Nucleosynthesis imprints from different Type Ia Supernova explosion
  scenarios and implications for galactic chemical evolution
  We analyze the nucleosynthesis yields of various Type Ia supernova explosion
simulations including pure detonations in sub- Chandrasekhar mass white dwarfs,
double detonations and pure helium detonations of sub-Chandrasekhar mass white
dwarfs with an accreted helium envelope, a violent merger model of two white
dwarfs and deflagrations as well as delayed detonations in Chandrasekhar mass
white dwarfs. We focus on the iron peak elements Mn, Zn and Cu. To this end, we
also briefly review the different burning regimes and production sites of these
elements as well as the results of abundance measurements and several galactic
chemical evolution studies. We find that super-solar values of [Mn/Fe] are not
restricted to Chandrasekhar mass explosion models. Scenarios including a helium
detonation can significantly contribute to the production of Mn, in particular
the models proposed for calcium-rich transients. Although Type Ia supernovae
are often not accounted for as production sites of Zn and Cu, our models
involving helium shell detonations can produce these elements in super-solar
ratios relative to Fe. Our results suggest a re-consideration of Type Ia
supernova yields in galactic chemical evolution models. A detailed comparison
with observations can provide new insight into the progenitor and explosion
channels of these events.
