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23 Cards in this Set

  • Front
  • Back

d/dt(t^n)

nt^n-1

d/dt e^at

ae^eat

d/dt(Sin at)

aCosat

d/dt(Cosat)

-aSinat

∫ t^n dt

1/n+1 n^n+1 +c

∫ e^at dt

1/a e^at +c

∫ Cosat dt

1/a Sinat +c

∫ sinat dt

-1/a Cosat +c

d/ dt Tant dt

sec^2t

using the product rule

y= uv then dy/dx = u'v + v'u

quotient rule

if y= u/v then dy/dx= vu' - uv'/ v^2

chain rule

if y= f(u) then dy/dx= dy/du X du/dx

how to differentiate para metrically.

(dy/dx) = (dy/dt)/(dt/dx)

how to differentiate a function where there are functions of x and why and it cannot be rearranged

to differentiate when there are functions of and y that cannot be arranged differentiate dy/dx for the x values and differentiate the y value with respect to y and multiply by dy/dx

how to integrate a function where there are individual functions on each side of the fraction.

express as partial fractions then integrate, ln is likely to be used.

∫ x^n dx

x^n+1/ n+1

∫ 1/x dx

∫ 1/ax+b dx

ln|x|+c


1/a ln|ax+b|+c



Integration by substitution

1. select a value for u.


2. differentiate u to get du/dx


3. find dx/du by putting a 1 over the top.


4. rewrite function in terms of du and u


5. carry out the integration in terms of u


6. rewrite results in terms of x.


ensure that if you are finding the definite integral that you us the correct values for u or x.

∫ f'(x)/f(x) dx

ln|f(x)| +c

∫ uv' dx

uv- ∫ vu' dx +c

∫ 1/ a^2 +x^2

1/a tan^-1(x/a) +c

volume of revolution around x axis
π ∫ y^2

volume of revolution around y axis


rearrange equation into terms of y

π ∫ x^2