several mass-spectroscopic methods [@Horsch2011; @Zehnacker2010].\
A new prospect for investigating the relation between structure and dynamics was opened recently when coincidence experiments successfully showed that the two enantiomers of simple chiral species could be distinguished on the level of individual molecules [@Pitzer2013]. These measurements employed so-called Coulomb Explosion Imaging (CEI) [@Vager1989] to gain information on the molecular configuration. When the multiple ionization of a molecule occurs on a timescale shorter than the nuclear motion, the mutual repulsion of the fragment ions can be approximated by the Coulomb interaction. This, in turn, implies that their momentum directions are correlated to the relative positions at the time of ionization. In the measurements mentioned above, a femtosecond laser pulse was employed to multiply ionize the chiral prototype CHBrClF; the momentum vectors of all five atomic cations were measured in coincidence. These momentum vectors yielded a clearly separated signal from the two enantiomers. An experiment using foil-induced Coulomb Explosion Imaging was almost simultaneously able to determine the absolute configuration of a deuterated chiral epoxide [@Herwig2013].\
Similar coincidence techniques have been employed to determine the absolute configuration of laser-aligned molecules [@Christensen2015] and to investigate photoelectron circular dichroism for specific ionic fragments [@Fanood2015]. The coincident measurement 