∫a(bx+d)^e
a/b X 1/(e+1) (bx+d)^e+1 + c
∫a/(bx+d)
a/b ln(|bx+d|) + c
∫a cos(bx+d)
a/b sin(bx+d) + c
∫a sin(bx+d)
-a/b cos(bx+d) + c
∫sec^2 x
tan(x) + c
∫cosec(x)cot(x)
-cosec(x) + c
∫cosec^2(x)
-cot(x) + c
∫sec(x)tan(x)
sec(x) + c
∫a((f(x))^n where a is a multiple of f’(x)
1/(n+1) X a/f’(x) X (f(x))^n+1 + c
∫af(x)/g(x) where f(x) is a multiple of g’(x)
af(x)/g’(x) ln(g(x))+ c
∫f(x) X e^g(x) where f(x) is a multiple of g’(x)
f(x)/g’(x) e^g(x) + c
Substitution for sin^2(x)
1/2 - 1/2(cos2x)
Substitution for cos^2(x)
1/2 + 1/2(cos2x)
Substitution for tan^2(x)
sec^2(x) - 1
Powers of sec and cosec
Don’t change in integration
Reverse chain rule
Where one component is a multiple of the single derivative of the second component
Add one to the power of the second component and differentiate
Put a multiple at the front so it goes to what you were integrating
Integration by Substitution
Definite Integration by Substitution
Find u for each x and integrate between those
∫u(dv/dx) dx
uv - ∫v(du/dx) dx
Integration by parts process
Repeated integration by parts
When you get a minus the original integral add that to both sides and half
Integrating ln(x)
Integrate 1 ln(x) by parts
When to use partial fractions
If the numerator is not related to the derivative of the denominator and the denominator can be written as the product of linear factors (check for quotient)
Area between two curves
Subtract the lower equation from the higher or integrate separately and subtract depending on if it is possible