Loading

Possible Scenario Starting Up a Clinic

Surprisingly, math can be used to measure many things in any field you pursue. With this type of function below, we can use this to measure growing amounts of information, let's give an example:

Dr. Eyelovedogs and his assistant, Dr. Melovecats, started up a vet clinic in a small part of San Antonio in 2000. When they opened, they originally had 41 patients because of Dr. Eyelovedogs' great care when he did an internship program under a different vet. After their successful start, they only continued to grow, represented in the model above, where x represents time (years) and f(x) represents total patients at their clinic. That said, we'll find the derivative first, then critical points, and finally inflection points, where we will ultimately create a graph to show to Dr. Eyelovedogs and Dr. Melovecats that represents their overall growth.

The Derivative

When we find the derivative of this problem, we'll utilize the chain rule in this scenario.

The derivative represents our RATE of the patients per year at the dog-tors' clinic.

Critical Points

In order to find our critical points, we'll need to set our derivative equal to 0.

Since 0 does not equal 19, we can conclude that our graph will have no critical points!

Inflection Points

When finding inflection points, we wanna make sure to find the SECOND derivative, then solve for 0. In this case, we'll utilize the quotient rule.

0 does not equal -19, so we don't have any inflection points either!

Graphing the Function

Given the function we have will gradually increase to infinity, let's go ahead and restrict it. We'll consider 2000 to be our year zero and restrict the graph to 25 years. This should prevent us from reading anything before the clinic opened but also anything too far into the future.

This naked model shows restrictions up until the year 2025, but since it's currently 2023, let's find out the total patients they could have in 2024. We'll plug in this number into the original function but make sure that we're not doing 2024 and just 24 (we're not accounting for 2,024 years in the future that's too far).

There were decimals places but we're not counting a fifteenth of an animal as a whole animal.

When we plot this we'll make sure to mark on the graph for the dog-tors so it's easier for them. But looking back to the graph, it looks like their clinic had a steeper incline in 2002 than now in 2023. If we plug in the values, 2 and 23, into our derivative, we should be able to find the rates and then plot it onto our graph to see the difference.

Business has dwindled but the clinic itself is still thriving! Now let's plot this.

When graphing the derivative, it will show the rates of the function. Here, the derivative, or the blue line, starts to decreases as the years go by, telling us the clinic's patients per year have slowed down. However, when looking at the graphed function, by 2024, they're expected to have about 102 total patients that go to their clinic, which is still a high number! Good luck to Dr. Eyelovedogs and Dr. Melovecats because that is a LOT of animals! Time to show them our findings.