A solid foundation in Pre-Calculus will prepare you to excel in Calculus by providing the background for concepts, problems, issues, and techniques you will encounter. Professor Tohoru M. will make sure you understand every concept and reinforce what you learned with many examples. Sample topics include everything from Polar Coordinates and Vectors, to Conic Sections, Trigonometry, and Probability. This course includes other Educator instructors specializing in Trigonometry, Algebra 2, and Statistics to make sure every aspect of Pre-Calculus is covered. Professor Tohoru M. received his B.S. from the Massachusetts Institute of Technology in Chemical Engineering and has over 15 years of experience teaching.
| I. Polar Coordinates and Complex Numbers |
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Polar Coordinates |
29:32 |
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Intro |
0:00 | |
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Rectangular vs. Polar Coordinates |
0:04 | |
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| Describing a Location of a Point on a Plane: Rectangular |
0:07 | |
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| Describing a Location of a Point on a Plane: Polar Coordinate |
3:04 | |
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Coordinate Conversion |
4:23 | |
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| Using SOHCAHTOA |
4:24 | |
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Rectangular to Polar |
6:03 | |
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| Rectangular Coordinate to Polar Coordinates |
6:04 | |
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Polar to Rectangular |
9:16 | |
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| Polar Coordinates to Rectangular Coordinates |
9:19 | |
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Equation Conversion |
11:25 | |
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| Example: Circle with r = 2 |
11:40 | |
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Linear Equation with Slope |
14:57 | |
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| Example: Describing Line |
14:58 | |
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Vertical or Horizontal Line |
18:16 | |
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| |
19:22 | |
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Extra Example 1: Plot the Polar Coordinates |
21:16 | |
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Extra Example 2: plot the polar Coordinates |
23:44 | |
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Extra Example 3: Convert to Linear Equation |
24:56 | |
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Extra Example 4: Convert to Linear Equation |
26:09 | |
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Graphing Polar Coordinates |
64:42 |
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Intro |
0:00 | |
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Six Types of Polar Graphs |
0:07 | |
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| Line |
0:31 | |
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| Circle |
1:08 | |
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| Limacon |
1:46 | |
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| Rose |
2:16 | |
| | |
| Lemniscate |
2:50 | |
| | |
| Spirals |
3:15 | |
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Step in Graphing |
3:50 | |
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| Determine Type of Graph |
4:27 | |
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| Use Information Given by a, b, and n |
4:39 | |
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| Plot Critical Points |
4:52 | |
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Circle |
6:43 | |
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| Circle: r = ncosθ |
6:44 | |
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Circle Example |
8:10 | |
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| Example: r = 6sinθ |
8:13 | |
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Limacon |
12:58 | |
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| Inner Loop |
13:06 | |
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| Cardioid |
20:18 | |
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Limacon, cont. |
26:00 | |
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| Dimpled |
26:05 | |
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| Convex |
31:40 | |
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Rose |
33:30 | |
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| r = a sin nθ |
33:31 | |
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| Length of Petals = a |
33:39 | |
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Rose: Even and Odd |
34:06 | |
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| Even n (2n Petals) |
34:07 | |
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| Odd n (n Petals) |
39:28 | |
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Lemniscate |
41:08 | |
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| 'Bowtie' |
41:09 | |
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| Length of Petals |
41:25 | |
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| Number of Petals |
41:29 | |
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Lemniscate Example |
41:46 | |
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| Example: r² = 9sin2θ |
41:47 | |
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Spiral |
44:13 | |
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| Spiral: r = a + bθ |
44:14 | |
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| Example: r = 2θ |
44:34 | |
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Other Curves |
46:31 | |
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| Conchoid |
47:20 | |
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| Hyperbolic Spiral |
47:35 | |
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| Strophoid |
47:39 | |
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| Logarithmic Spiral |
48:00 | |
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Extra Example 1: Identify Graph |
49:20 | |
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Extra Example 2: Identify Graph |
51:51 | |
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Extra Example 3: Identify Graph |
54:22 | |
| | |
Extra Example 4: Identify Graph |
58:42 | |
| |
Introduction to Complex Numbers |
34:10 |
| | |
Intro |
0:00 | |
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Imaginary Numbers |
0:06 | |
| | |
| n-th Degree Polynomials |
0:40 | |
| | |
| Multiplicities and Complex Roots |
1:04 | |
| | |
| What is an Imaginary Number? |
2:00 | |
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Complex Numbers |
7:27 | |
| | |
| Complex Numbers: a + bi |
7:55 | |
| | |
| Electrical Engineering |
9:00 | |
| | |
Operations with Complex Numbers |
9:53 | |
| | |
| Cartesian, Rectangular, or Algebraic Form |
10:13 | |
| | |
| 1) Addition/ Subtraction |
10:38 | |
| | |
| 2) Multiplication |
12:30 | |
| | |
| 3) Rationalizing the Denominator (Using the Complex Conjugate) |
15:05 | |
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Powers of i |
20:53 | |
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| i = √-1 |
20:58 | |
| | |
Extra Example 1: Add/ Subtract the Complex Numbers |
25:03 | |
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Extra Example 2: Multiply the Complex Numbers |
26:09 | |
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Extra Example 3: Powers of i |
28:39 | |
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Extra Example 4: Rationalize the Denominator Using Complex Conjugate |
30:32 | |
| |
Simplifying Complex Numbers |
38:44 |
| | |
Intro |
0:00 | |
| | |
Negative Sign Under Radical |
1:01 | |
| | |
| Example: Simplifying Negative sign Under Radical |
1:02 | |
| | |
Like Terms |
3:54 | |
| | |
| Example: Simplifying Like Terms |
3:55 | |
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Rationalizing the Denominator |
5:36 | |
| | |
| Example: Simplify 3/i |
5:52 | |
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| Example: Simplify (3+i)/5i |
7:47 | |
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Distribution and FOIL |
10:25 | |
| | |
| Example: 6i(3 - 2i) |
10:49 | |
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| Example: (2 + 4i)(2 - 6i) |
12:02 | |
| | |
Complex Conjugates |
13:54 | |
| | |
| Example: Complex Conjugates |
13:55 | |
| | |
Powers of i |
19:17 | |
| | |
| Example: Find Powers of i |
19:18 | |
| | |
Extra Example 1: Simplify the Expression |
24:28 | |
| | |
Extra Example 2: Simplify the Expression |
28:03 | |
| | |
Extra Example 3: Simplify the Expression |
32:42 | |
| | |
Extra Example 4: Powers of i |
35:10 | |
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Polar Forms of Complex Numbers |
33:50 |
| | |
Intro |
0:00 | |
| | |
Complex Plane |
0:25 | |
| | |
| Definition and Example of Complex Plane |
0:26 | |
| | |
Representing Complex Numbers |
2:51 | |
| | |
| Example: Representing Complex Numbers |
2:55 | |
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Absolute Value of a Complex Number |
4:25 | |
| | |
| Definition of the Absolute Value of a + bi |
4:26 | |
| | |
Trigonometric or Polar Form of a Complex Number |
6:38 | |
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| Trigonometric Form of the Complex Number z = a + bi |
7:00 | |
| | |
| Modulus of z |
8:14 | |
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| Argument of z |
8:27 | |
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Euler's Formula |
9:36 | |
| | |
| Example: Euler's Formula |
9:38 | |
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Complex to Trigonometric |
11:11 | |
| | |
| Example: Write Complex Number in Trigonometric Form |
11:12 | |
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Complex to Standard Form |
16:35 | |
| | |
| Example: Write Complex Number in Standard Form |
16:36 | |
| | |
Extra Example 1: Give the Polar Coordinates |
21:26 | |
| | |
Extra Example 2: Give the Polar Coordinates |
24:11 | |
| | |
Extra Example 3: Find the Rectangular Coordinates |
26:03 | |
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Extra Example 4: Find the Rectangular Coordinates |
30:01 | |
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Products and Quotients of Complex Numbers in Polar Form |
26:12 |
| | |
Intro |
0:00 | |
| | |
Sum and Difference |
0:14 | |
| | |
| Example of Sum and Difference Formulas |
0:16 | |
| | |
Multiplication |
1:00 | |
| | |
| Multiplication Formulas |
1:24 | |
| | |
Multiplications Example |
5:53 | |
| | |
| Example: Find the Product of 2 Complex Numbers |
5:54 | |
| | |
Division |
8:25 | |
| | |
| Methods for Division |
8:26 | |
| | |
| Euler's Equation |
8:58 | |
| | |
Division Example |
10:43 | |
| | |
| Example: Find the Quotient of the Complex Numbers |
10:45 | |
| | |
Extra Example 1: Find the Product |
14:46 | |
| | |
Extra Example 2: Simplify |
17:08 | |
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Extra Example 3: Find the Quotient |
20:18 | |
| | |
Extra Example 4: Find the Quotient |
22:59 | |
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Powers and Roots of Complex Numbers and de Moivre's Formula |
63:15 |
| | |
Intro |
0:00 | |
| | |
Powers of Complex Numbers |
0:19 | |
| | |
| Methods of Finding Powers of Complex Numbers |
0:47 | |
| | |
De Moivre's Formula |
3:07 | |
| | |
| De Moivre's Formula |
3:40 | |
| | |
| De Moivre's Theorem |
3:51 | |
| | |
| De Moivre's Formula Example |
4:56 | |
| | |
| Example: Using De Moivre's Theorem |
4:57 | |
| | |
De Moivre's Formula Example |
9:08 | |
| | |
| Example: Using De Moivre's Theorem |
9:09 | |
| | |
Roots of Complex Numbers |
11:43 | |
| | |
| Equation for Finding the n-th Roots of a Complex Number |
11:44 | |
| | |
Origin of Formula |
13:47 | |
| | |
| Fundamental Theorem of Algebra |
13:48 | |
| | |
Origin of Formula, cont. |
17:37 | |
| | |
| Origin of Formula |
17:38 | |
| | |
n-th Root Example |
22:53 | |
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| Example: Calculate the 6-th Roots |
22:54 | |
| | |
Extra Example 1: De Moivre's Theorem |
29:59 | |
| | |
Extra Example 2: Cube Roots of 8i |
36:50 | |
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Extra Example 3: Find the Four Fourth Roots of -16 |
44:43 | |
| | |
Extra Example 4: Find the 3 Cube Root of -2 + 2i |
52:08 | |
| II. Mathematical Analysis |
| |
Mathematical Induction |
30:39 |
| | |
Intro |
0:00 | |
| | |
What is Induction? |
0:07 | |
| | |
| Example of Mathematical Induction |
0:09 | |
| | |
Historical Background |
1:36 | |
| | |
| French Mathematician Pierre de Fermat |
1:42 | |
| | |
Euler |
2:55 | |
| | |
| Leonhard Euler |
2:57 | |
| | |
Principle of Mathematical Induction |
4:05 | |
| | |
| Example: Statement Involving Positive Integer |
4:08 | |
| | |
Extra Example 1: Mathematical Induction |
6:35 | |
| | |
Extra Example 2: Mathematical Induction |
12:18 | |
| | |
Extra Example 3: Mathematical Induction |
16:08 | |
| | |
Extra Example 4: Mathematical Induction |
21:33 | |
| |
Fundamental Theorem of Algebra |
28:55 |
| | |
Intro |
0:00 | |
| | |
Fundamental Theorem of Algebra |
0:08 | |
| | |
| Fundamental Theorem of Algebra |
0:09 | |
| | |
| Example of the Fundamental Theorem of Algebra |
1:34 | |
| | |
Rational Zero Test |
2:40 | |
| | |
| Rational Zero Test |
2:41 | |
| | |
| Example of the Rational Zero Test |
3:30 | |
| | |
Binomial Factors |
5:47 | |
| | |
| Binomial Factors |
5:48 | |
| | |
| Example of the Binomial Factors |
6:18 | |
| | |
Descarte Rule of Signs |
9:41 | |
| | |
| Descarte Rule of Signs |
9:42 | |
| | |
Descarte Rule of Signs Example |
11:23 | |
| | |
| Example: Describing Polynomial |
11:24 | |
| | |
Extra Example 1: Find Zeroes of a Polynomial Function |
13:09 | |
| | |
Extra Example 2: Find all the Zeroes |
17:37 | |
| | |
Extra Example 3: Find the Polynomial |
21:28 | |
| | |
Extra Example 4: Descarte Rule of Signs |
25:37 | |
| |
Rational Functions |
45:48 |
| | |
Intro |
0:00 | |
| | |
Graph of Rational Functions |
0:06 | |
| | |
| Rational Functions |
0:07 | |
| | |
Vertical Asymptote |
0:53 | |
| | |
| Example: y=1/x |
0:55 | |
| | |
Horizontal Asymptote |
2:52 | |
| | |
| Example: Horizontal Asymptote |
2:53 | |
| | |
Horizontal Asymptote Cases |
4:27 | |
| | |
| 1st Case |
4:40 | |
| | |
| 2nd Case |
7:15 | |
| | |
| 3rd Case |
9:00 | |
| | |
| Special Case |
10:31 | |
| | |
Intercepts |
13:06 | |
| | |
| x-intercepts |
13:15 | |
| | |
| y-intercepts |
14:04 | |
| | |
Discontinuities |
15:29 | |
| | |
| Example: Discontinuities |
15:30 | |
| | |
Examples |
17:08 | |
| | |
| H(x)= 5/(x + 3) |
17:12 | |
| | |
Extra Example 1: Graph and Identify the Function |
22:02 | |
| | |
Extra Example 2: Graph and Identify the Function |
29:04 | |
| | |
Extra Example 3: Graph and Identify the Function |
34:27 | |
| | |
Extra Example 4: Graph and Identify the Function |
41:29 | |
| III. Trigonometry (Functions) |
| |
Angles |
39:05 |
| | |
Intro |
0:00 | |
| | |
Degrees |
0:22 | |
| | |
| Circle is 360 Degrees |
0:48 | |
| | |
| Splitting a Circle |
1:13 | |
| | |
Radians |
2:08 | |
| | |
| Circle is 2 Pi Radians |
2:31 | |
| | |
| One Radian |
2:52 | |
| | |
| Half-Circle and Right Angle |
4:00 | |
| | |
Converting Between Degrees and Radians |
6:24 | |
| | |
| Formulas for Degrees and Radians |
6:52 | |
| | |
Coterminal, Complementary, Supplementary Angles |
7:23 | |
| | |
| Coterminal Angles |
7:30 | |
| | |
| Complementary Angles |
9:40 | |
| | |
| Supplementary Angles |
10:08 | |
| | |
Example 1: Dividing a Circle |
10:38 | |
| | |
Example 2: Converting Between Degrees and Radians |
11:56 | |
| | |
Example 3: Quadrants and Coterminal Angles |
14:18 | |
| | |
Extra Example 1: Common Angle Conversions |
8:02 | |
| | |
Extra Example 2: Quadrants and Coterminal Angles |
7:14 | |
| |
Sine and Cosine Functions |
43:16 |
| | |
Intro |
0:00 | |
| | |
Sine and Cosine |
0:15 | |
| | |
| Unit Circle |
0:22 | |
| | |
| Coordinates on Unit Circle |
1:03 | |
| | |
| Right Triangles |
1:52 | |
| | |
| Adjacent, Opposite, Hypotenuse |
2:25 | |
| | |
| Master Right Triangle Formula: SOHCAHTOA |
2:48 | |
| | |
Odd Functions, Even Functions |
4:40 | |
| | |
| Example: Odd Function |
4:56 | |
| | |
| Example: Even Function |
7:30 | |
| | |
Example 1: Sine and Cosine |
10:27 | |
| | |
Example 2: Graphing Sine and Cosine Functions |
14:39 | |
| | |
Example 3: Right Triangle |
21:40 | |
| | |
Example 4: Odd, Even, or Neither |
26:01 | |
| | |
Extra Example 1: Right Triangle |
4:05 | |
| | |
Extra Example 2: Graphing Sine and Cosine Functions |
5:23 | |
| |
Sine and Cosine Values of Special Angles |
33:05 |
| | |
Intro |
0:00 | |
| | |
45-45-90 Triangle and 30-60-90 Triangle |
0:08 | |
| | |
| 45-45-90 Triangle |
0:21 | |
| | |
| 30-60-90 Triangle |
2:06 | |
| | |
Mnemonic: All Students Take Calculus (ASTC) |
5:21 | |
| | |
| Using the Unit Circle |
5:59 | |
| | |
| New Angles |
6:21 | |
| | |
| Other Quadrants |
9:43 | |
| | |
| Mnemonic: All Students Take Calculus |
10:13 | |
| | |
Example 1: Convert, Quadrant, Sine/Cosine |
13:11 | |
| | |
Example 2: Convert, Quadrant, Sine/Cosine |
16:48 | |
| | |
Example 3: All Angles and Quadrants |
20:21 | |
| | |
Extra Example 1: Convert, Quadrant, Sine/Cosine |
4:15 | |
| | |
Extra Example 2: All Angles and Quadrants |
4:03 | |
| |
Modified Sine Waves: Asin(Bx+C)+D and Acos(Bx+C)+D |
52:03 |
| | |
Intro |
0:00 | |
| | |
Amplitude and Period of a Sine Wave |
0:38 | |
| | |
| Sine Wave Graph |
0:58 | |
| | |
| Amplitude: Distance from Middle to Peak |
1:18 | |
| | |
| Peak: Distance from Peak to Peak |
2:41 | |
| | |
Phase Shift and Vertical Shift |
4:13 | |
| | |
| Phase Shift: Distance Shifted Horizontally |
4:16 | |
| | |
| Vertical Shift: Distance Shifted Vertically |
6:48 | |
| | |
Example 1: Amplitude/Period/Phase and Vertical Shift |
8:04 | |
| | |
Example 2: Amplitude/Period/Phase and Vertical Shift |
17:39 | |
| | |
Example 3: Find Sine Wave Given Attributes |
25:23 | |
| | |
Extra Example 1: Amplitude/Period/Phase and Vertical Shift |
7:27 | |
| | |
Extra Example 2: Find Cosine Wave Given Attributes |
10:27 | |
| |
Tangent and Cotangent Functions |
36:04 |
| | |
Intro |
0:00 | |
| | |
Tangent and Cotangent Definitions |
0:21 | |
| | |
| Tangent Definition |
0:25 | |
| | |
| Cotangent Definition |
0:47 | |
| | |
Master Formula: SOHCAHTOA |
1:01 | |
| | |
| Mnemonic |
1:16 | |
| | |
Tangent and Cotangent Values |
2:29 | |
| | |
| Remember Common Values of Sine and Cosine |
2:46 | |
| | |
| 90 Degrees Undefined |
4:36 | |
| | |
Slope and Menmonic: ASTC |
5:47 | |
| | |
| Uses of Tangent |
5:54 | |
| | |
| Example: Tangent of Angle is Slope |
6:09 | |
| | |
| Sign of Tangent in Quadrants |
7:49 | |
| | |
Example 1: Graph Tangent and Cotangent Functions |
10:42 | |
| | |
Example 2: Tangent and Cotangent of Angles |
16:09 | |
| | |
Example 3: Odd, Even, or Neither |
18:56 | |
| | |
Extra Example 1: Tangent and Cotangent of Angles |
2:27 | |
| | |
Extra Example 2: Tangent and Cotangent of Angles |
5:02 | |
| |
Secant and Cosecant Functions |
27:18 |
| | |
Intro |
0:00 | |
| | |
Secant and Cosecant Definitions |
0:17 | |
| | |
| Secant Definition |
0:18 | |
| | |
| Cosecant Definition |
0:33 | |
| | |
Example 1: Graph Secant Function |
0:48 | |
| | |
Example 2: Values of Secant and Cosecant |
6:49 | |
| | |
Example 3: Odd, Even, or Neither |
12:49 | |
| | |
Extra Example 1: Graph of Cosecant Function |
4:58 | |
| | |
Extra Example 2: Values of Secant and Cosecant |
5:19 | |
| |
Inverse Trigonometric Functions |
32:58 |
| | |
Intro |
0:00 | |
| | |
Arcsine Function |
0:24 | |
| | |
| Restrictions between -1 and 1 |
0:43 | |
| | |
| Arcsine Notation |
1:26 | |
| | |
Arccosine Function |
3:07 | |
| | |
| Restrictions between -1 and 1 |
3:36 | |
| | |
| Cosine Notation |
3:53 | |
| | |
Arctangent Function |
4:30 | |
| | |
| Between -Pi/2 and Pi/2 |
4:44 | |
| | |
| Tangent Notation |
5:02 | |
| | |
Example 1: Domain/Range/Graph of Arcsine |
5:45 | |
| | |
Example 2: Arcsin/Arccos/Arctan Values |
10:46 | |
| | |
Example 3: Domain/Range/Graph of Arctangent |
17:14 | |
| | |
Extra Example 1: Domain/Range/Graph of Arccosine |
4:30 | |
| | |
Extra Example 2: Arcsin/Arccos/Arctan Values |
5:40 | |
| |
Computations of Inverse Trigonometric Functions |
31:08 |
| | |
Intro |
0:00 | |
| | |
Inverse Trigonometric Function Domains and Ranges |
0:31 | |
| | |
| Arcsine |
0:41 | |
| | |
| Arccosine |
1:14 | |
| | |
| Arctangent |
1:41 | |
| | |
Example 1: Arcsines of Common Values |
2:44 | |
| | |
Example 2: Odd, Even, or Neither |
5:57 | |
| | |
Example 3: Arccosines of Common Values |
12:24 | |
| | |
Extra Example 1: Arctangents of Common Values |
5:50 | |
| | |
Extra Example 2: Arcsin/Arccos/Arctan Values |
8:51 | |
| IV. Trigonometry (Identities) |
| |
Pythagorean Identity |
19:11 |
| | |
Intro |
0:00 | |
| | |
Pythagorean Identity |
0:17 | |
| | |
| Pythagorean Triangle |
0:27 | |
| | |
| Pythagorean Identity |
0:45 | |
| | |
Example 1: Use Pythagorean Theorem to Prove Pythagorean Identity |
1:14 | |
| | |
Example 2: Find Angle Given Cosine and Quadrant |
4:18 | |
| | |
Example 3: Verify Trigonometric Identity |
8:00 | |
| | |
Extra Example 1: Use Pythagorean Identity to Prove Pythagorean Theorem |
3:32 | |
| | |
Extra Example 2: Find Angle Given Cosine and Quadrant |
3:55 | |
| |
Identity Tan(squared)x+1=Sec(squared)x |
23:16 |
| | |
Intro |
0:00 | |
| | |
Main Formulas |
0:19 | |
| | |
| Companion to Pythagorean Identity |
0:27 | |
| | |
| For Cotangents and Cosecants |
0:52 | |
| | |
| How to Remember |
0:58 | |
| | |
Example 1: Prove the Identity |
1:40 | |
| | |
Example 2: Given Tan Find Sec |
3:42 | |
| | |
Example 3: Prove the Identity |
7:45 | |
| | |
Extra Example 1: Prove the Identity |
2:22 | |
| | |
Extra Example 2: Given Sec Find Tan |
4:34 | |
| |
Addition and Subtraction Formulas |
52:52 |
| | |
Intro |
0:00 | |
| | |
Addition and Subtraction Formulas |
0:09 | |
| | |
| How to Remember |
0:48 | |
| | |
Cofunction Identities |
1:31 | |
| | |
| How to Remember Graphically |
1:44 | |
| | |
| Where to Use Cofunction Identities |
2:52 | |
| | |
Example 1: Derive the Formula for cos(A-B) |
3:08 | |
| | |
Example 2: Use Addition and Subtraction Formulas |
16:03 | |
| | |
Example 3: Use Addition and Subtraction Formulas to Prove Identity |
25:11 | |
| | |
Extra Example 1: Use cos(A-B) and Cofunction Identities |
7:54 | |
| | |
Extra Example 2: Convert to Radians and use Formulas |
11:32 | |
| |
Double Angle Formulas |
29:05 |
| | |
Intro |
0:00 | |
| | |
Main Formula |
0:07 | |
| | |
| How to Remember from Addition Formula |
0:18 | |
| | |
| Two Other Forms |
1:35 | |
| | |
Example 1: Find Sine and Cosine of Angle using Double Angle |
3:16 | |
| | |
Example 2: Prove Trigonometric Identity using Double Angle |
9:37 | |
| | |
Example 3: Use Addition and Subtraction Formulas |
12:38 | |
| | |
Extra Example 1: Find Sine and Cosine of Angle using Double Angle |
6:10 | |
| | |
Extra Example 2: Prove Trigonometric Identity using Double Angle |
3:18 | |
| |
Half-Angle Formulas |
43:55 |
| | |
Intro |
0:00 | |
| | |
Main Formulas |
0:09 | |
| | |
| Confusing Part |
0:34 | |
| | |
Example 1: Find Sine and Cosine of Angle using Half-Angle |
0:54 | |
| | |
Example 2: Prove Trigonometric Identity using Half-Angle |
11:51 | |
| | |
Example 3: Prove the Half-Angle Formula for Tangents |
18:39 | |
| | |
Extra Example 1: Find Sine and Cosine of Angle using Half-Angle |
7:16 | |
| | |
Extra Example 2: Prove Trigonometric Identity using Half-Angle |
3:34 | |
| V. Trigonometry (Applications) |
| |
Trigonometry in Right Angles |
25:43 |
| | |
Intro |
0:00 | |
| | |
Master Formula for Right Angles |
0:11 | |
| | |
| SOHCAHTOA |
0:15 | |
| | |
| Only for Right Triangles |
1:26 | |
| | |
Example 1: Find All Angles in a Triangle |
2:19 | |
| | |
Example 2: Find Lengths of All Sides of Triangle |
7:39 | |
| | |
Example 3: Find All Angles in a Triangle |
11:00 | |
| | |
Extra Example 1: Find All Angles in a Triangle |
5:10 | |
| | |
Extra Example 2: Find Lengths of All Sides of Triangle |
4:18 | |
| |
Law of Sines |
56:40 |
| | |
Intro |
0:00 | |
| | |
Law of Sines Formula |
0:18 | |
| | |
| SOHCAHTOA |
0:27 | |
| | |
| Any Triangle |
0:59 | |
| | |
| Graphical Representation |
1:25 | |
| | |
| Solving Triangle Completely |
2:37 | |
| | |
When to Use Law of Sines |
2:55 | |
| | |
| ASA, SAA, SSA, AAA |
2:59 | |
| | |
| SAS, SSS for Law of Cosines |
7:11 | |
| | |
Example 1: How Many Triangles Satisfy Conditions, Solve Completely |
8:44 | |
| | |
Example 2: How Many Triangles Satisfy Conditions, Solve Completely |
15:30 | |
| | |
Example 3: How Many Triangles Satisfy Conditions, Solve Completely |
28:32 | |
| | |
Extra Example 1: How Many Triangles Satisfy Conditions, Solve Completely |
8:01 | |
| | |
Extra Example 2: How Many Triangles Satisfy Conditions, Solve Completely |
15:11 | |
| |
Law of Cosines |
49:05 |
| | |
Intro |
0:00 | |
| | |
Law of Cosines Formula |
0:23 | |
| | |
| Graphical Representation |
0:34 | |
| | |
| Relates Sides to Angles |
1:00 | |
| | |
| Any Triangle |
1:20 | |
| | |
| Generalization of Pythagorean Theorem |
1:32 | |
| | |
When to Use Law of Cosines |
2:26 | |
| | |
| SAS, SSS |
2:30 | |
| | |
Heron's Formula |
4:49 | |
| | |
| Semiperimeter S |
5:11 | |
| | |
Example 1: How Many Triangles Satisfy Conditions, Solve Completely |
5:53 | |
| | |
Example 2: How Many Triangles Satisfy Conditions, Solve Completely |
15:19 | |
| | |
Example 3: Find Area of a Triangle Given All Side Lengths |
26:33 | |
| | |
Extra Example 1: How Many Triangles Satisfy Conditions, Solve Completely |
11:05 | |
| | |
Extra Example 2: Length of Third Side and Area of Triangle |
9:17 | |
| |
Finding the Area of a Triangle |
27:37 |
| | |
Intro |
0:00 | |
| | |
Master Right Triangle Formula and Law of Cosines |
0:19 | |
| | |
| SOHCAHTOA |
0:27 | |
| | |
| Law of Cosines |
1:23 | |
| | |
Heron's Formula |
2:22 | |
| | |
| Semiperimeter S |
2:37 | |
| | |
Example 1: Area of Triangle with Two Sides and One Angle |
3:12 | |
| | |
Example 2: Area of Triangle with Three Sides |
6:11 | |
| | |
Example 3: Area of Triangle with Three Sides, No Heron's Formula |
8:50 | |
| | |
Extra Example 1: Area of Triangle with Two Sides and One Angle |
2:54 | |
| | |
Extra Example 2: Area of Triangle with Two Sides and One Angle |
6:48 | |
| |
Word Problems and Applications of Trigonometry |
34:25 |
| | |
Intro |
0:00 | |
| | |
Formulas to Remember |
0:11 | |
| | |
| SOHCAHTOA |
0:15 | |
| | |
| Law of Sines |
0:55 | |
| | |
| Law of Cosines |
1:48 | |
| | |
| Heron's Formula |
2:46 | |
| | |
Example 1: Telephone Pole Height |
4:01 | |
| | |
Example 2: Bridge Length |
7:48 | |
| | |
Example 3: Area of Triangular Field |
14:20 | |
| | |
Extra Example 1: Kite Height |
4:36 | |
| | |
Extra Example 2: Roads to a Town |
10:34 | |
| |
DeMoivre's Theorem |
57:37 |
| | |
Intro |
0:00 | |
| | |
Introduction to DeMoivre's Theorem |
0:10 | |
| | |
| n nth Roots |
3:06 | |
| | |
DeMoivre's Theorem: Finding nth Roots |
3:52 | |
| | |
| Relation to Unit Circle |
6:29 | |
| | |
| One nth Root for Each Value of k |
7:11 | |
| | |
Example 1: Convert to Polar Form and Use DeMoivre's Theorem |
8:24 | |
| | |
Example 2: Find Complex Eighth Roots |
15:27 | |
| | |
Example 3: Find Complex Roots |
27:49 | |
| | |
Extra Example 1: Convert to Polar Form and Use DeMoivre's Theorem |
7:41 | |
| | |
Extra Example 2: Find Complex Fourth Roots |
14:36 | |
| VI. Vectors and Parametric Equations |
| |
Geometric Vectors |
40:10 |
| | |
Intro |
0:00 | |
| | |
Magnitude and Direction |
0:07 | |
| | |
| Describing Quantities |
0:12 | |
| | |
| William Rowan Hamilton |
1:42 | |
| | |
| James Maxwell |
2:04 | |
| | |
Vector Representation |
2:43 | |
| | |
| Scalar |
3:50 | |
| | |
| 2 Vectors may not be Collinear |
4:30 | |
| | |
Algebraically or Geometrically |
5:44 | |
| | |
| Representing Vectors |
5:45 | |
| | |
Adding and Subtracting Vectors |
7:58 | |
| | |
| Addition: u + v |
8:15 | |
| | |
| Subtraction: u - v |
10:16 | |
| | |
Multiplying Vectors |
12:57 | |
| | |
| Scalar Multiplication: 2u + (1/3)v |
12:58 | |
| | |
Unit Vectors |
15:28 | |
| | |
| Standard Vectors Along x and y Axis |
15:29 | |
| | |
Extra Example 1: Sketch 3u - (1/2)v |
17:58 | |
| | |
Extra Example 2: Sketch the Vector |
20:31 | |
| | |
Extra Example 3: Resultant Velocity of a Plane |
22:57 | |
| | |
Extra Example 4: Add the Scalar Multiples |
35:33 | |
| |
Algebraic Representation of Vectors |
54:36 |
| | |
Intro |
0:00 | |
| | |
Component Form |
0:08 | |
| | |
| Component Form |
0:29 | |
| | |
| Using Standard Unit Vector i, j |
1:31 | |
| | |
Vector Operations |
3:21 | |
| | |
| Addition |
3:30 | |
| | |
| Subtraction |
4:24 | |
| | |
| Scalar Multiplication |
5:40 | |
| | |
Unit Vectors |
6:17 | |
| | |
| Example: Find the Unit Vector |
6:36 | |
| | |
| Example: Find the Angle |
9:42 | |
| | |
Dot Product |
12:27 | |
| | |
| Example: Dot Product |
12:28 | |
| | |
Determining Orthogonality |
22:28 | |
| | |
| Example: Orthogonal |
22:29 | |
| | |
| Parallel |
26:07 | |
| | |
Projections |
28:52 | |
| | |
| Finding Vector Components (Projection) |
28:54 | |
| | |
Extra Example 1: Calculate u - v |
35:40 | |
| | |
Extra Example 2: Find the Unit Vector |
36:41 | |
| | |
Extra Example 3: Find the Angle |
39:32 | |
| | |
Extra Example 4: Find the Direction and Magnitude of the Resultant Force |
42:25 | |
| |
Vectors in 3D Space |
50:08 |
| | |
Intro |
0:00 | |
| | |
Algebraic Vector Operations in 3D |
0:07 | |
| | |
| Addition |
1:11 | |
| | |
| Subtraction |
3:10 | |
| | |
| Scalar Multiplication |
4:30 | |
| | |
| Magnitude (Distance Formula) |
4:55 | |
| | |
Algebraic Vector Operations in 3D |
7:54 | |
| | |
| Equation of a Sphere |
8:07 | |
| | |
| Midpoint Formula |
8:56 | |
| | |
| Dot Product |
9:55 | |
| | |
| Angle Between 2 Vectors |
11:00 | |
| | |
| Quadrants/Octants |
14:24 | |
| | |
Cross Product |
16:13 | |
| | |
| Cross Product/ Determinant |
16:17 | |
| | |
Vector and Planes |
21:01 | |
| | |
| Example: x +3y + 6z = 12 |
21:02 | |
| | |
Cartesian Equation |
24:39 | |
| | |
| Cartesian Equation |
24:41 | |
| | |
Equation of the Plane |
31:16 | |
| | |
| Example: Find the Equation of the Plane |
31:17 | |
| | |
Extra Example 1: Find u - v |
33:34 | |
| | |
Extra Example 2: Are the Vectors Perpendicular? |
35:20 | |
| | |
Extra Example 3: Find the Equation of the Plane |
37:32 | |
| | |
Extra Example 4: Non-zero Vector, Equation of a Plane, and Area |
40:16 | |
| |
Vectors and Parametric Equations |
34:10 |
| | |
Intro |
0:00 | |
| | |
Rectangular and Parametric Equations |
0:08 | |
| | |
| Introduction to Rectangular and Parametric Equations |
0:18 | |
| | |
Converting Parametric to Rectangular |
2:35 | |
| | |
| Example: Converting Parametric to Rectangular |
2:36 | |
| | |
Trigonometric Functions |
7:12 | |
| | |
| Example: Trigonometric Functions |
7:13 | |
| | |
Converting Rectangular to Parametric |
10:08 | |
| | |
| Example: Converting Rectangular to Parametric |
10:09 | |
| | |
Extra Example 1: Parametric Equations |
11:43 | |
| | |
Extra Example 2: Rectangular Equations |
15:05 | |
| | |
Extra Example 3: Rectangular Equation |
18:24 | |
| | |
Extra Example 4: Describe the Cycloid |
22:17 | |
| |
Using Parametric Equations to Model Motion |
31:13 |
| | |
Intro |
0:00 | |
| | |
Vector Equations |
0:23 | |
| | |
| Linear Motion |
1:06 | |
| | |
| Parametric Equations |
3:56 | |
| | |
Vector Equations |
5:17 | |
| | |
| Parametric Equations |
5:18 | |
| | |
Parametric Equations on Curves |
7:41 | |
| | |
| Example: Parametric Equations on Curves |
7:42 | |
| | |
Lissajous Curve |
12:17 | |
| | |
| Examples: Lissajous Curve |
12:18 | |
| | |
Extra Example 1: Vector Equation |
16:55 | |
| | |
Extra Example 2: Velocity, Vector Equation, and Parametric Equations |
18:34 | |
| | |
Extra Example 3: Velocity and Speed |
22:27 | |
| | |
Extra Example 4: Hyperbola |
22:52 | |
| VII. Linear Algebra (Matrices) |
| |
Basic Matrix Concepts |
11:34 |
| | |
Intro |
0:00 | |
| | |
What is a Matrix |
0:26 | |
| | |
| Brackets |
0:46 | |
| | |
| Designation |
1:21 | |
| | |
| Element |
1:47 | |
| | |
| Matrix Equations |
1:59 | |
| | |
Dimensions |
2:27 | |
| | |
| Rows (m) and Columns (n) |
2:37 | |
| | |
| Examples: Dimensions |
2:43 | |
| | |
Special Matrices |
4:22 | |
| | |
| Row Matrix |
4:32 | |
| | |
| Column Matrix |
5:00 | |
| | |
| Zero Matrix |
6:00 | |
| | |
Equal Matrices |
6:30 | |
| | |
| Example: Corresponding Elements |
6:36 | |
| | |
Example 1: Matrix Dimension |
8:12 | |
| | |
Example 2: Matrix Dimension |
9:03 | |
| | |
Example 3: Zero Matrix |
9:38 | |
| | |
Example 4: Row and Column Matrix |
10:26 | |
| |
Matrix Operations |
21:36 |
| | |
Intro |
0:00 | |
| | |
Matrix Addition |
0:18 | |
| | |
| Same Dimensions |
0:25 | |
| | |
| Example: Adding Matrices |
1:04 | |
| | |
Matrix Subtraction |
3:42 | |
| | |
| Same Dimensions |
3:48 | |
| | |
| Example: Subtracting Matrices |
4:04 | |
| | |
Scalar Multiplication |
6:08 | |
| | |
| Scalar Constant |
6:24 | |
| | |
| Example: Multiplying Matrices |
6:32 | |
| | |
Properties of Matrix Operations |
8:23 | |
| | |
| Commutative Property |
8:41 | |
| | |
| Associative Property |
9:08 | |
| | |
| Distributive Property |
9:44 | |
| | |
Example 1: Matrix Addition |
10:24 | |
| | |
Example 2: Matrix Subtraction |
11:58 | |
| | |
Example 3: Scalar Multiplication |
14:23 | |
| | |
Example 4: Matrix Properties |
16:09 | |
| |
Matrix Multiplication |
29:36 |
| | |
Intro |
0:00 | |
| | |
Dimension Requirement |
0:17 | |
| | |
| n = p |
0:24 | |
| | |
| Resulting Product Matrix (m x q) |
1:21 | |
| | |
| Example: Multiplication |
1:54 | |
| | |
Matrix Multiplication |
3:38 | |
| | |
| Example: Matrix Multiplication |
4:07 | |
| | |
Properties of Matrix Multiplication |
10:46 | |
| | |
| Associative Property |
11:00 | |
| | |
| Associative Property (Scalar) |
11:28 | |
| | |
| Distributive Property |
12:06 | |
| | |
| Distributive Property (Scalar) |
12:30 | |
| | |
Example 1: Possible Matrices |
13:31 | |
| | |
Example 2: Multiplying Matrices |
17:08 | |
| | |
Example 3: Multiplying Matrices |
20:41 | |
| | |
Example 4: Matrix Properties |
24:41 | |
| |
Determinants |
33:13 |
| | |
Intro |
0:00 | |
| | |
What is a Determinant |
0:13 | |
| | |
| Square Matrices |
0:23 | |
| | |
| Vertical Bars |
0:41 | |
| | |
Determinant of a 2x2 Matrix |
1:21 | |
| | |
| Second Order Determinant |
1:37 | |
| | |
| Formula |
1:45 | |
| | |
| Example: 2x2 Determinant |
1:58 | |
| | |
Determinant of a 3x3 Matrix |
2:50 | |
| | |
| Expansion by Minors |
3:08 | |
| | |
| Third Order Determinant |
3:19 | |
| | |
| Expanding Row One |
4:06 | |
| | |
| Example: 3x3 Determinant |
6:40 | |
| | |
Diagonal Method for 3x3 Matrices |
13:24 | |
| | |
| Example: Diagonal Method |
13:36 | |
| | |
Example 1: Determinant of 2x2 |
18:59 | |
| | |
Example 2: Determinant of 3x3 |
20:03 | |
| | |
Example 3: Determinant of 3x3 |
25:35 | |
| | |
Example 4: Determinant of 3x3 |
29:22 | |
| |
Cramer's Rule |
28:25 |
| | |
Intro |
0:00 | |
| | |
System of Two Equations in Two Variables |
0:16 | |
| | |
| One Variable |
0:50 | |
| | |
| Determinant of Denominator |
1:14 | |
| | |
| Determinants of Numerators |
2:23 | |
| | |
| Example: System of Equations |
3:34 | |
| | |
System of Three Equations in Three Variables |
7:06 | |
| | |
| Determinant of Denominator |
7:17 | |
| | |
| Determinants of Numerators |
7:52 | |
| | |
Example 1: Two Equations |
8:57 | |
| | |
Example 2: Two Equations |
13:21 | |
| | |
Example 3: Three Equations |
17:11 | |
| | |
Example 4: Three Equations |
23:43 | |
| |
Identity and Inverse Matrices |
22:25 |
| | |
Intro |
0:00 | |
| | |
Identity Matrix |
0:13 | |
| | |
| Example: 2x2 Identity Matrix |
0:30 | |
| | |
| Example: 4x4 Identity Matrix |
0:50 | |
| | |
| Properties of Identity Matrices |
1:24 | |
| | |
| Example: Multiplying Identity Matrix |
2:52 | |
| | |
Matrix Inverses |
5:30 | |
| | |
| Writing Matrix Inverse |
6:07 | |
| | |
Inverse of a 2x2 Matrix |
6:39 | |
| | |
| Example: 2x2 Matrix |
7:31 | |
| | |
Example 1: Inverse Matrix |
10:18 | |
| | |
Example 2: Find the Inverse Matrix |
13:04 | |
| | |
Example 3: Find the Inverse Matrix |
17:53 | |
| | |
Example 4: Find the Inverse Matrix |
20:44 | |
| |
Gauss Jordan Method |
58:48 |
| | |
Intro |
0:00 | |
| | |
Two Equations |
0:13 | |
| | |
| Example: Using Substitution/ Elimination |
0:14 | |
| | |
Three Equations or Higher |
2:39 | |
| | |
| History |
2:40 | |
| | |
Row Echelon Form and Back Substitution |
3:58 | |
| | |
| Row-Echelon Form |
5:01 | |
| | |
| Back Substitution |
10:49 | |
| | |
Gaussian Elimination |
12:32 | |
| | |
| Steps in Gaussian Elimination |
12:33 | |
| | |
Augmented Matrix |
15:17 | |
| | |
| Example: Augmented Matrix |
15:18 | |
| | |
| More Example: Augmented Matrix |
17:14 | |
| | |
Gauss-Jordan Elimination |
26:19 | |
| | |
| Example: Gauss-Jordan Elimination |
26:20 | |
| | |
Extra Example 1: Augmented Matrix |
34:21 | |
| | |
Extra Example 2: Augmented Matrix and Row-Echelon Form |
40:58 | |
| | |
Extra Example 3: Gaussian Elimination and Back Substitution |
49:21 | |
| | |
Extra Example 4: Gauss-Jordan Elimination |
52:34 | |
| VIII. Sequences and Series |
| |
Arithmetic Sequences |
21:16 |
| | |
Intro |
0:00 | |
| | |
Sequences |
0:10 | |
| | |
| General Form of Sequence |
0:16 | |
| | |
| Example: Finite/Infinite Sequences |
0:33 | |
| | |
Arithmetic Sequences |
0:28 | |
| | |
| Common Difference |
2:41 | |
| | |
| Example: Arithmetic Sequence |
2:50 | |
| | |
Formula for the nth Term |
3:51 | |
| | |
| Example: nth Term |
4:32 | |
| | |
Equation for the nth Term |
6:37 | |
| | |
| Example: Using Formula |
6:56 | |
| | |
Arithmetic Means |
9:47 | |
| | |
| Example: Arithmetic Means |
10:16 | |
| | |
Example 1: nth Term |
12:38 | |
| | |
Example 2: Arithmetic Means |
13:49 | |
| | |
Example 3: Arithmetic Means |
16:12 | |
| | |
Example 4: nth Term |
18:26 | |
| |
Arithmetic Series |
21:36 |
| | |
Intro |
0:00 | |
| | |
What are Arithmetic Series? |
0:11 | |
| | |
| Common Difference |
0:28 | |
| | |
| Example: Arithmetic Sequence |
0:43 | |
| | |
| Example: Arithmetic Series |
1:09 | |
| | |
| Finite/Infinite Series |
1:36 | |
| | |
Sum of Arithmetic Series |
2:27 | |
| | |
| Example: Sum |
3:21 | |
| | |
Sigma Notation |
5:53 | |
| | |
| Index |
6:14 | |
| | |
| Example: Sigma Notation |
7:14 | |
| | |
Example 1: First Term |
9:00 | |
| | |
Example 2: Three Terms |
10:52 | |
| | |
Example 3: Sum of Series |
14:14 | |
| | |
Example 4: Sum of Series |
18:13 | |
| |
Geometric Sequences |
23:03 |
| | |
Intro |
0:00 | |
| | |
Geometric Sequences |
0:11 | |
| | |
| Common Difference |
0:38 | |
| | |
| Common Ratio |
1:08 | |
| | |
| Example: Geometric Sequence |
2:38 | |
| | |
nth Term of a Geometric Sequence |
4:41 | |
| | |
| Example: nth Term |
4:56 | |
| | |
Geometric Means |
6:51 | |
| | |
| Example: Geometric Mean |
7:09 | |
| | |
Example 1: 9th Term |
12:04 | |
| | |
Example 2: Geometric Means |
15:18 | |
| | |
Example 3: nth Term |
18:32 | |
| | |
Example 4: Three Terms |
20:59 | |
| |
Geometric Series |
22:43 |
| | |
Intro |
0:00 | |
| | |
What are Geometric Series? |
0:11 | |
| | |
| List of Numbers |
0:24 | |
| | |
| Example: Geometric Series |
1:12 | |
| | |
Sum of Geometric Series |
2:16 | |
| | |
| Example: Sum of Geometric Series |
2:41 | |
| | |
Sigma Notation |
4:21 | |
| | |
| Lower Index, Upper Index |
4:38 | |
| | |
| Example: Sigma Notation |
4:57 | |
| | |
Another Sum Formula |
6:08 | |
| | |
| Example: n Unknown |
6:28 | |
| | |
Specific Terms |
7:41 | |
| | |
| Sum Formula |
7:56 | |
| | |
| Example: Specific Term |
8:11 | |
| | |
Example 1: Sum of Geometric Series |
10:02 | |
| | |
Example 2: Sum of 8 Terms |
14:15 | |
| | |
Example 3: Sum of Geometric Series |
18:23 | |
| | |
Example 4: First Term |
20:16 | |
| |
Infinite Geometric Series |
18:32 |
| | |
Intro |
0:00 | |
| | |
What are Infinite Geometric Series |
0:10 | |
| | |
| Example: Finite |
0:29 | |
| | |
| Example: Infinite |
0:51 | |
| | |
| Partial Sums |
1:09 | |
| | |
| Formula |
1:37 | |
| | |
Sum of an Infinite Geometric Series |
2:39 | |
| | |
| Convergent Series |
2:58 | |
| | |
| Example: Sum of Convergent Series |
3:28 | |
| | |
Sigma Notation |
7:31 | |
| | |
| Example: Sigma |
8:17 | |
| | |
Repeating Decimals |
8:42 | |
| | |
| Example: Repeating Decimal |
8:53 | |
| | |
Example 1: Sum of Infinite Geometric Series |
12:15 | |
| | |
Example 2: Repeating Decimal |
13:24 | |
| | |
Example 3: Sum of Infinite Geometric Series |
15:14 | |
| | |
Example 4: Repeating Decimal |
16:48 | |
| |
Recursion and Special Sequences |
14:34 |
| | |
Intro |
0:00 | |
| | |
Fibonacci Sequence |
0:05 | |
| | |
| Background of Fibonacci |
0:23 | |
| | |
| Recursive Formula |
0:37 | |
| | |
| Fibonacci Sequence |
0:52 | |
| | |
| Example: Recursive Formula |
2:18 | |
| | |
Iteration |
3:49 | |
| | |
| Example: Iteration |
4:30 | |
| | |
Example 1: Five Terms |
7:08 | |
| | |
Example 2: Three Terms |
9:00 | |
| | |
Example 3: Five Terms |
10:38 | |
| | |
Example 4: Three Iterates |
12:41 | |
| |
Binomial Theorem |
48:30 |
| | |
Intro |
0:00 | |
| | |
Pascal's Triangle |
0:06 | |
| | |
| Expand Binomial |
0:13 | |
| | |
| Pascal's Triangle |
4:26 | |
| | |
Properties |
6:52 | |
| | |
| Example: Properties of Binomials |
6:58 | |
| | |
Factorials |
9:11 | |
| | |
| Product |
9:28 | |
| | |
| Example: Factorial |
9:45 | |
| | |
Binomial Theorem |
11:08 | |
| | |
| Example: Binomial Theorem |
13:48 | |
| | |
Finding a Specific Term |
18:36 | |
| | |
| Example: Specific Term |
19:26 | |
| | |
Example 1: Expand |
24:39 | |
| | |
Example 2: Fourth Term |
30:26 | |
| | |
Example 3: Five Terms |
36:13 | |
| | |
Example 4: Three Iterates |
45:07 | |
| IX. Analytic Geometry (Conic Sections) |
| |
Midpoint and Distance Formulas |
32:42 |
| | |
Intro |
0:00 | |
| | |
Midpoint Formula |
0:15 | |
| | |
| Example: Midpoint |
0:30 | |
| | |
Distance Formula |
2:30 | |
| | |
| Example: Distance |
2:52 | |
| | |
Example 1: Midpoint and Distance |
4:58 | |
| | |
Example 2: Midpoint and Distance |
8:07 | |
| | |
Example 3: Median Length |
18:51 | |
| | |
Example 4: Perimeter and Area |
23:36 | |
| |
Parabolas |
41:27 |
| | |
Intro |
0:00 | |
| | |
What is a Parabola? |
0:20 | |
| | |
| Definition of a Parabola |
0:29 | |
| | |
| Focus |
0:59 | |
| | |
| Directrix |
1:15 | |
| | |
| Axis of Symmetry |
3:08 | |
| | |
Vertex |
3:33 | |
| | |
| Minimum or Maximum |
3:44 | |
| | |
Standard Form |
4:59 | |
| | |
| Horizontal Parabolas |
5:08 | |
| | |
| Vertex Form |
5:19 | |
| | |
| Upward or Downward |
5:41 | |
| | |
| Example: Standard Form |
6:06 | |
| | |
Graphing Parabolas |
8:31 | |
| | |
| Shifting |
8:51 | |
| | |
| Example: Completing the Square |
9:22 | |
| | |
| Symmetry and Translation |
12:18 | |
| | |
| Example: Graph Parabola |
12:40 | |
| | |
Latus Rectum |
17:13 | |
| | |
| Length |
18:15 | |
| | |
| Example: Latus Rectum |
18:35 | |
| | |
Horizontal Parabolas |
18:57 | |
| | |
| Not Functions |
20:08 | |
| | |
| Example: Horizontal Parabola |
21:21 | |
| | |
Focus and Directrix |
24:11 | |
| | |
| Horizontal |
24:48 | |
| | |
Example 1: Parabola Standard Form |
25:12 | |
| | |
Example 2: Graph Parabola |
30:00 | |
| | |
Example 3: Graph Parabola |
33:13 | |
| | |
Example 4: Parabola Equation |
37:28 | |
| |
Circles |
21:03 |
| | |
Intro |
0:00 | |
| | |
What are Circles? |
0:08 | |
| | |
| Example: Equidistant |
0:17 | |
| | |
| Radius |
0:32 | |
| | |
Equation of a Circle |
0:44 | |
| | |
| Example: Standard Form |
1:11 | |
| | |
Graphing Circles |
1:47 | |
| | |
| Example: Circle |
1:56 | |
| | |
Center Not at Origin |
3:07 | |
| | |
| Example: Completing the Square |
3:51 | |
| | |
Example 1: Equation of Circle |
6:44 | |
| | |
Example 2: Center and Radius |
11:51 | |
| | |
Example 3: Radius |
15:08 | |
| | |
Example 4: Equation of Circle |
16:57 | |
| |
Ellipses |
46:51 |
| | |
Intro |
0:00 | |
| | |
What Are Ellipses? |
0:11 | |
| | |
| Foci |
0:23 | |
| | |
Properties of Ellipses |
1:43 | |
| | |
| Major Axis, Minor Axis |
1:47 | |
| | |
| Center |
1:54 | |
| | |
| Length of Major Axis and Minor Axis |
3:21 | |
| | |
Standard Form |
5:33 | |
| | |
| Example: Standard Form of Ellipse |
6:09 | |
| | |
Vertical Major Axis |
9:14 | |
| | |
| Example: Vertical Major Axis |
9:46 | |
| | |
Graphing Ellipses |
12:51 | |
| | |
| Complete the Square and Symmetry |
13:00 | |
| | |
| Example: Graphing Ellipse |
13:16 | |
| | |
Equation with Center at (h, k) |
19:57 | |
| | |
| Horizontal and Vertical |
20:14 | |
| | |
| Difference |
20:27 | |
| | |
| Example: Center at (h, k) |
20:55 | |
| | |
Example 1: Equation of Ellipse |
24:05 | |
| | |
Example 2: Equation of Ellipse |
27:57 | |
| | |
Example 3: Equation of Ellipse |
32:32 | |
| | |
Example 4: Graph Ellipse |
38:27 | |
| |
Hyperbolas |
38:15 |
| | |
Intro |
0:00 | |
| | |
What are Hyperbolas? |
0:12 | |
| | |
| Two Branches |
0:18 | |
| | |
| Foci |
0:38 | |
| | |
Properties |
2:00 | |
| | |
| Transverse Axis and Conjugate Axis |
2:06 | |
| | |
| Vertices |
2:46 | |
| | |
| Length of Transverse Axis |
3:14 | |
| | |
| Distance Between Foci |
3:31 | |
| | |
| Length of Conjugate Axis |
3:38 | |
| | |
Standard Form |
5:45 | |
| | |
| Vertex Location |
6:36 | |
| | |
| Known Points |
6:52 | |
| | |
Vertical Transverse Axis |
7:26 | |
| | |
| Vertex Location |
7:50 | |
| | |
Asymptotes |
8:36 | |
| | |
| Vertex Location |
8:56 | |
| | |
| Rectangle |
9:28 | |
| | |
| Diagonals |
10:29 | |
| | |
Graphing Hyperbolas |
12:58 | |
| | |
| Example: Hyperbola |
13:16 | |
| | |
Equation with Center at (h, k) |
16:32 | |
| | |
| Example: Center at (h, k) |
17:21 | |
| | |
Example 1: Equation of Hyperbola |
19:20 | |
| | |
Example 2: Equation of Hyperbola |
22:48 | |
| | |
Example 3: Graph Hyperbola |
26:05 | |
| | |
Example 4: Equation of Hyperbola |
36:29 | |
| |
Conic Sections |
18:43 |
| | |
Intro |
0:00 | |
| | |
Conic Sections |
0:16 | |
| | |
| Double Cone Sections |
0:24 | |
| | |
Standard Form |
1:27 | |
| | |
| General Form |
1:37 | |
| | |
Identify Conic Sections |
2:16 | |
| | |
| B = 0 |
2:50 | |
| | |
| X and Y |
3:22 | |
| | |
Identify Conic Sections, Cont. |
4:46 | |
| | |
| Parabola |
5:17 | |
| | |
| Circle |
5:51 | |
| | |
| Ellipse |
6:31 | |
| | |
| Hyperbola |
7:10 | |
| | |
Example 1: Identify Conic Section |
8:01 | |
| | |
Example 2: Identify Conic Section |
11:03 | |
| | |
Example 3: Identify Conic Section |
11:38 | |
| | |
Example 4: Identify Conic Section |
14:50 | |
| |
Solving Quadratic Systems |
47:04 |
| | |
Intro |
0:00 | |
| | |
Linear Quadratic Systems |
0:22 | |
| | |
| Example: Linear Quadratic System |
0:45 | |
| | |
Solutions |
2:49 | |
| | |
| Graphs of Possible Solutions |
3:10 | |
| | |
Quadratic Quadratic System |
4:10 | |
| | |
| Example: Elimination |
4:21 | |
| | |
Solutions |
11:39 | |
| | |
| Example: 0, 1, 2, 3, 4 Solutions |
11:50 | |
| | |
Systems of Quadratic Inequalities |
12:48 | |
| | |
| Example: Quadratic Inequality |
13:09 | |
| | |
Example 1: Solve Quadratic System |
21:42 | |
| | |
Example 2: Solve Quadratic System |
29:13 | |
| | |
Example 3: Solve Quadratic System |
35:02 | |
| | |
Example 4: Solve Quadratic Inequality |
40:29 | |
| X. Probability |
| |
Experiment, Outcomes, and Sample Space |
14:54 |
| | |
Intro |
0:00 | |
| | |
Basic Definitions |
0:29 | |
| | |
| Experiment |
0:35 | |
| | |
| Outcomes |
0:55 | |
| | |
| Sample Space |
1:04 | |
| | |
Examples |
1:34 | |
| | |
| Roll a Die |
1:39 | |
| | |
| Flip a Coin |
2:33 | |
| | |
Simple and Compound Events |
3:30 | |
| | |
| Event |
3:43 | |
| | |
| Simple Event |
3:58 | |
| | |
| Compound Event |
4:27 | |
| | |
Example |
5:14 | |
| | |
Extra Example 1 |
0:59 | |
| | |
Extra Example 2 |
4:21 | |
| |
Calculating Probability |
14:13 |
| | |
Intro |
0:00 | |
| | |
What is Probability |
0:27 | |
| | |
| Range |
0:53 | |
| | |
| Sum of Probabilities |
1:26 | |
| | |
| Example: Football Game |
2:05 | |
| | |
Classical Probability |
2:53 | |
| | |
| Equally Likely Outcomes |
3:05 | |
| | |
| Example: Coin Flip |
4:08 | |
| | |
| Example: Die Roll |
5:12 | |
| | |
Relative Frequency |
6:44 | |
| | |
| Example |
7:22 | |
| | |
Subjective Probability |
9:38 | |
| | |
| Example |
10:06 | |
| | |
Extra Example 1 |
1:04 | |
| | |
Extra Example 2 |
1:33 | |
| |
Probability and Events |
22:08 |
| | |
Intro |
0:00 | |
| | |
Mutually Exclusive Events |
0:17 | |
| | |
| Example: Coin Flip |
0:27 | |
| | |
| Example: Die Roll |
3:03 | |
| | |
Independent Events |
5:13 | |
| | |
| Notation |
3:31 | |
| | |
| Example: Coin |
6:01 | |
| | |
Independent Events, cont. |
9:19 | |
| | |
| Example: Coffee Drinkers |
9:23 | |
| | |
Mutually Exclusive vs Independent |
13:03 | |
| | |
Complementary Events |
14:08 | |
| | |
| Example: Coffee Drinkers |
15:37 | |
| | |
Extra Example 1 |
1:16 | |
| | |
Extra Example 2 |
3:32 | |
| |
Intersection of Events and the Multiplication Rule |
19:58 |
| | |
Intro |
0:00 | |
| | |
Intersection of Events |
0:08 | |
| | |
| Venn Diagram |
1:20 | |
| | |
Multiplication Rule |
2:22 | |
| | |
| Joint Probability |
2:23 | |
| | |
| Example |
3:23 | |
| | |
Example |
6:30 | |
| | |
Multiplication Rule for Independent Events |
10:30 | |
| | |
| Example |
11:39 | |
| | |
Joint Probability of Mutually Exclusive Events |
15:24 | |
| | |
Extra Example 1 |
1:24 | |
| | |
Extra Example 2 |
2:09 | |
| |
Union of Events and the Addition Rule |
18:28 |
| | |
Intro |
0:00 | |
| | |
Union of Events |
0:06 | |
| | |
| Venn Diagram |
0:52 | |
| | |
Addition Rule |
2:01 | |
| | |
| Example: Coffee Drinkers |
3:25 | |
| | |
Example |
6:26 | |
| | |
Addition Rule for Mutually Exclusive Events |
9:11 | |
| | |
Example |
10:27 | |
| | |
Extra Example 1 |
2:41 | |
| | |
Extra Example 2 |
1:15 | |
| |
Bayes' Rule |
16:59 |
| | |
Intro |
0:00 | |
| | |
Partition of Events |
0:07 | |
| | |
| Venn Diagram |
0:17 | |
| | |
Law of Total Probability |
3:12 | |
| | |
Bayes' Rule |
6:11 | |
| | |
Example |
9:09 | |
| | |
Extra Example 1 |
4:07 | |
| |
Probability II |
77:39 |
| | |
Intro |
0:00 | |
| | |
What is Probability |
0:06 | |
| | |
| Foundation of Probability |
0:31 | |
| | |
| What is Probability? |
1:34 | |
| | |
Terms |
5:12 | |
| | |
| Common Probability Terms |
5:13 | |
| | |
Types of Probability Problems |
13:41 | |
| | |
| Probability of Either of 2 Events |
13:44 | |
| | |
Types of Probability Problems |
16:53 | |
| | |
| Probability of Either of 2 Mutually Exclusive Events |
17:08 | |
| | |
'At Least' Problems |
18:29 | |
| | |
| Example: 'At Least' Problem |
18:30 | |
| | |
Likely Scenarios |
24:16 | |
| | |
| Cards, Dice, Flipping Coins, and Colored Marbles |
24:17 | |
| | |
| Example: 'and ' Scenario |
24:54 | |
| | |
| Example: 'or' Scenario |
25:57 | |
| | |
Events Occurring Together |
30:29 | |
| | |
| Example: Conditional Probability |
30:30 | |
| | |
Conditional Probability |
37:10 | |
| | |
| Problems Involving Conditional Probability |
37:11 | |
| | |
Conditional Probability |
44:48 | |
| | |
| Example: Binomial Probability Theorem |
44:57 | |
| | |
Combinations |
51:00 | |
| | |
| Examples: Combinations |
51:14 | |
| | |
Expected Value |
54:08 | |
| | |
| Definition of Expected Value |
54:09 | |
| | |
| Example: Expected Value |
54:27 | |
| | |
Extra Example 1: Conditional Probability |
58:33 | |
| | |
Extra Example 2: Expected Value |
63:39 | |
| | |
Extra Example 3: Marbles |
72:52 | |