Derivartives
Limits
Antiderivatives
Theroems
Equations
100

f(x) = secx + cscx then, f'(x) =

f'(x) = secxtanx + cscxcotx 

100

lim x -> 0   3x - 3sinx/ x2

100

∫18x2 sec2x (3x3) dx

2tan(3x3) + C 

100

This Theorem States that if a function f is continuous on the closed interval [a,b] and differentiable on the open interval (a,b), then there exists a point c in the interval (a,b) such that f'(c) is equal to the function's average rate of change over [a,b]. 

Mean Value Theorem

100

Average Value 

∫1/b-a f(x) dx

200

y = ln (6x3 - 2x2), then f'(x) = 

f'(x) = (9x + 2)/(3x2 - x)

200

lim x ->0  sin2x/2sinx 

2

200

∫ln3x/x dx

ln4x/4 + C

200

This theorem states that if a function f(x) is continuous over an interval [a, b], then the function takes on every value between f(a) and f(b). 

Intermediate Value Theorem 

200

Area of a Triangle 

1/2bh

300

f(x) = 6x2/ x- 2 

f'(x) = 24x - 6x2/ (2-x)2

300

lim h-> 0  5(½ + h)4 - 5(½)4/ h  

52

300

-11∫ 4/ 1+xdx

2π 

300

This Theorem states that if a function f has an antiderivative F, then the definite integral of f from a to b is equal to F(b)-F(a)

Fundamental Theorem of Calculus

300

∫ax

ax/ln(a) + C

400

f(x) = tan(x)sec(x)

f'(x) = sec3(x)+sec(x)tan2(x)

400

lim x->∞ 3xe-3x

0

400

∫(x2+2x)cos(x3 + 3x2) dx

⅓ sin (x3+ 3x2) + C

400

If a function f(x) is continuous on a closed interval [ a, b], then f(x) has both a maximum and minimum value on [ a, b].

Extreme Value Theorem

400

if dy/dx = Ky then

y = Cekx

500

Find the second derivative of x2y = 2

f"(x) = 6y/x2

500

lim x-> π⁄2  1 - sinx/1+ cos2x

¼

500

∫x2 sin(3x3+2) dx

- cos(3x3+2)/9 + C

500

if f(x)≤g(x)≤h(x) for all numbers, and at some point x=k we have f(k)=h(k), then g(k) must also be equal to them.

Squeeze Theorem 

500

Special Trig Limits

limθ->0 cosθ-1/θ=0

limθ->0 sinθ/θ=1