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Integrating Rational Polynomials (Example)
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Classroom Contents
Advanced Integration Techniques - Partial Fractions, Integration by Parts, and Recurrence Relations
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- 1 Integrating Rational Polynomials (Example)
- 2 Partial Fractions (example with cubic denominator)
- 3 Partial Fractions for Integrating Rational Polynomials
- 4 Partial Fractions w/ Perfect Square Denominators
- 5 Rearranging Rational Polynomials w/ Division Transformation
- 6 Deriving Integration by Parts
- 7 Integration by Parts - Example 1: x cos x
- 8 Integration by Parts - Example 2: x*e^x & x²*e^x
- 9 Integration by Parts - Example 3: ln x
- 10 Integration by Parts - Example 4: e^x * sin x
- 11 An unusual integral with two very different solutions?
- 12 Integration by Parts - Example 5: sin¯¹(x)
- 13 Integrals that lead to Logarithmic Functions
- 14 Introduction to Recurrence Relations
- 15 Recurrence Relation Example: Integrating (sin x)^n
- 16 Recurrence Relations without IBP (1 of 2): (tan x)^n
- 17 Recurrence Relations without IBP (2 of 2): (x^n)/(x+1)
- 18 Sometimes integration by parts is a bad idea...
- 19 Integrating with t-results (1 of 3): Example integral through identities
- 20 Integrating with t-results (2 of 3): Changing the variable of integration
- 21 Integrating with t-results (3 of 3): Further example
- 22 Why do logarithmic functions have absolute value signs after integration?
- 23 Integrating √[x/(1-x)] by Trigonometric Substitution
- 24 Correction of Wrong Solution from Fitzpatrick (integration question)
- 25 Tricky Recurrence Relation with Unexpected Algebraic Manipulation
- 26 Evaluating Recurrence Relations
- 27 Proving Properties of Definite Integrals (1 of 2)
- 28 Proving Properties of Definite Integrals (2 of 2)
- 29 3 Definite Integrals Evaluated by Trigonometric Substitution
- 30 Integrating √(16-x²)/x² by Trigonometric Substitution
- 31 Integrating √[(1+x)/(1-x)] by Trigonometric Substitution
- 32 Evaluating Definite Integral w/ t-results
- 33 Integral of sin(x)tan²(x): Three Approaches
- 34 Proving Inequality from an Increasing Function
- 35 Proving Inequality from Prior Integral
- 36 Proving that a function is increasing
- 37 Using Properties of Definite Integrals: Trigonometric Integrand (1 of 2)
- 38 Determining Algebraic Recurrence Relation
- 39 Expressing I(n) without Recursion
- 40 Using Properties of Definite Integrals: Trigonometric Integrand (2 of 2)
- 41 Harder (Ext 2) Integral Requiring Substitution
- 42 Harder (Ext 2) Integral Question (1 of 2: Manipulating the Recurrence Relation)
- 43 Harder (Ext 2) Integral Question (2 of 2: Evaluating Related Limiting Sum)
- 44 Partial Fractions (1 of 3: Introducing an identity to simplify a quadratic denominator)
- 45 Partial Fractions (2 of 3: An alternative method to find introduced variables)
- 46 Partial Fractions (3 of 3: How to use Partial Fractions to split fractions with Quadratic Numerator)
- 47 Partial Fractions: Quadratic Factors (1 of 2: Issues with non-linear denominator factors)
- 48 Partial Fractions: Quadratic Factors (2 of 2: Problems with Quadratic Factors and Solution)
- 49 Partial Fraction: Repeated Linear Factors (Technique for Breaking down into partial fractions)
- 50 Integration of Square Root Function (1 of 2: Using a Trig Substitution to help with integration)
- 51 Integration of Square Root Function (2 of 2: What is this kind of integral solving for?)
- 52 Further Integration (1 of 2: Brief Overview of Extension II Integration)
- 53 Further Integration (2 of 2: Integrating Trig Functions without given substitution)
- 54 Further Integration [Continued] (1 of 3: Using Double Angle & Completing the Square to integrate)
- 55 Further Integration [Continued] (2 of 3: Adding and subtracting a constant to simplify integral)
- 56 Further Integration [Continued] (3 of 3: 'Breaking Apart' Integrals to simplify for integration)
- 57 Partial Fractions & Integration (Using Partial Fractions to simplify an integral for evaluation)
- 58 Harder Reverse Chain Rule Integral (Using a Substitution and Restrictions to evaluate)
- 59 Proving a Result from the Standard Integrals (1 of 3: Differentiate, Hence Integrate Proof)
- 60 Proving a Result from the Standard Integrals (2 of 3: Substituting tan to simplify the integral)
- 61 Proving a Result from the Standard Integrals (3 of 3: Using Partial Fractions to simplify sec)
- 62 Integration with t-results (1 of 2: Changing the variable of integration)
- 63 Integration with t-results (2 of 2: Dealing with the integral in t)
- 64 Integration by Parts (1 of 3: Deriving the Formula)
- 65 Integration by Parts (2 of 3: How to choose u & dv)
- 66 Integration by Parts (3 of 3: Integral of sin¯¹(x))
- 67 Integration by t results (Explanation of Harder Question)
- 68 Integration by Parts (What to choose for u and dv for integration by parts?)
- 69 Integration with t Results (1 of 2: Changing the variable to solve with t results)
- 70 Integration with t Results (2 of 2: Simplifying the integral before applying t results)
- 71 Recurrence Relations (1 of 4: Introduction to Recurrence relations with introductory examples)
- 72 Recurrence Relations (2 of 4: Considering if the question consists of some arbitrary power of n)
- 73 Recurrence Relations (3 of 4: Applying to Trigonometric Functions raised to power of n)
- 74 Recurrence Relations (4 of 4: Integration by parts with definite integrals)
- 75 Evaluating Recurrence Relations (1 of 4: When do you apply Recurrence Relations?)
- 76 Evaluating Recurrence Relations (2 of 4: Using Integration of parts to build recurring pattern)
- 77 Evaluating Recurrence Relations (3 of 4: Using Recurring Pattern to group Relation in a series)
- 78 Evaluating Recurrence Relations (4 of 4: Finding a term free of integrals)
- 79 Extension 2 Exam Review (1 of 7: Integration by Substitution, Partial Fractions)
- 80 Extension 2 Exam Review (2 of 7: Recurrence Relation, Graph Transformations)
- 81 Mathematics Extension 1 Exam Review (1 of 3: Integration by substitution)
- 82 Integration by Parts (2 of 2: When the integrand doesn't look like a product)
- 83 Integration by Parts (1 of 2: Arranging the integral with DETAIL)
- 84 Integration with Quadratic Denominators (3 of 3: Rationalising the numerator)
- 85 Integration with Quadratic Denominators (2 of 3: Distinguishing characteristics)
- 86 Integration with Quadratic Denominators (1 of 3: Introduction - why are they challenging?)
- 87 Partial Fractions (3 of 3: Three solution methods)
- 88 Partial Fractions (2 of 3: What are they?)
- 89 Partial Fractions (1 of 3: Review questions)
- 90 Integration by Unspecified Substitution (3 of 3: Trigonometric example)
- 91 Integration by Unspecified Substitution (2 of 3: Square root example)
- 92 Integration by Unspecified Substitution (1 of 3: Introductory example)
- 93 Intro to Further Integration (2 of 2: Foundational examples)
- 94 Intro to Further Integration (1 of 2: Expanding on prior learning)
- 95 Recurrence Relations (3 of 3: Trigonometric examples)
- 96 Recurrence Relations (2 of 3: Exponential example)
- 97 Recurrence Relations (1 of 3: Introduction & logarithmic example)
- 98 Recurrence Relation - worked example (1 of 2: Integration by parts)
- 99 Recurrence Relation - worked example (2 of 2: Connecting the integrals)
- 100 Logarithmic integral with recurrence relation (Exam Question 4 of 10)
- 101 Integral via partial fractions (Exam Question 9 of 10)
- 102 Reverse chain rule integral (Exam Question 7 of 10)
- 103 Recurrence Relation (1 of 6: Setting up integration by parts)
- 104 Recurrence Relation (2 of 6: Relating consecutive integrals)
- 105 Recurrence Relation (3 of 6: Establishing the pattern)
- 106 Integrating sec⁸θ
- 107 Inequality proof from integration by parts
- 108 Recurrence Relation (4 of 6: Expressing without integrals)
- 109 Recurrence Relation (5 of 6: Trigonometric substitution)
- 110 Recurrence Relation (6 of 6: Proving an inequality)
- 111 Integration: how to choose boundaries with trigonometric substitution
- 112 Integration by substitution (two ways)