Integrals
Derivatives
Trig Rules
Series Tests
Mixed
100

Evaluate the integral.

∫[(x)/(x4+1)]dx

u=x2  du=2xdx

(1/2)∫[1/(u2+1)]du

(1/2) tan-1u + C

(1/2) tan-1x2 + C

100

Find the derivative:

f(x)= tanx

f'(x)= sec2x

100

∫[sinx]dx 

cosx + C

100

Determine whether this series converges or diverges. 

Σ(3n/1000)

r=3

diverges by rules of geometric series


100

What is speed in terms of the velocity function?

s= l v(t) l

200

Evaluate the integral. 

∫[xsinx]dx

u=x  du=dx  dv=[sinx]dx v=[-cos x ]dx

-xcosx + ∫[cosx]dx

-xcosx + sinx

200

Find the derivative:

f(x)= cscx

f'(x)= -cscxcotx

200

∫[csc2x]dx

-cotx + C

200

Determine whether this series converges or diverges.

Σ(8/9)n

r=8/9

converges by rules of geometric series

200

what is speed in terms of the position function?

√[(x')2+(y')2]

300

Evaluate the integral. 

∫[10t-3+12t-9+4t3]dt

-5t-2 - (3/2)t-8 + t+ C


300

Find the derivative:

f(x)= exe2xe3x

f'(x)= 6e6x

300

∫[1/(√ (1-x2))]

sin-1x + C

300

Determine whether this series converges or diverges.

Σ[(3n)/(√n2+4)]

lim as n->∞ = 3

diverges by nth term test

300

What is the equation for volume according to the Washer Method?

V= pi (the integral from a to b of [R(x)]2)

400

Evaluate the integral.

∫[1/(x√ x)]dx 

∫x(-3/2)dx

(-2/√x)+C

400

Find the derivative:

f(x)= ex/e2x

f'(x)= -e-x

400

∫[(cscx)(cotx)]dx

-cscx + C

400

Determine whether this series converges or diverges.

Σ[((-1)n+1n)/(3n+2)]

lim as n->∞

diverges by the nth term test

400

If the points (a, f(a)) and (b, f(b)) are on the graph of f(x) the average rate of change of f(x) on the interval [a,b] is

[f(b)-f(a)]/[b-a]

500

Evaluate the integral.

∫(1+3t)t2dt

∫[t2+3t3]dt

(t3/3)+(3t4/4)+C

500

Find the derivative:

f(x)= exe4xsinx

f'(x)= e5x(5sinx+cosx)

500

∫[1/(u(√ u2-a2)]du

(1/a)arcsec(lul/a) + C
500

Determine whether this series converges or diverges.

Σ[(-1)n/en)]

lim as n->∞

(1/en+1) < (1/en)

500

What is the equation for volume according to the washer method?

V=pi(the integral from a to b of [R(x)]2-[r(x)]2)