Exponential Function Solving - Growth (Continuous, Mis-matched Time Units) Scenario to Value at Time

Level 1

The topics in this unit focus on mastering exponential growth and decay functions. Work on practice problems directly here, or download the printable pdf worksheet to practice offline.

Exponential Function Solving - Growth (Continuous, Mis-matched Time Units) Scenario to Value at Time Worksheet

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Exponential Function Solving - Growth (Continuous, Mis-matched Time U...
1
A social media post starts with 600 views. Its view count grows continually by 5% each year.After 7 months it has a larger number of views.
How would you solve for the final views given this scenario?
a A LaTex expression showing V = V sub 0 times e to the power of (r times t over 12 )
b A LaTex expression showing V = V sub 0 - e to the power of (r times t times 12)
c A LaTex expression showing V = V sub 0 times e to the power of (r over \frac{t {12 })}
2
A company's share price starts at $600. It grows continuously at 2% growth per month. After 9 years it has increased to a certain share price.
How would you solve for the final price given this scenario?
a A LaTex expression showing S = S sub 0 times e to the power of (r times t times 12)
b A LaTex expression showing S = S sub 0 - e to the power of (r times t over 12 )
c A LaTex expression showing S = S sub 0 times e to the power of (r over t times 12 )
3
An app starts with 200 downloads. Its download count grows continually by 9% each month.After 4 years it has a larger number of downloads.
How would you solve for the final downloads given this scenario?
a A LaTex expression showing A = A sub 0 times e to the power of (r times t times 12)
b A LaTex expression showing A = A sub 0 times e to the power of (r over t times 12 )
c A LaTex expression showing A = A sub 0 - e to the power of (r times t over 12 )
4
A rabbit population starts at 600. It grows continuously at 8% growth per year. After 9 quarters it has increased to a certain population.
How would you solve for the final population given this scenario?
a A LaTex expression showing P = P sub 0 times e to the power of (r times t over 4 )
b A LaTex expression showing P = P sub 0 times e to the power of (r over \frac{t {4 })}
c A LaTex expression showing P = P sub 0 - e to the power of (r times t times 4)
5
An app starts with 800 downloads. Its download count grows continually by 9% each year.After 5 days it has a larger number of downloads.
How would you solve for the final downloads given this scenario?
a A LaTex expression showing A = A sub 0 times e to the power of (r times t over 365 )
b A LaTex expression showing A = A sub 0 - e to the power of (r times t times 365)
c A LaTex expression showing A = A sub 0 times e to the power of (r over \frac{t {365 })}
6
A credit card starts with $800 of debt. It grows continuously at 5% interest per year. After 2 quarters the debt has grown to a certain amount.
How would you solve for the final debt given this scenario?
a A LaTex expression showing D = D sub 0 - e to the power of (r times t times 4)
b A LaTex expression showing D = D sub 0 times e to the power of (r times t over 4 )
c A LaTex expression showing D = D sub 0 times e to the power of (r over \frac{t {4 })}
7
A bacteria population starts at 600. It grows continuously at 4% growth per year. After 5 months it has increased to a certain population.
How would you solve for the final population given this scenario?
a A LaTex expression showing P = P sub 0 - e to the power of (r times t times 12)
b A LaTex expression showing P = P sub 0 times e to the power of (r times t over 12 )
8
A company's share price starts at $300. It grows continuously at 2% growth per quarter. After 8 months it has increased to a certain share price.
How would you solve for the final price given this scenario?
a A LaTex expression showing S = S sub 0 times e to the power of (r times t over 3 )
b A LaTex expression showing S = S sub 0 - e to the power of (r times t times 3)
c A LaTex expression showing S = S sub 0 times e to the power of (r over \frac{t {3 })}