  Based on the Stirling triangle of the second kind, the Whitney triangle of
the second kind and one triangle of Riordan, we study a
Stirling-Whitney-Riordan triangle $[T_{n,k}]_{n,k}$ satisfying the recurrence
relation: \begin{eqnarray*} T_{n,k}&=&(b_1k+b_2)T_{n-1,k-1}+[(2\lambda
b_1+a_1)k+a_2+\lambda( b_1+b_2)] T_{n-1,k}+\\ &&\lambda(a_1+\lambda
b_1)(k+1)T_{n-1,k+1}, \end{eqnarray*} where initial conditions $T_{n,k}=0$
unless $0\le k\le n$ and $T_{0,0}=1$.
  We prove that the Stirling-Whitney-Riordan triangle $[T_{n,k}]_{n,k}$ is
$\textbf{x}$-totally positive with $\textbf{x}=(a_1,a_2,b_1,b_2,\lambda)$. We
show that the row-generating function $T_n(q)$ has only real zeros and the
Tur\'{a}n-type polynomial $T_{n+1}(q)T_{n-1}(q)-T^2_n(q)$ is stable. We also
present explicit formulae for $T_{n,k}$ and the exponential generating function
of $T_n(q)$ and give a Jacobi continued fraction expansion for the ordinary
generating function of $T_n(q)$. Furthermore, we get the $\textbf{x}$-Stieltjes
moment property and $3$-$\textbf{x}$-log-convexity of $T_n(q)$ and show that
the triangular convolution $z_n=\sum_{i=0}^nT_{n,i}x_iy_{n-i}$ preserves
Stieltjes moment property of sequences. Finally, for the first column
$(T_{n,0})_{n\geq0}$, we derive some properties similar to those of
$(T_n(q))_{n\geq0}.$
