  This paper deals with the classical solution of the following chemotaxis
system with generalized logistic growth and indirect signal production
\begin{eqnarray} \left\{ \begin{array}{llll} & u_t=\epsilon\Delta
u-\nabla\cdot(u\nabla v)+ru-\mu u^\theta,\\ & 0=d_1\Delta v-\beta v+\alpha w,\\
& 0=d_2\Delta w-\delta w+\gamma u \end{array} \right. \qquad(0.1)\end{eqnarray}
and the so-called strong $W^{1, q}(\Omega)$-solution of
hyperbolic-elliptic-elliptic model \begin{eqnarray} \left\{ \begin{array}{llll}
& u_t=-\nabla\cdot(u\nabla v)+ru-\mu u^\theta,\\ & 0=d_1\Delta v-\beta v+\alpha
w,\\ & 0=d_2\Delta w-\delta w+\gamma u, \end{array} \right.\
\qquad(0.2)\end{eqnarray} in arbitrary bounded domain
$\Omega\subset\mathbb{R}^n$, $n\geq1$, where $r, \mu, d_1, d_2, \alpha, \beta,
\gamma, \delta>0$ and $\theta>1$. Via applying the viscosity vanishing method,
we first prove that the classical solution of (0.1) will converge to the strong
$W^{1, q}(\Omega)$-solution of (0.2) as $\epsilon\rightarrow0$. After
structuring the local well-pose of (0.2), we find that the strong $W^{1,
q}(\Omega)$-solution will blow up in finite time with non-radial symmetry
setting if $\Omega$ is a bounded convex domain, $\theta\in(1, 2]$, and the
initial data is suitable large. Moreover, for any positive constant $M$ and the
classical solution of (0.1), if we add another hypothesis that there exists
positive constant $\epsilon_0(M)$ with $\epsilon\in(0,\ \epsilon_0(M))$, then
the classical solution of (0.1) can exceed arbitrarily large finite value in
the sense: one can find some points $\left(\tilde{x}, \tilde{t}\right)$ such
that $u(\tilde{x}, \tilde{t})>M$.
