This is same as example 1, but with nonzero on RHS. The solution is \(y=y_{h}+y_{p}\). Where \(y_{h}\) was found above as \[ y_{h}=\frac {a_{0}}{x}\] To find \(y_{p}\) we will use the balance equation, EQ (*) found in the first example when finding \(y_{h}\). We just need to rename \(a_{0}\) to \(c_{0}\) and add the \(x\) on the right side of the balance equation.\[ \left ( r+1\right ) c_{0}x^{r}=\frac {1}{x^{2}}\] Hence \(r=-2\), therefore \(\left ( r+1\right ) c_{0}=1\) or \(-c_{0}=1\) or \(c_{0}=-1\). Hence the first particular solution is \(y_{p}=-x^{-2}\). Hence the solution is\begin{align*} y & =y_{h}+y_{p}\\ & =\frac {a_{0}}{x}-\frac {1}{x^{2}}\end{align*}