All Calculus 2 Resources
Example Questions
Example Question #2981 : Calculus Ii
Find the value of the 300th term, or , in the following arithmetic series:
3 pieces of information are needed to find the value of a specific term.
First, find the first value, .
Second, the value of n, or the total number of terms in the series.
Finally, d, or the common difference, which can be found by calculating .
With these pieces of information, find the value of the last with the following formula:
Solution:
Example Question #21 : Types Of Series
Calculate the sum of a geometric series with the following values:,,. Round the answer to the nearest integer.
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
For this question, we are given all of the information we need.
Solution:
Rounding,
Example Question #2983 : Calculus Ii
Calculate the sum, rounded to the nearest integer, of the first 20 terms of the following geometric series:
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
We have and n and we just need to find r before calculating the sum.
Solution:
Example Question #22 : Types Of Series
Calculate the sum, rounded to the nearest integer, of the first 16 terms of the following geometric series:
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
We have and n and we just need to find r before calculating the sum.
Solution:
Example Question #2984 : Calculus Ii
Calculate the sum, rounded to the nearest integer, of the first 9 terms of the following geometric series:
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
We have and n and we just need to find r before calculating the sum.
Solution:
Example Question #21 : Arithmetic And Geometric Series
Calculate the sum, rounded to the nearest integer, of the first 100 terms of the following geometric series:
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
We have and n and we just need to find r before calculating the sum.
Solution:
Example Question #2986 : Calculus Ii
Calculate the sum of the following infinite geometric series:
This is an infinite geometric series.
The sum of an infinite geometric series can be calculated with the following formula,
, where is the first value of the summation, and r is the common ratio.
Solution:
Value of can be found by setting
r is the value contained in the exponent
Example Question #2987 : Calculus Ii
Calculate the sum of a geometric series with the following values:
,, ,
rounded to the nearest integer.
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
For this question, we are given all of the information we need.
Solution:
Rounding,
Example Question #2988 : Calculus Ii
Calculate the sum of a geometric series with the following values:
, ,
rounded to the nearest integer.
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
For this question, we are given all of the information we need.
Solution:
Rounding,
Example Question #7 : Geometric Series
Calculate the sum of a geometric series with the following values:
,, ,
rounded to the nearest integer.
This is a geometric series.
The sum of a geometric series can be calculated with the following formula,
, where n is the number of terms to sum up, r is the common ratio, and is the value of the first term.
For this question, we are given all of the information we need.
Solution:
Rounding,