All Calculus 2 Resources
Example Questions
Example Question #6 : Types Of Series
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is .
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
Solution:
Example Question #2 : Arithmetic And Geometric Series
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
Solution:
Example Question #1 : Arithmetic And Geometric Series
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
Solution:
Example Question #3 : Arithmetic And Geometric Series
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
Solution:
Example Question #4 : Arithmetic And Geometric Series
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
When k is not equal to 1, split the sums up into 2 piece and take the difference.
Find
Example Question #2971 : Calculus Ii
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
When k is not equal to 1, split the sums up into 2 piece and take the difference.
Find
Solution:
Example Question #2972 : Calculus Ii
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
When k is not equal to 1, split the sums up into 2 piece and take the difference.
Find
Solution:
Example Question #191 : Series In Calculus
Calculate the sum of the following series:
This is an arithmetic series.
Its general form is
To calculate the sum of very large series such as these, use the formula
This works because you are taking the average of the largest and smallest terms, and then multiplying them by n, which is the same as calculating the sum total.
When k is not equal to 1, split the sums up into 2 piece and take the difference.
Find
Solution:
Example Question #192 : Series In Calculus
Find the value of the 700th 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 #2975 : Calculus Ii
Find the value of the 400th 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:
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