  Constraining the delay-time distribution (DTD) of different supernova (SN)
types can shed light on the timescales of galaxy chemical enrichment and
feedback processes affecting galaxy dynamics, and SN progenitor properties.
Here, we present an approach to recover SN DTDs based on integral field
spectroscopy (IFS) of their host galaxies. Using a statistical analysis of a
sample of 116 supernovae in 102 galaxies, we evaluate different DTD models for
SN types Ia (73), II (28) and Ib/c (15). We find the best SN Ia DTD fit to be a
power law with an exponent $\alpha = -1.1\pm 0.3$ (50\% confidence interval),
and a time delay (between star formation and the first SNe) $\Delta =
50^{+100}_{-35}~Myr$ (50\% C.I.). For core collapse (CC) SNe, both of the
Zapartas et al. (2017) DTD models for single and binary stellar evolution are
consistent with our results. For SNe II and Ib/c, we find a correlation with a
Gaussian DTD model with $\sigma = 82^{+129}_{-23}~Myr$ and $\sigma =
56^{+141}_{-9}~Myr$ (50\% C.I.) respectively. This analysis demonstrates that
integral field spectroscopy opens a new way of studying SN DTD models in the
local universe.
