  We present a new method for detection of multiply charmed baryons via their
decays into strange baryons, using `strangeness tracking'. This method makes
use of the state-of-the-art upgraded silicon detectors in ALICE during Runs 3,
4 and beyond will enable the novel possibility of tracking strange hadrons
directly before they decay, leading to a very significant improvement in
impact-parameter resolution. In this work, we will discuss how this new
technique will be crucial to distinguish secondary strange baryons originating
from charm decays from primary strange baryons. This is a particularly
interesting possibility for the $\Omega^{-}$ baryon coming from
$\Omega_{\rm{c}}^{0}\rightarrow\Omega^{-}\pi^{+}$ decays, since there is no
other relevant feeddown source for $\Omega^{-}$. This, in turn, means that the
main $\Omega^{-}$ background for the $\Omega_{\rm{c}}$ measurement will point
most accurately to the primary vertex, unlike pions or protons from other charm
baryon decays.
  We will illustrate the achievable performance of strangeness tracking for the
Run 3 configuration of ALICE with the upgraded Inner Tracking System, which is
fully instrumented with silicon pixel detectors. Moreover, we will discuss the
potential of this technique in a future experiment with an extensive silicon
tracking detector with a first layer very close to the interaction point.
Finally, we will also cover other potential major applications of strangeness
tracking, including measurements of hypernuclei such as the
$^{3}_{\Lambda}\rm{H}$.
