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Perplex
Perplex
  • Dashboard
Topics
Exponents & LogarithmsRounding & ErrorSequences & SeriesFinancial MathematicsMatricesComplex Numbers
Cartesian plane & linesFunction TheoryModellingTransformations & asymptotes
2D & 3D GeometryVoronoi DiagramsTrig equations & identitiesVectorsGraph Theory
ProbabilityDescriptive StatisticsBivariate StatisticsDistributions & Random VariablesInference & Hypotheses
DifferentiationIntegrationDifferential Equations
Paper 3
Plus
Calculator Skills
Review VideosFormula BookletAll Study Sets
BlogLanding Page
Sign UpLogin
Perplex
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Integration
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Anti-Derivative Rules
Techniques of Integration
Anti-Derivative Rules
Integration

Anti-Derivative Rules

0 of 0 exercises completed

Basic anti-derivative rules for common functions: ​∫xndx=n+1xn+1​+C​ for ​n=−1,  ​∫sinxdx=−cosx+C,  ​∫cosxdx=sinx+C,  ​∫exdx=ex+C,  ​∫x1​dx=ln∣x∣+C, and ​∫sec2xdx=tanx+C.

Want a deeper conceptual understanding? Try our interactive lesson! (Plus Only)

Anti-Derivative of xⁿ, n∈ℚ
AHL AI 5.11
​
∫xndx=n+1xn+1​+C,n=−1📖
​
Anti-Derivative of e^x
AHL AI 5.11
​
∫exdx=ex+C📖
​
Anti-Derivative of sin and cos
AHL AI 5.11

The integrals of ​sin​ and ​cos​ are

​
∫sinxdx ∫cosxdx​=−cosx+C📖 =sinx+C📖​
​
Anti-Derivative of 1/x
AHL AI 5.11
​
∫x1​dx=ln∣x∣+C📖
​


Why the absolute value?

​x1​​ is defined for ​x<0, but ​lnx​ is not. Specifically:

​
dxd​(ln(−x))=−x−1​=x1​,
​


So ​x1​​ is the derivative of ​lnx​ and of ​ln(−x).


However, we can simplify further. Recall the definition of the absolute value:

​
∣x∣={−xx<0xx>0​.
​

Hence, we have

​
dxd​(ln∣x∣)=x1​
​
​
⟹∫x1​dx=ln(∣x∣)+C.
​
Anti-Derivative leading to tan
AHL AI 5.11
​
∫sec2xdx=tanx+C
​

Nice work completing Anti-Derivative Rules, here's a quick recap of what we covered:

Skills covered

Mixed Practice

Exercises checked off

I'm Plex, here to help you understand this concept!
/
Integration
/
Anti-Derivative Rules
Techniques of Integration
Anti-Derivative Rules
Integration

Anti-Derivative Rules

0 of 0 exercises completed

Basic anti-derivative rules for common functions: ​∫xndx=n+1xn+1​+C​ for ​n=−1,  ​∫sinxdx=−cosx+C,  ​∫cosxdx=sinx+C,  ​∫exdx=ex+C,  ​∫x1​dx=ln∣x∣+C, and ​∫sec2xdx=tanx+C.

Want a deeper conceptual understanding? Try our interactive lesson! (Plus Only)

Anti-Derivative of xⁿ, n∈ℚ
AHL AI 5.11
​
∫xndx=n+1xn+1​+C,n=−1📖
​
Anti-Derivative of e^x
AHL AI 5.11
​
∫exdx=ex+C📖
​
Anti-Derivative of sin and cos
AHL AI 5.11

The integrals of ​sin​ and ​cos​ are

​
∫sinxdx ∫cosxdx​=−cosx+C📖 =sinx+C📖​
​
Anti-Derivative of 1/x
AHL AI 5.11
​
∫x1​dx=ln∣x∣+C📖
​


Why the absolute value?

​x1​​ is defined for ​x<0, but ​lnx​ is not. Specifically:

​
dxd​(ln(−x))=−x−1​=x1​,
​


So ​x1​​ is the derivative of ​lnx​ and of ​ln(−x).


However, we can simplify further. Recall the definition of the absolute value:

​
∣x∣={−xx<0xx>0​.
​

Hence, we have

​
dxd​(ln∣x∣)=x1​
​
​
⟹∫x1​dx=ln(∣x∣)+C.
​
Anti-Derivative leading to tan
AHL AI 5.11
​
∫sec2xdx=tanx+C
​

Nice work completing Anti-Derivative Rules, here's a quick recap of what we covered:

Skills covered

Mixed Practice

Exercises checked off

I'm Plex, here to help you understand this concept!

Generating starter questions...

1 free

Generating starter questions...

1 free