infinityAnswer:
p(0) = 20
p(5) = 59
Horizontal Asymptote: y = 2400 as t approaches infinity
Explanation:
part C.
To find the horizontal asymptote, we investigate the behaviour of the function p(t) as t approaches infinity.
Now as t approaches inifinty
![P(t)=(60(1+0.4t))/(0.01t+3)](https://img.qammunity.org/2023/formulas/mathematics/high-school/u9w5s97fo0u4qnzmue0q5ok1z3ar5mgg15.png)
the terms 0.04 t and 0.01t become extremely large; so large in fact that we can ignore constant 3 and 1 to get
![P(t)\approx(60\cdot0.4t)/(0.01t)](https://img.qammunity.org/2023/formulas/mathematics/college/wxtfcbhe0m0ji0pvi21lqn5oi1xn3qymvn.png)
![P(t)\approx2400](https://img.qammunity.org/2023/formulas/mathematics/college/99d5rexnfpl1nmryqk8ywzo2rq96oc3ts4.png)
which means at t -> ∞, p(t) = 2400. In the context of insect population this means that if we wait a long enough time, eventually the insect population will stop decreasing and approach 2400. In other words, the population limit is 2400 insects