Final answer:
The particular solution for the difference equation with the impulse signal input is y(n) = (1/1.28)N.
Step-by-step explanation:
The particular solution for the input ∂(n) can be found by considering the difference equation: y(n) - 0.64y(n-2) = x(n), where x(n) is the impulse signal. Since the impulse signal is defined as 1 at n=0 and 0 elsewhere, we can substitute x(n) = 1 in the difference equation. This gives us y(n) - 0.64y(n-2) = 1.
Let's solve this equation using a particular solution approach. Since the difference equation is linear, the particular solution can be assumed in the form of y(n) = AN, where A is a constant. Substituting this assumed form of the particular solution into the difference equation gives AN - 0.64A(N-2) = 1.
Simplifying the equation, we get 1.28A = 1, which implies A = 1/1.28. Therefore, the particular solution for the given difference equation with the impulse signal input is y(n) = (1/1.28)N.