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40 Cards in this Set

  • Front
  • Back
cos^2(x)
1/2 (1+cos(2x)
sin^2(x)
1/2(1-cos(2x)
derivative of:

sin(x)
integral of:

cos(x)
derivative of:

cos(x)
integral of:

-sin(x)
derivative of:

tan(x)
integral of:

sec^2(x)
derivative of:

csc(x)
integral of:

-csc(x)cot(x)
derivative of:
sec(x)
integral of:

sec(x)tan(x)
derivative of:

cot(x)
integral of:

-csc^2(x)
sin^2(x) + cos^2(x)=?
1
tan^2(x)+1=?
sec^2(x)
1 + cos^2(x)=?
csc^2(x)=?
derivative of:

sin^-1(x)
integral of

1/sqrt(1-x^2)
derivative of:

cos^-1(x)
integral of

-1/sqrt(1-x^2)
derivative of:

tan^-1(x)
integral of:

1/(1+x^2)
derivative of:

a^x
integral of:

a^x ln(a)
derivative of:

e^x
integral of:

e^x
derivative of:

ln(x)
integral of:

1/x, x>0
derivative of:

loga(x)
integral of:

1/xln(a)
derivative of:

sinh(x)
integral of:

cosh(x)
derivative of:

cosh(x)
integral of:

sinh(x)
derivative of:

tanh(x)
integral of:

sech^2(x)
integral of:

ln(u)du
uln(u)-u +c
integral of:

tan(u)du
ln(abs(sec(u))) +c
integral of:

sec(u)du
ln(abs(sec(u)+tan(u))+c
integral of:

csc^2(u)du
-cot(u)+c
integral of:

cot(u)du
ln(abs(sin(u)) +c
integral of:

1/sqrt(a^2 - u^2) du
arcsin(u/a)+c
integral of:

1/a^2 + u^2 du
1/a arctan(u/a)+c
integral of:

1/ u*sqrt(u^2 - a^2) du
1/a arcsec(u/a)+c
integration by parts formula

and what do you choose first?
integral u*dv= uv - [integrand]vdu

choose u and dv
sqrt(a^2-b^2 x^2)
x=a/b sin(theta)

use: cos^2(theta)=1-sin^2(theta)

-pi/2 =/< theta =/< pi/2
sqrt(b^2 x^2 -a^2)
x=a/b sec(theta)

use tan^2(theta)=sec^2(theta)-1

0=/< theta < pi/2 OR pi=/<theta<3pi/2
sqrt(a^2 + b^2 x^2)
x=a/b tan(theta)

use tan^2(theta)=sec^2(theta)-1

-pi/2 < theta < pi/2
integral of sin^n(x) * cos^m(x) dx
1. if n is ODD, strip one sine out, convert remaing sins to cosines using trig identity, use u=cos(x)

2. if m is odd, strip one sine out, convert to sines, use u=sin(x)

3. both even then use trig identities
integral of tan^n(x) * sec^m(x)
1. if n is odd, strip one of each, turn into secants, use u=sec(x)
2. if m is even, strip 2 secants and convert to tangents, use u=tan(x)
conditions needed for:

integral test
f(x) must be continuous, positive, and decreasing on the given interval
conditions needed for:

regular comparison and limit comparison tests
both the original and the "known" series must have all positive terms on the given interval
conditions needed for:

alternating series test
bn must be positive

bn must be decreasing

and lim as n->infinity of bn=0
Taylor Series Eqn.
f(x)= sum from n=0, infinity of f^n (a)*a*[(x-a)^n/n!]
L'Hospitals rule can be applied when...?
limit is in indeterminate form aka 0/0 or infinity/infinity