Consider a particle moving along the x-axis where x(t) is the position of the
particle at time t, x′(t) is its velocity, and x
′′(t) is its acceleration.
If x(t) = t3
− 6t2 + 9t − 2, 0 ≤ t ≤ 5
(a) Find the velocity and acceleration of the particle. (b) Find the open
t-
intervals on which the particle is moving to the right. (c) Find the velocity of
the particle when the acceleration is 0
Find the angle of the largest right circular cone which can be inscribed in a sphere of
radius 9 inches.
At what point on the line y = b does the line segment from (0,0) to ( a,0) subtend the
greatest angle.
: Let 𝑓(𝑥, 𝑦) = 𝑥^2 + 𝑦^3 . Find the slope of the line tangent to this surface at the point (-1, 1) and lying in the plane x = -1
Solve using basic differentiation rule
y = 2/(x ^ (1/2)) + 6/(x ^ (1/3)) - 2/(x ^ (3/2)) + 4/(x ^ (3/4))
Solve using differentiation rule
y = 2x ^ 2 * sqrt(2 - x)
Solve using basic differentiation rule
𝑠 = (𝑡^2 − 3)^4
Solve using basic differentiation rule
𝑔(𝑥) =3−2𝑥/3+2𝑥
Direction: Draw and sketch the given function and solve as indicated. Show your
complete solution.
1. Find the area of the region bounded by the curves x=y³ and y=x².
2. Find the area, take the elements of the area perpendicular to the x-axis. x²-y+1=0; x-y+1=0.
3. Find the area, take the elements of the area parallel to the x-axis. y= 2x³-3x³-9x; y=x²-2x²-3x.
4. Find the area of f(x) = 3+2x-x² above the x-axis.
5. Determine the area to the left of g(y) = 3-y2 and to the right of x = -1
6. Determine the area of the region bounded by x = y²-y-6 and x = 2y +4.
Find the area, take the elements of the area perpendicular to the x-axis. x²-y+1=0; x-y+1=0.