int (1/3sinx-1/4cosx)dx
-1/3 cosx-1/4 sinx +C
int csc(t)cot(t)dt
-csc t+C
int_1^3r^-4 dr
[-1/3(3)^-3]-[-1/3(1)^-3]=26/81
Find the explicit area function represented by the following integral:
int_0^x2e^(3t)dt
A(x)=2/3e^(3x)
Estimate R3 and L3 over [0,1.5] for the function seen here.
L_3=0.5(5+2+1)
R_3=0.5(2+1+2)
int x^2 e^(x^3) dx
1/3e^(x^3)+C
int e^(9-2x)dx
-1/2e^(9-2x)+C
int_1^elnx/xdx
1/2
d/dx int_0^x(t^5-9t^3)dt
x^5-9x^3
Estimate distance traveled using R6 and M3 with the table below.
R_6=0.5(12+18+25+20+14+20)
M_3=1(12+25+14)
int 9^x sin(9^x) dx
-cos(9^x)/ln9
int t^2 sec^2(9t^3+1) dt
1/27 tan(9t^3+1)+C
int_0^3 dx/(x^2+9)
1/3(pi/4)-1/3(0)=pi/12
Let
A(x)=int_0^x f(t) dt
for f(x) seen in the image. Calculate A(2), A(3), A'(2), A'(3)
A(2)=4
A(3)=6.5
A'(2)=2
A'(3)=3
Solve the differential equation with the given initial condition:
dy/dt=3t^2+cos(t), y(0)=12
y=t^3+sin(t)+12
int dx/(xsqrt(ln(x))
2sqrt(ln x)+C
int 4^x-1/(x+1)dx
4^x/ln 4-ln|x+1|+C
int_1^sqrt(3) dx/(tan^-1(x)(1+x^2))
ln|pi/3|-ln|pi/4|
d/dx int_0^(x^2) (t dt)/(t + 1)
x^2/(x^2+1) * 2x
A population of insects increases at a rate of 200+10t+0.25t^2 insects per day (t is in days). Find the insect population after 3 days, assuming that there are 50 insects at t = 0.
697 insects
(not 698 b/c you must round down when dealing with population)
int (x dx)/sqrt(1-x^4)
1/2arcsin(x^2)+C
int sin(theta)cos(theta)e^(cos^2(theta) + 1) d theta
-1/2e^(cos^2(theta)+1)+C
int_(-1/2)^0((x+1)dx)/sqrt(1-x^2)
1-sqrt3/2+pi/6
Let
A(x)=int_0^x f(x) dx
where f(x) is depicted below. Identify the location of the local extrema, points of inflection of A(x), and intervals of increasing, decreasing, CC up, CC down. Also, identify the location of the absolute maximum of A(x).
Local max @ B
POI @ A, C, D
Abs. max @ B
INC: (0,B)
DEC: (B,D) and (D,E)
CC up: (0,A) and (C,D)
CC down: (A,C) and (D,E)
A particle moves in a straight line with velocity v(t)=12-4t (in m/s). Find the displacement and distance traveled over the time interval [0,5].
displacement = 10 meters
distance = 26 meters