39 | |
| | |
Determinants |
6:14 | |
| | |
| Mathematical Definition |
6:15 | |
| | |
Determinants |
10:22 | |
| | |
| 3 x 3 Matrix |
10:28 | |
| | |
Right Hand Rule |
16:01 | |
| | |
| Cross Product |
16:03 | |
| | |
| Non-Commutable |
17:48 | |
| | |
Lengths of Cross Products |
18:04 | |
| | |
| Parallel Vectors |
23:15 | |
| | |
Propertied of Cross Products |
23:36 | |
| | |
| Vectors a, b, c and Scalar C |
23:40 | |
| | |
Parallelepipeds |
26:31 | |
| | |
| Geometry of Parallelepipeds |
26:48 | |
| | |
| Volume of Parallelepipeds |
27:24 | |
| | |
| Scalar Triple Product |
27:43 | |
| | |
| Coplanar Vectors |
28:45 | |
| | |
Torque |
29:26 | |
| | |
| Torque Equations |
30:52 | |
| | |
Example 1: Finding 'a x b' and 'b x a' |
32:23 | |
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Example 2: Area of Triangle |
37:08 | |
| | |
Example 3: Coplanar |
41:00 | |
| | |
Example 4: Magnitude of Torque |
44:47 | |
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Equations of Lines and Planes |
40:18 |
| | |
Intro |
0:00 | |
| | |
Equations of Lines and Planes |
0:12 | |
| | |
| Topics |
0:14 | |
| | |
Introduction to Vector Functions |
0:39 | |
| | |
| Properties of Vector Functions |
0:59 | |
| | |
Introduction to Vector Functions |
2:04 | |
| | |
| Illustrating Vector Functions |
2:10 | |
| | |
Vector Equations of Lines |
5:07 | |
| | |
| Directional Numbers |
7:20 | |
| | |
Vector Equations of Lines |
8:02 | |
| | |
| Graph: Vector Equation of Lines |
8:12 | |
| | |
Parametric and Symmetric Equations of Lines |
11:30 | |
| | |
| Parametric Equations |
11:47 | |
| | |
| Symmetric Equations |
14:00 | |
| | |
| Skew Lines |
14:38 | |
| | |
Vector Equations of Planes |
15:23 | |
| | |
| Normal Vectors |
16:36 | |
| | |
Scalar and Linear Equations of Planes |
17:37 | |
| | |
| Scalar Equations of Planes |
17:47 | |
| | |
| Linear Equations of Planes |
19:50 | |
| | |
Example 1: Vector and Parametric Forms |
20:56 | |
| | |
Example 2: Symmetric and Parametric Forms |
26:07 | |
| | |
Example 3: Equation of Plane |
31:50 | |
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Example 4: Equation of Plane |
33:57 | |
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Quadratic Surfaces and Cylinders |
48:47 |
| | |
Intro |
0:00 | |
| | |
Quadratic Surfaces |
0:28 | |
| | |
| Topics Overview |
0:29 | |
| | |
Quadric Surfaces |
0:50 | |
| | |
| General Equation of Quadric Surfaces |
0:51 | |
| | |
| Equations of Common Quadratic Surface |
1:35 | |
| | |
Cylinders |
2:10 | |
| | |
| Definition of Cylinders |
2:13 | |
| | |
| Special Cases |
3:34 | |
| | |
Cylinders |
3:53 | |
| | |
| Circular Cylinder |
3:54 | |
| | |
| Equation of Circular Cylinder |
4:50 | |
| | |
| Example: Circular Cylinder |
5:03 | |
| | |
Cylinders |
7:20 | |
| | |
| Elliptical Cylinder |
7:26 | |
| | |
| Equation of Elliptical Cylinder |
7:54 | |
| | |
| Example: Elliptical Cylinder |
8:10 | |
| | |
Cylinders |
8:26 | |
| | |
| Parabolic Cylinder |
8:42 | |
| | |
| Equation of Parabolic Cylinder |
8:57 | |
| | |
| Example: Parabolic Cylinder |
9:06 | |
| | |
Cylinders |
9:24 | |
| | |
| Hyperbolic Cylinder |
9:27 | |
| | |
| Equation of Hyperbolic Cylinder |
10:06 | |
| | |
| Example: Hyperbolic Cylinder |
10:18 | |
| | |
Ellipsoids |
10:34 | |
| | |
| Definition of Ellipsoid |
10:37 | |
| | |
| Equation of Ellipsoid |
10:43 | |
| | |
| General Example |
10:58 | |
| | |
| Spheroid Example |
11:37 | |
| | |
| Spherical Example |
12:21 | |
| | |
Paraboloids |
13:27 | |
| | |
| Definition of Paraboloid |
13:31 | |
| | |
| Elliptical Paraboloid |
13:38 | |
| | |
| Circular Paraboloid |
14:02 | |
| | |
| Hyperbolic Paraboloid |
14:41 | |
| | |
Cones |
15:14 | |
| | |
| Conical Surface |
15:32 | |
| | |
| Equation of Cone |
15:40 | |
| | |
| Example: Cone and Circular Cone |
15:55 | |
| | |
Hyperboloids |
16:19 | |
| | |
| Definition of Hyperboloids |
16:22 | |
| | |
| Hyperboloids of One Sheet |
16:32 | |
| | |
| Hyperboloids of Two Sheets |
16:39 | |
| | |
Hyperboloids of One Sheet |
17:19 | |
| | |
| Equation of Hyperboloids of One Sheet |
17:20 | |
| | |
| Example: Hyperboloids of One Sheet |
17:58 | |
| | |
Hyperboloids of Two Sheets |
18:05 | |
| | |
| Equation of Hyperboloids of Two Sheets |
18:06 | |
| | |
| Definition of Hyperboloids of Two Sheets |
18:39 | |
| | |
| Example: Hyperboloids of One Sheet |
19:06 | |
| | |
| Example: Hyperboloids of Two Sheets |
19:56 | |
| | |
Example 1: Identify and Sketch the Graph |
21:00 | |
| | |
Example 2: Identify and Sketch the Graph |
25:41 | |
| | |
Example 3: Graph of Quadratic |
32:34 | |
| | |
Example 4: Sketch the Graph |
35:40 | |
| |
Cylindrical, Spherical, and Polar Coordinates |
46:35 |
| | |
Intro |
0:00 | |
| | |
Cylindrical and Spherical Coordinates |
0:20 | |
| | |
| Topics Overview |
0:21 | |
| | |
Changing Coordinate Systems |
0:32 | |
| | |
| Different Coordinate Systems |
1:18 | |
| | |
Cylindrical Coordinates |
1:44 | |
| | |
| Transformation Equation: Cylindrical to Rectangular |
3:35 | |
| | |
| Transformation Equation: Rectangular to Cylindrical |
4:12 | |
| | |
Spherical Coordinates |
4:46 | |
| | |
| Terminology of Spherical Coordinates |
5:00 | |
| | |
Spherical Coordinates |
11:42 | |
| | |
| Transformation Equation: Spherical to Rectangular |
12:22 | |
| | |
| Transformation Equation: Rectangular to Spherical |
13:03 | |
| | |
Example 1: Cylindrical and Rectangular Coordinates |
13:26 | |
| | |
Example 2: Identify Surfaces |
21:54 | |
| | |
Example 3: Spherical and Rectangular Coordinates |
27:45 | |
| | |
Example 4: Identify Surfaces |
37:20 | |
| II. Vector Valued Functions |
| |
Vector Functions |
28:02 |
| | |
Intro |
0:00 | |
| | |
Vector Function |
0:13 | |
| | |
| Topics Overview |
0:14 | |
| | |
Introduction to Vector Functions |
0:27 | |
| | |
| Definition of Vector Functions |
0:28 | |
| | |
Introduction to Vector Functions |
1:48 | |
| | |
| Illustrating Vector Functions |
1:49 | |
| | |
Limits and Continuity of Vector Functions |
4:42 | |
| | |
| Limit of Vector Functions |
4:49 | |
| | |
| Continuity of Vector Functions |
5:58 | |
| | |
Space Curves |
7:46 | |
| | |
| Definition of Spaces Curves |
7:47 | |
| | |
| Equations of Space Curves |
8:42 | |
| | |
Types of Space Curves |
10:38 | |
| | |
| Helices |
10:39 | |
| | |
| Tori |
11:56 | |
| | |
Types of Space Curves |
13:01 | |
| | |
| Trefoil Knots |
13:05 | |
| | |
| Twisted Cubics |
13:50 | |
| | |
Example 1: Finding Domain |
14:52 | |
| | |
Example 2: Curve of Vector Function |
20:00 | |
| | |
Example 3: Vector Function |
22:28 | |
| | |
Example 4: Vector Function |
25:04 | |
| |
Calculus of Vector Functions |
20:55 |
| | |
Intro |
0:00 | |
| | |
Vector Functions |
0:15 | |
| | |
| Topics |
0:16 | |
| | |
Definition of the Derivative of Vector Functions |
0:35 | |
| | |
| Definition of the Derivative of Vector Functions |
0:40 | |
| | |
| Convenient Form of Equations |
1:32 | |
| | |
Second Derivatives and Smoothness |
2:33 | |
| | |
| Smoothness |
2:35 | |
| | |
| Second Derivatives of Vector Functions |
3:09 | |
| | |
| Piecewise Smooth |
3:49 | |
| | |
Differentiation Rules for Vector Functions |
4:45 | |
| | |
| Differentiation Rules |
4:46 | |
| | |
Integration and Vector Functions |
8:46 | |
| | |
| Indefinite Integration of Vector Functions |
8:58 | |
| | |
| Definite Integration of Vector Functions |
9:55 | |
| | |
| Fundamental Theorem of Calculus |
10:31 | |
| | |
Example 1: Calculate Limit |
11:12 | |
| | |
Example 2: Compute |
13:32 | |
| | |
Example 3: Indefinite Integral |
14:42 | |
| | |
Example 4: Definite Integral |
17:03 | |
| |
Tangent, Normal, and Binormal Vectors |
31:41 |
| | |
Intro |
0:00 | |
| | |
Tangent, Normal, and Binormal Vectors |
0:14 | |
| | |
| Topics Overview |
0:15 | |
| | |
Tangent Vectors |
0:22 | |
| | |
| Definition of Unit Tangent Vector |
0:24 | |
| | |
Normal Vector |
2:56 | |
| | |
| Definition of Normal Vector |
3:00 | |
| | |
Binormal Vectors |
7:43 | |
| | |
| Definition of the Binormal Vector |
8:06 | |
| | |
| Normal Plane |
9:18 | |
| | |
| Osculating Plane |
10:41 | |
| | |
Example 1: Tangent Vector |
13:01 | |
| | |
Example 2: Vector Equation of Tangent Line |
16:50 | |
| | |
Example 3: Normal Vector |
21:09 | |
| | |
Example 4: Binormal Vector |
27:50 | |
| |
Arc Length and Curvature |
34:52 |
| | |
Intro |
0:00 | |
| | |
Arc Length and Curvature |
0:11 | |
| | |
| Topics Overview |
0:12 | |
| | |
Arc Length |
0:21 | |
| | |
| Arc Length for Parametric Equations Two Dimensions |
0:35 | |
| | |
| Arc Length for Parametric Equations Three Dimensions |
1:44 | |
| | |
Parameterizations |
4:13 | |
| | |
| Parameterization of the Arc Length Function |
4:29 | |
| | |
| Convenient Form |
7:23 | |
| | |
Curvature |
8:16 | |
| | |
| Definition and Example of Curvature |
8:17 | |
| | |
| Convenient Form |
9:13 | |
| | |
Curvature: Special Cases and Equations |
10:28 | |
| | |
| Curvature in Terms of Cross Products |
10:35 | |
| | |
| Curvature of a Plane Curve |
13:40 | |
| | |
Example 1: Curve Length |
14:51 | |
| | |
Example 2: Particle and Arc Length |
17:23 | |
| | |
Example 3: Curvature |
22:34 | |
| | |
Example 4: Curvature |
28:29 | |
| |
Velocity and Acceleration |
48:49 |
| | |
Intro |
0:00 | |
| | |
Velocity and Acceleration |
0:30 | |
| | |
| Topics |
0:31 | |
| | |
Velocity Vectors |
1:19 | |
| | |
| Speed |
1:24 | |
| | |
| Velocity |
2:41 | |
| | |
| Velocity Vector |
4:28 | |
| | |
Acceleration Vectors |
6:26 | |
| | |
| Acceleration Vectors |
6:30 | |
| | |
| Tangent and Normal Components of Acceleration |
7:17 | |
| | |
Acceleration Components and Newton's 2nd Law |
12:08 | |
| | |
| Acceleration Vectors |
12:09 | |
| | |
| Other Formulas For the Tangent and Normal Components of Acceleration |
13:53 | |
| | |
| Newton's Second Law of Motion |
17:02 | |
| | |
Example 1: Velocity, Speed, and Acceleration |
19:55 | |
| | |
Example 2: Particle's Velocity and Position |
23:44 | |
| | |
Example 3: Tangential and Normal Components |
30:11 | |
| | |
Example 4: Velocity |
37:56 | |
| III. Partial Derivatives |
| |
Functions Involving More than One Variable |
46:18 |
| | |
Intro |
0:00 | |
| | |
Functions Involving More than One Variable |
0:30 | |
| | |
| Topics Overview |
0:31 | |
| | |
Introduction to Functions Involving Two Variables |
0:54 | |
| | |
| Definition of Functions of Two Variables |
0:59 | |
| | |
| Domain and Range for Functions of Two Variables |
4:02 | |
| | |
| Independent and Dependent Variables |
5:19 | |
| | |
Tabular Representations |
6:42 | |
| | |
| Examples of Tables Involving Functions of Two Variables |
7:02 | |
| | |
Graphical Representations |
10:24 | |
| | |
| Example Graphs |
10:33 | |
| | |
Level Curves |
12:47 | |
| | |
Level Curves |
14:59 | |
| | |
Level Curves: Topological Maps |
17:10 | |
| | |
Functions of Three Variables |
18:46 | |
| | |
| Definition of Functions of Three Variables |
18:51 | |
| | |
| Level Surfaces |
20:42 | |
| | |
Functions of More Than Three Variables |
23:16 | |
| | |
| Definition of Functions of More Than Three Variables |
23:23 | |
| | |
| Different Perspectives for Functions of 'n' Variables |
28:10 | |
| | |
Example 1: Domain |
30:14 | |
| | |
Example 2: Determine Revenue |
32:20 | |
| | |
Example 3: Heat Source |
39:22 | |
| | |
Example 4: Domain |
44:06 | |
| |
Limits and Continuity |
39:55 |
| | |
Intro |
0:00 | |
| | |
Limits and Continuity |
0:42 | |
| | |
| Topics Overview |
0:43 | |
| | |
Limits of Functions of Two Variables |
0:58 | |
| | |
| Recalling Limits of Functions of One Variables |
1:03 | |
| | |
| Limits of Functions of Two Variables |
3:26 | |
| | |
Continuity |
9:02 | |
| | |
| Example: Continuity |
9:04 | |
| | |
Sandwich Theorem |
11:36 | |
| | |
| Recalling Sandwich Theorem of Functions of One Variable |
11:47 | |
| | |
| Squeeze Theorem of Functions of Two Variables |
14:04 | |
| | |
When Limits Don't Exist |
15:36 | |
| | |
| Non-Existent Limits |
16:21 | |
| | |
| Polynomial and Rational Functions of More than One Variable |
18:26 | |
| | |
Functions That Don't Have Limits at (0,0) |
21:46 | |
| | |
Methods For Taking Limits |
22:20 | |
| | |
| Approaches to Taking Limits |
22:31 | |
| | |
Limits of Functions of More Than One Variable |
25:21 | |
| | |
| Limits of Functions of Three Variables |
25:33 | |
| | |
| Limits of Functions of 'n' Variables |
26:03 | |
| | |
Example 1: Limit |
28:30 | |
| | |
Example 2: Limit |
31:55 | |
| | |
Example 3: Limit |
36:01 | |
| | |
Example 4: Function |
38:24 | |
| |
Partial Derivatives |
47:31 |
| | |
Intro |
0:00 | |
| | |
Partial Derivatives |
0:26 | |
| | |
| Topics Overview |
0:27 | |
| | |
Introduction to Partial Derivatives |
0:52 | |
| | |
| Graphical Representation of Partial Derivatives |
1:11 | |
| | |
| Comparing Partial and Total Derivatives |
4:36 | |
| | |
Definitions of Partial Derivatives |
9:59 | |
| | |
| Partial Derivative of 'f' with respect to x at (a,b) |
10:08 | |
| | |
| Partial Derivative of 'f' with respect to 'y' at (a,b) |
11:50 | |
| | |
Partial Derivatives of Functions of More Than Two Variables |
14:35 | |
| | |
| Partial Derivatives of Functions of Three Variables |
14:43 | |
| | |
| Partial Derivatives of Functions of 'n' Variables |
17:08 | |
| | |
Higher Order Partial Derivatives |
19:52 | |
| | |
| Second Derivatives |
20:56 | |
| | |
| Clairaut's Theorem |
24:54 | |
| | |
Partial Differential Equations |
26:54 | |
| | |
| General Form |
27:37 | |
| | |
| Practical Equations in Physics and Engineering: Wave Equation |
30:26 | |
| | |
| Practical Equations in Physics and Engineering: Laplace's Equation |
32:37 | |
| | |
Example 1: Function |
34:12 | |
| | |
Example 2: First Order of Partial Derivatives |
38:30 | |
| | |
Example 3: First Order of Partial Derivatives |
41:04 | |
| | |
Example 4: Laplace's Equation |
44:11 | |
| |
Tangent Planes and Linear Approximations |
38:33 |
| | |
Intro |
0:00 | |
| | |
Tangent Planes and Linear Approximations |
0:27 | |
| | |
| Topics Overview |
0:28 | |
| | |
Tangent Planes |
0:43 | |
| | |
| Tangent Lines of Functions of One Variable |
0:50 | |
| | |
| Tangents Planes of Multivariables Functions |
1:16 | |
| | |
| Definition of the Tangent Plane of a Function |
1:50 | |
| | |
Linear Approximations |
4:09 | |
| | |
| Tangent Plane of a Function at (a,b) |
4:35 | |
| | |
| Linearization |
5:00 | |
| | |
| Linear Approximation |
6:00 | |
| | |
| Increments |
7:43 | |
| | |
Differentiability and Differentials |
10:16 | |
| | |
| Conditions for Differentiability |
10:24 | |
| | |
| Differentials for Functions of One Variable |
11:57 | |
| | |
| Differentials for Functions of Two Variables |
15:37 | |
| | |
Functions of More Than Two Variables |
17:07 | |
| | |
| Linear Approximations of Functions of Three Variables |
17:31 | |
| | |
| Increment |
19:05 | |
| | |
| Differentials |
19:46 | |
| | |
Example 1: Tangent Plane |
20:38 | |
| | |
Example 2: Linear Approximation |
25:17 | |
| | |
Example 3: Find dz |
30:16 | |
| | |
Example 4: Find dw |
35:22 | |
| |
Chain Rule |
54:57 |
| | |
Intro |
0:00 | |
| | |
Chain Rule |
0:32 | |
| | |
| Topics Overview |
0:33 | |
| | |
Introduction to the Chain Rule |
0:48 | |
| | |
| Chain Rule For Functions of One Variable |
0:55 | |
| | |
| Independent Variable |
2:45 | |
| | |
| Dependent Variable |
3:30 | |
| | |
| Intermediate Variable |
4:09 | |
| | |
| Tree Diagrams |
6:20 | |
| | |
Chain Rule: Special Cases |
11:31 | |
| | |
| Case 1 |
11:33 | |
| | |
| Case 2 |
15:12 | |
| | |
Chain Rule: Special Cases |
18:58 | |
| | |
| Case 3 |
18:59 | |
| | |
Chain Rule: General Case |
23:23 | |
| | |
| General Chain Rule Equation |
23:39 | |
| | |
Implicit Differentiation: F(x,y)=F(xg(x))=0 |
26:27 | |
| | |
| Example: Implicit Differentiation |
27:05 | |
| | |
Implicit Differentiation: F(x,y)=F(xg(x))=0 Cont. |
32:43 | |
| | |
| Example: Implicit Differentiation |
33:14 | |
| | |
Example 1: Tree Diagram |
35:37 | |
| | |
Example 2: Chain Rule |
39:42 | |
| | |
Example 3: Chain Rule |
42:36 | |
| | |
Example 4: Chain Rule |
49:10 | |
| |
Directional Derivatives and Gradient Vectors |
53:42 |
| | |
Intro |
0:00 | |
| | |
Directional Derivatives and Gradient Vectors |
0:23 | |
| | |
| Topics Overview |
0:24 | |
| | |
Definition of Directional Derivatives |
0:43 | |
| | |
| Graphical Representation of Directional Derivatives |
1:28 | |
| | |
| Definition of Directional Derivatives |
4:49 | |
| | |
Computing Directional Derivatives |
6:40 | |
| | |
| Unit Vectors and Directional Derivatives |
7:07 | |
| | |
| Computing Directional Derivatives |
12:45 | |
| | |
Gradient Vectors |
14:51 | |
| | |
| Graphically Defining Gradient Vectors |
15:02 | |
| | |
| Mathematically Defining Gradient Vectors |
15:52 | |
| | |
| Directional Derivatives of Gradient Vectors |
17:00 | |
| | |
Properties of Gradient Vectors |
18:43 | |
| | |
| Properties of Gradient Vectors |
18:52 | |
| | |
| Uses of the Gradient Vectors |
22:51 | |
| | |
Functions of Three Variables |
27:34 | |
| | |
| Definition of the Directional Derivative |
27:40 | |
| | |
| Definition of the Gradient Vector |
28:32 | |
| | |
| Directional Derivative in Terms of Gradient Vector |
29:04 | |
| | |
Gradient Vectors and Tangent Planes |
29:35 | |
| | |
Example 1: Directional Derivative |
37:58 | |
| | |
Example 2: Rate of Change |
42:47 | |
| | |
Example 3: Rate of Change |
48:08 | |
| | |
Example 4: Symmetric Equations |
50:45 | |
| |
Maxima and Minima |
68:06 |
| | |
Intro |
0:00 | |
| | |
Maxima and Minima |
0:17 | |
| | |
| Topics Overview |
0:18 | |
| | |
Minima and Maxima |
0:28 | |
| | |
| Local Maxima |
2:20 | |
| | |
| Local Minima |
3:04 | |
| | |
| Absolute Maxima and Minima |
4:47 | |
| | |
| Partial Derivatives, Minima and Maxima |
7:23 | |
| | |
Critical Points & The Second Derivative Test |
9:08 | |
| | |
| Critical Points |
9:34 | |
| | |
| Second Derivative Test |
15:53 | |
| | |
Extreme Value Theorem |
21:56 | |
| | |
| Closed Region Definitions |
22:24 | |
| | |
| Open Region Definitions |
22:44 | |
| | |
| Bounded Region Definitions |
23:11 | |
| | |
| Extreme Value Theorem |
24:16 | |
| | |
| Method for the Extreme Value Theorem |
27:45 | |
| | |
Example 1: Local Maxima, Local Minima, and Saddle Points |
30:41 | |
| | |
Example 2: Critical Points |
42:37 | |
| | |
Example 3: Absolute Minimum and Absolute Maximum |
48:54 | |
| | |
Example 4: Absolute Minimum and Absolute Maximum |
57:14 | |
| |
Lagrange Multipliers |
36:00 |
| | |
Intro |
0:00 | |
| | |
Lagrange Multipliers |
0:20 | |
| | |
| Topics Overview |
0:21 | |
| | |
Introduction to Lagrange Multipliers |
0:32 | |
| | |
| What Are Lagrange Multipliers? |
0:34 | |
| | |
| Lagrange Multiplier Relational Equation |
2:01 | |
| | |
| Applications of Lagrange Multipliers |
2:36 | |
| | |
Method of Lagrange Multipliers |
3:42 | |
| | |
| How to Use Lagrange Multipliers |
3:49 | |
| | |
Functions With Two Constraints |
8:48 | |
| | |
| Using Lagrange Multipliers with Functions With Two Constraints |
9:01 | |
| | |
Example 1: Products Production |
11:54 | |
| | |
Example 2: Dimensions of Rectangular Box |
18:45 | |
| | |
Example 3: Extreme Values |
26:37 | |
| | |
Example 4: Extreme Values |
31:43 | |
| IV. Multiple Integrals |
| |
Introduction to Double Integrals |
38:39 |
| | |
Intro |
0:00 | |
| | |
Introduction to Double Integrals |
0:20 | |
| | |
| Topics Overview |
0:21 | |
| | |
Riemann Sums and Double Integrals |
0:32 | |
| | |
| Reviewing Definite Integrals |
0:47 | |
| | |
| Volumes and Definite Integrals |
7:18 | |
| | |
The Midpoint Rule and Average Values |
9:34 | |
| | |
| The Midpoint Rule |
9:53 | |
| | |
| Average Values |
12:06 | |
| | |
Properties of Double Integrals |
14:00 | |
| | |
| Properties of Double Integrals 1 |
14:13 | |
| | |
| Properties of Double Integrals 2 |
15:00 | |
| | |
| Properties of Double Integrals 3 |
15:26 | |
| | |
Example 1: Volume of Solid |
16:52 | |
| | |
Example 2: Volume of Solid |
22:18 | |
| | |
Example 3: Midpoint Rule |
28:50 | |
| | |
Example 4: Volume & Average Value |
34:47 | |
| |
Integrating Multivariable Functions |
29:13 |
| | |
Intro |
0:00 | |
| | |
Integrating Multivariable Functions |
0:20 | |
| | |
| Topics Overview |
0:22 | |
| | |
Single Integrals & Multivariable Functions |
0:34 | |
| | |
| General Forms of Single Integrals of Multivariable Functions |
0:41 | |
| | |
| Treating Non-Integrated Variable as a Constant |
1:01 | |
| | |
| Example |
1:55 | |
| | |
Iterated Integrals |
3:04 | |
| | |
| What Are Iterated Integrals? |
3:09 | |
| | |
| Method of Iterated Integrals |
4:48 | |
| | |
Fubini's Theorem |
9:46 | |
| | |
| Definition of Fubini's Theorem |
9:54 | |
| | |
| Reasoning Behind Fubini's Theorem |
11:20 | |
| | |
Example 1: Integration |
13:49 | |
| | |
Example 2: Integration |
15:09 | |
| | |
Example 3: Integration |
21:08 | |
| | |
Example 4: Volume of Solid |
24:08 | |
| |
Double Integrals Over Regions |
47:58 |
| | |
Intro |
0:00 | |
| | |
Double Integrals Over Regions |
0:24 | |
| | |
| Topics Overview |
0:25 | |
| | |
Double Integrals Type 1 |
0:45 | |
| | |
| Graphical Representation |
0:51 | |
| | |
| Definition of Region |
3:05 | |
| | |
| Double Integral |
4:29 | |
| | |
Double Integrals Type 2 |
6:19 | |
| | |
| Graphical Representation |
6:21 | |
| | |
| Definition of Region |
8:44 | |
| | |
| Double Integral |
9:27 | |
| | |
Checklist For Integration |
10:57 | |
| | |
| Rule Number 1 |
11:16 | |
| | |
| Rule Number 2 |
12:30 | |
| | |
| Rule Number 3 |
13:25 | |
| | |
Properties of Double Integrals Over General Regions |
15:22 | |
| | |
| Property 1 |
17:10 | |
| | |
| Property 2 |
18:41 | |
| | |
| Property 3 |
19:18 | |
| | |
Bound Volumes |
20:24 | |
| | |
| Method of Finding Bound Volumes |
21:12 | |
| | |
Example 1: Evaluate |
24:43 | |
| | |
Example 2: Evaluate |
28:56 | |
| | |
Example 3: Volume |
34:24 | |
| | |
Example 4: Volume |
41:19 | |
| |
Double Integrals in Polar Coordinates |
38:46 |
| | |
Intro |
0:00 | |
| | |
Double Integrals In Polar Coordinates |
0:36 | |
| | |
| Topics Overview |
0:38 | |
| | |
Comparing Rectangular & Polar Coordinates |
0:52 | |
| | |
| Example Problem in Rectangular Coordinates |
1:07 | |
| | |
| Same Example Problem in Polar Coordinates |
4:18 | |
| | |
Polar Rectangles & Area Translation |
6:55 | |
| | |
| Polar Rectangles |
7:05 | |
| | |
| Defining dA |
10:43 | |
| | |
Translation Equations |
15:16 | |
| | |
| Polar Rectangular Regions |
16:11 | |
| | |
| General Regions |
18:46 | |
| | |
Example 1:Are Enclosed by Two Loops |
20:51 | |
| | |
Example 2: Find the Area |
24:47 | |
| | |
Example 3: Find the Volume |
29:43 | |
| | |
Example 4: Integrate |
34:08 | |
| |
Triple Integrals |
47:58 |
| | |
Intro |
0:00 | |
| | |
Triple Integrals |
0:18 | |
| | |
| Topics Overview |
0:19 | |
| | |
Definition of Triple Integrals |
0:34 | |
| | |
| Triple Riemann Sums |
0:39 | |
| | |
| Definition |
4:20 | |
| | |
| Fubini's Theorem |
5:41 | |
| | |
Triple Integrals (Type I) |
8:26 | |
| | |
| Graphic |
8:54 | |
| | |
| Formula |
11:06 | |
| | |
Triple Integrals (Type II) |
12:27 | |
| | |
| Graphic |
12:30 | |
| | |
| Formula |
14:15 | |
| | |
Triple Integrals (Type III) |
15:14 | |
| | |
| Graphic |
15:18 | |
| | |
| Formula |
16:26 | |
| | |
Applications of Triple Integrals |
17:19 | |
| | |
| Mass |
17:44 | |
| | |
| Center of Mass |
18:08 | |
| | |
| Moments of Inertia |
21:04 | |
| | |
Applications of Triple Integrals |
22:07 | |
| | |
| Electric Charge |
22:12 | |
| | |
| Probability Density |
22:55 | |
| | |
Example 1: Integrate |
25:37 | |
| | |
Example 2: Integrate |
31:37 | |
| | |
Example 3: Integrate |
34:39 | |
| | |
Example 4: Mass and Constant Density |
40:48 | |
| |
Triple Integrals in Cylindrical and Spherical Coordinates |
42:05 |
| | |
Intro |
0:00 | |
| | |
Triple Integrals in Cylindrical and Spherical Coordinates |
0:19 | |
| | |
| Topics Overview |
0:20 | |
| | |
Cylindrical Coordinates |
0:34 | |
| | |
| Graphical Presentation of Cylindrical Coordinates |
0:35 | |
| | |
| Rectangular to Polar Transformation Equations |
6:53 | |
| | |
| Rectangular to Cylindrical Coordinate Equations |
7:22 | |
| | |
| Rectangular to Cylindrical Transformation Equations |
7:56 | |
| | |
Triple Integrals and Cylindrical Coordinates |
8:26 | |
| | |
| General Triple Integral Equation in Cylindrical Coordinates |
8:28 | |
| | |
| Triple Integral Equation in Cylindrical Coordinates for Polar 'D' Regions |
10:46 | |
| | |
| Conversion Procedures |
13:44 | |
| | |
Spherical Coordinates |
17:14 | |
| | |
| Graphical Presentation of Spherical Coordinates |
17:15 | |
| | |
| Rectangular to Spherical Coordinate Transformation Equations |
22:40 | |
| | |
| Rectangular to Spherical Transformation Equations |
23:39 | |
| | |
Triple Integrals and Spherical Coordinates |
25:41 | |
| | |
| Triple Integral Equation in Spherical Coordinates |
25:57 | |
| | |
| Conversion Procedure |
27:03 | |
| | |
Example 1: Convert Cylindrical Coordinates into Rectangular Coordinates |
28:51 | |
| | |
Example 2: Integrate |
30:21 | |
| | |
Example 3: Write in Spherical Coordinates |
36:14 | |
| | |
Example 4: Integrate |
98:04 | |
| |
Changing Variables in Multiple Integrals |
37:11 |
| | |
Intro |
0:00 | |
| | |
Changing Variables in Multiple Integrals |
0:21 | |
| | |
| Topics Overview |
0:22 | |
| | |
Introduction to Changing Variables |
0:32 | |
| | |
| Changing Variables for Single Integrals |
0:33 | |
| | |
| Changing Variables for Polar Integrals |
1:59 | |
| | |
| General Changing of Variables |
3:08 | |
| | |
Changing Variables for Double Integrals |
5:06 | |
| | |
| Approximation of Area R |
5:07 | |
| | |
| Jacobian of Transformation |
7:53 | |
| | |
| Change of Variables for Double Integrals |
13:19 | |
| | |
Changing Variables for Triple Integrals |
14:24 | |
| | |
| Transformation Equations |
14:26 | |
| | |
| Jacobian of Transformation |
15:09 | |
| | |
| Change of Variables for Triple Integrals |
16:21 | |
| | |
Example 1: Transform the Equation |
17:44 | |
| | |
Example 2: Evaluate |
18:34 | |
| | |
Example 3: Polar Coordinate Change |
25:31 | |
| | |
Example 4: Spherical Coordinate Change |
29:11 | |
| VI. Vector Calculus |
| |
Applications of Double Integrals |
48:33 |
| | |
Intro |
0:00 | |
| | |
Applications of Double Integrals |
0:12 | |
| | |
| Topics Overview |
0:13 | |
| | |
Density & Mass |
0:29 | |
| | |
| Density of a Small Rectangle on 'D' |
0:47 | |
| | |
| Total Mass |
3:10 | |
| | |
| Mass as a Function of Density |
5:04 | |
| | |
Review: Moments & Centers of Mass |
6:10 | |
| | |
| Balancing Equation |
6:14 | |
| | |
| Center of Mass, Simple System |
7:26 | |
| | |
| Center of Mass, n particles |
8:29 | |
| | |
| Moments About x & y |
9:57 | |
| | |
| Centers of Mass |
11:34 | |
| | |
Moments & Centers of Mass |
13:44 | |
| | |
| Moment Approximation |
13:45 | |
| | |
| Moment About x |
15:15 | |
| | |
| Moment About y |
16:17 | |
| | |
| Centers of mass |
17:07 | |
| | |
Moment of Inertia |
18:50 | |
| | |
| Definition |
18:51 | |
| | |
| Procedure |
19:28 | |
| | |
| Moment of Inertia About x |
20:58 | |
| | |
| Moment of Inertia About y |
21:58 | |
| | |
| Moment of Inertia About Origin (Polar Moment of Inertia) |
22:50 | |
| | |
Probability |
24:35 | |
| | |
| Probability Density as a Function of One Variable |
24:36 | |
| | |
| Vocabulary: Independent Random Variables |
25:33 | |
| | |
| Probability Density as a Function of Two Variables (Joint Density Function) |
26:09 | |
| | |
| Normalized Probability Density Function |
27:31 | |
| | |
Expected Values |
29:25 | |
| | |
| Mean of Single Variable Probability Density Function |
29:26 | |
| | |
| Expected Values of x & y |
29:54 | |
| | |
| Two Variable Joint Density Function for Normal Distributions |
30:27 | |
| | |
Example 1: Charge Density |
32:04 | |
| | |
Example 2: Moments of Inertia |
35:39 | |
| | |
Example 3: Joint Density |
40:17 | |
| | |
Example 4: Joint Density |
42:17 | |
| |
Area, Surface Area, and Volume |
31:07 |
| | |
Intro |
0:00 | |
| | |
Area, Surface Area, and Volume |
0:17 | |
| | |
| Topics Overview |
0:18 | |
| | |
Area and Surface Area |
0:26 | |
| | |
| Area Formula |
0:27 | |
| | |
| Approximate Surface Area Formula |
6:02 | |
| | |
| Surface Area Integral Expressions |
6:48 | |
| | |
Volume |
8:33 | |
| | |
| Triple Integral Volume Expression |
8:47 | |
| | |
| Volume Functions for z=f(x,y) |
9:40 | |
| | |
| Volume Functions for y=f(x,z) |
10:34 | |
| | |
| Volume Functions for x=f(y,z) |
10:47 | |
| | |
Example 1: Find the Surface Area |
11:11 | |
| | |
Example 2: Find the Surface Area of the Paraboloid |
15:31 | |
| | |
Example 3: Find the Surface Area of a Sphere |
19:58 | |
| | |
Example 4: Find the Volume of a Sphere |
26:04 | |
| V. Vector Calculus |
| |
Vector Fields |
35:54 |
| | |
Intro |
0:00 | |
| | |
Vector Fields |
0:16 | |
| | |
| Topics Overview |
0:17 | |
| | |
Vector Fields In Two Space |
0:28 | |
| | |
| Definition |
0:31 | |
| | |
| Examples |
3:50 | |
| | |
Vector Fields In Three Space |
7:11 | |
| | |
| Definition |
7:12 | |
| | |
| Examples |
9:08 | |
| | |
Gradients Fields |
15:25 | |
| | |
| Definition |
15:56 | |
| | |
| Conservative Vector Fields |
18:00 | |
| | |
Example 1: Sketch The Vector Field |
19:30 | |
| | |
Example 2: Sketch The Vector Field |
25:40 | |
| | |
Example 3: Sketch The Vector Field |
29:36 | |
| | |
Example 4: Sketch The Gradient Vector |
34:41 | |
| |
Line Integrals |
39:42 |
| | |
Intro |
0:00 | |
| | |
Line Integrals |
0:25 | |
| | |
| Topics Overview |
0:26 | |
| | |
Review of Parametric Equations |
0:43 | |
| | |
| Review of Parametric Formulas |
0:45 | |
| | |
| Example Curve: Smooth |
7:27 | |
| | |
| Example Curve: Parametric Equation |
7:50 | |
| | |
| Example Curve: Parameterization as a Vector Function |
8:09 | |
| | |
Introduction to Line Integrals |
8:24 | |
| | |
| Line Integrals as a Sum |
8:31 | |
| | |
| Reviewing Arc Length |
10:58 | |
| | |
| Definition: General Line Integral |
11:29 | |
| | |
| Definition: Line Integral from a to b |
11:48 | |
| | |
| Definition: Line Integrals in Terms of Vectors |
12:53 | |
| | |
Piecewise Smooth and Path Direction |
14:48 | |
| | |
| Piecewise Smooth |
14:51 | |
| | |
| Path Direction |
17:23 | |
| | |
Line Integrals with Respect to Specific Variables |
21:25 | |
| | |
| Line Integral with Respect to x |
21:34 | |
| | |
| Line Integral with Respect to y |
21:58 | |
| | |
| Combined Equation |
22:28 | |
| | |
Line Integrals in Three Space |
23:31 | |
| | |
| Line Integrals In Space |
23:39 | |
| | |
| Line Integrals in Space with Respect to Specific Variables |
25:51 | |
| | |
Example 1: Evaluate |
28:16 | |
| | |
Example 2: Evaluate |
30:57 | |
| | |
Example 3: Evaluate |
33:05 | |
| | |
Example 4: Evaluate |
35:49 | |
| |
Line Integrals of Vector Fields |
27:41 |
| | |
Intro |
0:00 | |
| | |
Line Integrals of Vector Fields |
0:28 | |
| | |
| Topics Overview |
0:29 | |
| | |
Introduction to Line Integrals of Vector Fields |
0:40 | |
| | |
| Reviewing Vector Fields |
0:47 | |
| | |
| Work Done by a Continuous Force |
1:45 | |
| | |
Defining Line Integrals of Vector Fields |
6:31 | |
| | |
| General Definition |
6:34 | |
| | |
| Deriving the General Definition |
8:09 | |
| | |
Procedure for Finding Line Integrals of Vector Functions |
10:09 | |
| | |
| Steps in Fiding Line Integrals of Vector Functions |
10:14 | |
| | |
Example 1: Force Field |
12:25 | |
| | |
Example 2: Evaluate |
15:49 | |
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Example 3: Evaluate |
19:06 | |
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Example 4: Evaluate |
24:15 | |
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Fundamental Theorem for Line Integrals |
51:04 |
| | |
Intro |
0:00 | |
| | |
The Fundamental Theorem for Line Integrals |
0:39 | |
| | |
| Topics Overview |
0:41 | |
| | |
Defining & Deriving the Fundamental Theorem |
0:55 | |
| | |
| Fundamental Theorem of Calculus for Definite Integrals |
0:57 | |
| | |
| Fundamental Theorem of Calculus for Line Integrals |
1:23 | |
| | |
Reviewing & Defining Terminology |
9:13 | |
| | |
| Definitions and Review |
9:19 | |
| | |
Path Independence |
18:57 | |
| | |
| Example: Closed Path |
19:04 | |
| | |
Conservative Vector Fields |
26:11 | |
| | |
| Example: Conservative Vector Field |
26:13 | |
| | |
Conservation of Energy |
31:50 | |
| | |
| Examples |
32:04 | |
| | |
Example 1: Evaluate |
37:45 | |
| | |
Example 2:Conservative |
41:01 | |
| | |
Example 3: Evaluate |
42:42 | |
| | |
Example 4: Integrate and Differentiate |
46:31 | |
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Green's Theorem |
33:21 |
| | |
Intro |
0:00 | |
| | |
Green's Theorem |
0:09 | |
| | |
| Overview |
0:10 | |
| | |
Defining Green's Theorem |
0:22 | |
| | |
| Orientation of Green's Theorem |
0:23 | |
| | |
| Definition of Green's Theorem |
2:00 | |
| | |
Green's Theorem for Regions with Holes |
5:01 | |
| | |
| Green's Theorem for Regions with Holes |
5:02 | |
| | |
Finding Area with Line Integrals |
13:19 | |
| | |
| Finding Area with Line Integrals |
13:20 | |
| | |
Example 1: Evaluate |
17:10 | |
| | |
Example 2: Evaluate |
21:13 | |
| | |
Example 3: Find the Area |
24:32 | |
| | |
Example 4: Evaluate |
28:26 | |
| |
Parametric Surfaces |
44:15 |
| | |
Intro |
0:00 | |
| | |
Parametric Surfaces |
0:19 | |
| | |
| Topics Overview |
0:20 | |
| | |
Introduction to Parametric Surfaces |
0:32 | |
| | |
| Review of Parametric Equations |
0:33 | |
| | |
| Parametric Surfaces |
2:22 | |
| | |
| Equations of Parametric Surfaces |
4:18 | |
| | |
Surfaces of Revolution |
5:59 | |
| | |
| Surfaces of Revolution |
6:01 | |
| | |
| Revolving Surfaces about the x-axis |
8:05 | |
| | |
Tangent Planes |
8:35 | |
| | |
| Tangent Planes & Parametric Surfaces |
8:37 | |
| | |
Surface Areas of Parametric Surfaces |
15:25 | |
| | |
| Defining the Surface Area of Parametric Surface |
15:27 | |
| | |
Example 1: Find the Surface Given by the Parametric Representation |
22:08 | |
| | |
Example 2: Give the Parametric Representation of the Sphere |
24:45 | |
| | |
Example 3: Find the Tangent Plane to the Surface with the Parametric Equations |
28:17 | |
| | |
Example 4: Find the Surface Area of a Sphere of Radius 2 |
36:24 | |
| |
Surface Integrals |
51:43 |
| | |
Intro |
0:00 | |
| | |
Surface Integrals |
0:11 | |
| | |
| Topics Overview |
0:12 | |
| | |
Introduction to Surface Integrals |
0:27 | |
| | |
| Defining Surface Integrals |
0:28 | |
| | |
| Surface Integral Equations |
3:32 | |
| | |
Surface Integrals of Parametric Surfaces |
8:13 | |
| | |
| Graphically |
8:14 | |
| | |
| Parameterization |
12:23 | |
| | |
Oriented Surfaces |
13:45 | |
| | |
| Non-oriented Surfaces |
13:47 | |
| | |
| Oriented Surfaces |
15:36 | |
| | |
Surface Integrals of Vector Fields |
21:52 | |
| | |
| Graphically |
21:53 | |
| | |
| Equations |
23:01 | |
| | |
Surface Integrals, Parametric Surfaces, & Vector Fields |
30:10 | |
| | |
| Equations of Parametric Surfaces |
30:11 | |
| | |
Example 1: Evaluate |
32:52 | |
| | |
Example 2: Evaluate |
37:10 | |
| | |
Example 3: Use Surface Integrals to Find the Area of a Disk |
42:16 | |
| | |
Example 4: Evaluate |
46:52 | |