  The collected data of IceCube, a cubic kilometre neutrino detector array in
the Antarctic ice, reveal a diffuse flux of astrophysical neutrinos. The
extragalactic sources of the majority of these neutrinos however have yet to be
discovered. Tidal Disruption Events (TDEs), disruption outbursts from black
holes that accrete at an enhanced rate, are candidates for being the sources of
extragalactic, high-energy neutrinos. Stein et al. (2021) and Reusch et al.
(2022) have reported the coincidence of two likely TDEs from supermassive black
holes and public IceCube neutrino events (alerts). Further work by van Velzen
et al. (2021) identified a third event in coincidence with a high-energy
neutrino alert and a $3.7 \sigma$ correlation between a broader set of similar
TDE-like flares and IceCube alerts. We conducted a stacking analysis with a
29-flare subset of the TDE-like flares tested by van Velzen et al. This work
was done with neutrinos with energies above $\mathcal{O}(100)$ GeV. The
resulting p-value of 0.45 is consistent with background. In this contribution,
I will discuss the results of the stacking analysis, as well as the impact of
using different reconstruction algorithms on the three correlated realtime
alerts.
