  A temporal graph is a sequence of graphs (called layers) over the same vertex
set -- describing a graph topology which is subject to discrete changes over
time. A $\Delta$-temporal matching $M$ is a set of time edges $(e,t)$ (an edge
$e$ paired up with a point in time $t$) such that for all distinct time edges
$(e,t),(e',t') \in M$ we have that $e$ and $e'$ do not share an endpoint, or
the time-labels $t$ and $t'$ are at least $\Delta$ time units apart. Mertzios
et al. [STACS '20] provided a $2^{O(\Delta\nu)}\cdot |{\mathcal
G}|^{O(1)}$-time algorithm to compute the maximum size of a $\Delta$-temporal
matching in a temporal graph $\mathcal G$, where $|\mathcal G|$ denotes the
size of $\mathcal G$, and $\nu$ is the $\Delta$-vertex cover number of
$\mathcal G$. The $\Delta$-vertex cover number is the minimum number $\nu$ such
that the classical vertex cover number of the union of any $\Delta$ consecutive
layers of the temporal graph is upper-bounded by $\nu$. We show an improved
algorithm to compute a $\Delta$-temporal matching of maximum size with a
running time of $\Delta^{O(\nu)}\cdot |\mathcal G|$ and hence provide an
exponential speedup in terms of $\Delta$.
