All Calculus 1 Resources
Example Questions
Example Question #2991 : Functions
Find the area beneath the curve defined by the following function
between to .
To find the area underneath a curve within a given integral, integrate the curve between the upper and lower limits:
The integral of 3x2 is x3 and the integral of - sin(x) is cos(x), giving:
from to .
or
which simplifies to 3
Example Question #29 : How To Find Area Of A Region
A curve is defined by the function:
Find the area between the curve and the -axis on the interval of to .
To find the area between the curve and the x-axis, we will need to integrate the curve with respect to x:
from x = 0 to 1
Introducing are upper and lower bounds, we can find the area to be:
Example Question #2991 : Functions
Find the area under the curve from to , rounded to the nearest integer.
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the two.
1. Using the power rule which states,
to each term we find,
.
2. , which is after rounding.
Example Question #2992 : Functions
Find the area under the curve from to , rounded to the nearest integer.
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the 2 values.
1. Using the power rule which states,
to each term we find,
2. Plug in 3 and 0 for x and then take the difference.
, which rounds up to .
Example Question #32 : How To Find Area Of A Region
Find the area under the curve from to , rounded to the nearest integer.
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the two values.
1. Using the power rule which states,
to each term we find,
.
2. Plug in 4 and 1 for x and then take the difference.
The answer is 11 because 10.667 rounds up.
Example Question #31 : Area
Find the area of the curve from to
Written in words, solve:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the two values.
1. Using the power rule which states,
to the term and recalling the integral of is we find,
.
2. Plug in and for and then take the difference.
=
note:
Example Question #2993 : Functions
Find the area under the curve from to .
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the two values.
1. Recall that the integral of is and that the integral of is itself, we find that,
.
2.
note:
Example Question #34 : How To Find Area Of A Region
Find the area under the curve from to .
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the two values.
1. Using the power rule which states,
to the term and recalling the integral of is we find,
2.
Example Question #111 : Regions
Find the area under the curve from to .
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function
2. Plug in the upper and lower limit values and take the difference of the 2 values.
1. Using the power rule which states,
to the term and recalling the integral of is we find,
.
2.
Example Question #35 : How To Find Area Of A Region
Find the area under the curve from to .
Finding the area under the curve can be understood as taking the integral of the equation and it can be rewritten into the following:
To solve:
1. Find the indefinite integral of the function.
2. Plug in the upper and lower limit values and take the difference of the two values.
1. Using the power rule which states,
to each term we find,
.
2.