  The Erd\H os Matching Conjecture states that the maximum size $f(n,k,s)$ of a
family $\mathcal{F}\subseteq \binom{[n]}{k}$ that does not contain $s$ pairwise
disjoint sets is $\max\{|\mathcal{A}_{k,s}|,|\mathcal{B}_{n,k,s}|\}$, where
$\mathcal{A}_{k,s}=\binom{[sk-1]}{k}$ and $\mathcal{B}_{n,k,s}=\{B\in
\binom{[n]}{k}:B\cap [s-1]\neq \emptyset\}$. The case $s=2$ is simply the
Erd\H{o}s-Ko-Rado theorem on intersecting families and is well understood. The
case $n=sk$ was settled by Kleitman and the uniqueness of the extremal
construction was obtained by Frankl. Most results in this area show that if
$k,s$ are fixed and $n$ is large enough, then the conjecture holds true.
Exceptions are due to Frankl who proved the conjecture and considered variants
for $n\in [sk,sk+c_{s,k}]$ if $s$ is large enough compared to $k$. A recent
manuscript by Guo and Lu considers non-trivial families with matching number at
most $s$ in a similar range of parameters.
  In this short note, we are concerned with the case $s\ge 3$ fixed, $k$
tending to infinity and $n\in\{sk,sk+1\}$. For $n=sk$, we show the stability of
the unique extremal construction of size
$\binom{sk-1}{k}=\frac{s-1}{s}\binom{sk}{k}$ with respect to minimal degree. As
a consequence we derive $\lim\limits_{k\rightarrow
\infty}\frac{f(sk+1,k,s)}{\binom{sk+1}{k}}<\frac{s-1}{s}-\varepsilon_s$ for
some positive constant $\varepsilon_s$ which depends only on $s$.
