  A subset $S$ of a vertex set of a graph $G$ is a total $(k,r)$-dominating set
if every vertex $u \in V(G)$ is within distance $k$ of at least $r$ vertices in
$S$. The minimum cardinality among all total $(k,r)$-dominating sets of $G$ is
called the total $(k,r)$-domination number of $G$, denoted by
$\gamma^{t}_{(k,r)}(G)$. We previously gave an upper bound on
$\gamma^{t}_{(2,r)}(G(n,p))$ in random graphs with non-fixed $p \in (0,1)$. In
this paper we generalize this result to give an upper bound on
$\gamma^{t}_{(k,r)}(G(n,p))$ in random graphs with non-fixed $p \in (0,1)$ for
$k\geq 3$ as well as present an upper bound on $\gamma^{t}_{(k,r)}(G)$ in
graphs with large girth.
