∫3x+3 dx
3/2x^2+3x+C
d/dx(6x+7)
6
lim x-2 ( 3x^2+2x+9)
25
IVT
limx-0 sinx/x
1
∫(√x + 1/x^2) dx
(2/3 x^3)/(-1/x )+ c
d/dx(23x^4-7x+2)
92x^3-7
lim x-4 x^2-16/x-4
8
MVT
lim x-0 (1-cosx)/x
0
∫cosxsinx dx
1/2 sin^2(x)+c
d/dx(e^2x*sinx)
e^2x( 2sin(x)+cos(x)
lim x-3 √x+1 -2/x-3
1/4
EVT
if f(x) is closed and continuous on [a,b] f(x) will have both an absolute maximum and minimum on the interval [a,b].
d/dx (tanx)
sec^2x
a=0 b=1
∫(x^3-√x) dx
-5/12
d/dx( e^x/x^2+1)
(3e^3x)(6x^7+9)-(e^3x)(42x^6)/(6x^7+9)^2 or
3e^3x(6x^7-14x^6+9)/(6x^7+9)^2
lim x- ∞ 9x^3-4x-1/3x^3+4x^2
9/3 or 3
Rolle's
1) f(x) is continuous on [a,b]
2) f(x) is differentiable on (a,b)
3) f(a)= f(b)
Then there exist at least on c in (a,b) such that f '(c)=0
∫cosx dx
sinx+c
a=0 b=pi
∫ (4sinx) dx
8
d/dx(ln(cos(10x))
-10tan(10x)
lim x-∞ 10x^4-9x^3+3x^2+2x+2/ 2x^10
0
FTC and 2nd FTC
FTC 1 Derivative of an integral equal to the original function.
FTC 2nd Integrals are calculated by subtracting anti-derivative endpoints (f(b)-f(a))
d/dx ( csc x)
- cscxcot x