For a graph $H$ and an integer $n$, we let $nH$ denote the disjoint union of $n$ copies of $H$. In 1975, Burr, Erdős, and Spencer initiated the study of Ramsey numbers for $nH$, one of few instances for which Ramsey numbers are now known precisely. They showed that there is a constant $c = c(H)$ such that $r(nH) = (2|H| - α(H))n + c$, provided $n$ is sufficiently large. Subsequently, Burr gave an implicit way of computing $c$ and noted that this long term behaviour occurs when $n$ is triply exponential in $|H|$. Very recently, Bucić and Sudakov revived the problem and established an essentially tight bound on $n$ by showing $r(nH)$ follows this behaviour already when the number of copies is just a single exponential. We provide significantly stronger bounds on $n$ in case $H$ is a sparse graph, most notably of bounded maximum degree. These are relatable to the current state of the art bounds on $r(H)$ and (in a way) tight. Our methods rely on a beautiful classic proof of Graham, Rödl, and Ruciński, with the emphasis on developing an efficient absorbing method for bounded degree graphs.