Answer:
This means that the correct initial value problem for the population p(t) as a function of time is is 
Step-by-step explanation:
The population of a town increases at a rate proportional to its population:
This means that this situation is modeled by the following differential equation:

In which k is the growth rate.
By separation of variables, the solution is given by:

In which P(0) is the initial population.
Initial population of 1000.
This means that the correct initial value problem for the population p(t) as a function of time is is 
1) 2.625 miles
2) 5.9 miles
<h3> Hey There today we will solve your problem</h3>
First we will factor out
from
which gives us 
Next we will factor out
from
which gives us 
This gives us the equation

then factor out the common term
<em> and we get</em>
<em />
you can estimate 57.8 and 81 then to check you can do 57.8 divided by 81