Step 1 :Rewrite the differential equation in the form \(\frac{dy}{dt} = f(t)g(y)\):
Step 2 :\(\frac{dy}{dt} = 0.08y + 4000\)
Step 3 :Separate the variables:
Step 4 :\(\frac{1}{0.08y + 4000}dy = dt\)
Step 5 :Integrate both sides:
Step 6 :\(\int \frac{1}{0.08y + 4000}dy = \int dt\)
Step 7 :Evaluate the integrals:
Step 8 :\(\ln|0.08y + 4000| = t + C_1\)
Step 9 :Solve for \(y\):
Step 10 :\(0.08y + 4000 = C_2e^{t}\)
Step 11 :\(y = \frac{C_2e^{t} - 4000}{0.08}\)
Step 12 :Apply the initial condition \(y(0) = 50000\):
Step 13 :\(50000 = \frac{C_2e^{0} - 4000}{0.08}\)
Step 14 :\(C_2 = 8000\)
Step 15 :Substitute \(C_2\) back into the equation for \(y(t)\):
Step 16 :\(y = \frac{8000e^{t} - 4000}{0.08}\)
Step 17 :The solution to the given differential equation is \(\boxed{y = \frac{8000e^{t} - 4000}{0.08}}\)