  We explore the effects of stochastic resetting to random positions of a
Brownian particle on first passage times and Shannon's entropy. We explore the
different entropy regimes, namely, the \textit{externally-driven}, the
\textit{zero-entropy} and the \textit{Maxwell demon} regimes. We show that the
mean first passage time (MPFT) minimum can be found in any of these regimes. We
provide a novel analytical method to compute the MFPT, the mean first passage
number of resets (MFPNR) and mean first passage entropy (MFPE) in the case
where the Brownian particle resets to random positions sampled from a set of
distributions known \textit{a priori}. We show the interplay between the reset
position distribution's second moment and the reset rate, and the effect it has
on the MFPT and MFPE. We further propose a mechanism whereby the entropy per
reset can be either in the Maxwell demon or the externally driven regime, yet
the overall mean first passage entropy corresponds to the zero-entropy regime.
Additionally, we find an overlap between the dynamic phase space and the
entropy phase space. We use this method in a generalized version of the
Evans-Majumdar model by assuming the reset position is random and sampled from
a Gaussian distribution. We then consider the \textit{toggling reset} whereby
the Brownian particle resets to a random position sampled from a distribution
dependent on the reset parity. All our results are compared to and in agreement
with numerical simulations.
