  We study the scattering resonances arising from multiple $h$-dependent Dirac
delta functions on the real line in the semiclassical regime $h \rightarrow 0$.
We focus on resonances lying in strings along curves of the form $\text{Im } z
\sim -\gamma h\log(1/h)$ and find that resonances along such strings exist if
and only if $\gamma$ is a slope of a Newton polygon we construct from the
parameters. Furthermore, the set of these $\gamma$ corresponds to a complete
and disjoint partitioning of a line segment with delta functions at interval
endpoints. Hence, there are at most $N-1$ strings of resonances from $N$ delta
functions, improving a bound from (Datchev, Marzuola, & Wunsch 2023). Lastly,
we identify a 'dominant pair' of delta functions in the sense that they
correspond to the longest-living string of resonances, this string is the only
one of logarithmic shape with respect to $\text{Re } z$, and no delta functions
between them can contribute to strings of resonances. The simple properties of
delta functions permit elementary proofs, requiring just undergraduate analysis
and linear algebra.
