Limits & Continuity
Derivatives
Applications of Derivatives
Integrals
Mixed
100

The value that (x^2-1)/(x-1) approaches as x approaches 1.

2

100

The derivative of f(x)=x^5

5x^4

100

The slope of the tangent line to f(x)=x^2+3x at x=2

7

100

The antiderivative of f(x)=4x^3

x^4+C

100

The equation of the horizontal asymptote of f(x)=3x^2/(x^2+1)

y=3

200

The value of lim⁡x→0 sin⁡3x/x

3
200

The derivative of f(x)=ln⁡(3x)

1/x

200

The x-coordinate of a critical point for f(x)=x^3−3x^2

 x=0, x=2

200

The derivative of F(x)=∫(2,x) sin⁡(t^2)dt

sin(x^2)

200

The derivative of sec(⁡x)

secxtanx

300

This theorem guarantees a root of f(x)=x^3−x−1 exists on the interval [1,2]

The Intermediate Value Theorem

300

The derivative of f(x)=x^2cos⁡(x )

2xcos(⁡x)−x^2sin⁡(x)

300

The type of critical point at x=0 for f(x)=x^4

Minimum

300

The average value of f(x)=x on [1,3] 

2

300

The acceleration function if s(t)=t^3−6t^2+9t

a(t)=6t−12

400

The value of lim⁡x→0 (√(1+x)−1)/x

1/2

400

The slope of the tangent line to y=√x at x=9.

1/6

400

The absolute maximum of f(x)=−x^2+4x on [0,3]

4

400

The total area between f(x)=x^2−4 and the x-axis from x=0 to x=3

23/2

400

The value of ∫(0,π/2)sin⁡(x)dx multiplied by ∫(0,π/2)cos⁡(x)dx

1

500

For f(x)=(x^2−4)/(x−2), the value that must be assigned to f(2) to make the function continuous at x=2

4

500

The derivative of f(x)=ln[(x^2sin(x))/e^3x]

x^2+cot(x)−3

500

The rate at which the area of a circle increases when the radius is 5 cm and the radius is increasing at 2 cm/s.

20π cm²/s?

500

The volume of the solid whose base is the region bounded by y=x^2 and y=4, and whose cross sections perpendicular to the y-axis are squares

128/5

500

The volume of the solid whose base is the region bounded by y=4−x^2 and the x-axis, and whose cross sections perpendicular to the x-axis are semicircles

521π/15