We analyze the anomalies appearing in the light curves of the three microlensing events
MOA-2022-BLG-563, KMT-2023-BLG-0469, and KMT-2023-BLG-0735. The anomalies exhibit common
short-term dip features that appear near the peak. From the detailed analyses of the light curves, we find that the anomalies were produced by
planets accompanied by the lenses of the events. For all three events, the estimated mass ratios
between the planet and host are on the order of $10^ $: $q $ for MOA-2022-BLG-563L,
$q $ for KMT-2023-BLG-0469L, and $q $ for KMT-2023-BLG-0735L.
The interpretations of the anomalies are subject to a common inner-outer degeneracy, which causes
ambiguity when estimating the projected planet-host separation. We estimated the planet mass, $M_ p $, host mass, $M_ h $, and distance, $D_ L $,
to the planetary system by conducting Bayesian analyses using the observables of the events.
The estimated physical parameters of the planetary systems are
$(M_ h /M_ p /M_ J D_ L kpc )$ for MOA-2022-BLG-563L,
$(0.47^ )$ for KMT-2023-BLG-0469L, and
$(0.62^ )$ for KMT-2023-BLG-0735L.
According to the estimated parameters, all planets are cold planets with projected separations that
are greater than the snow lines of the planetary systems, they have masses that lie between the masses
of Uranus and Jupiter of the Solar System, and the hosts of the planets are main-sequence stars that
are less massive than the Sun. In all cases, the planetary systems are more likely to be in the bulge
with probabilities $P_ bulge = 64<!PCT!>$, 73<!PCT!>, and 56<!PCT!> for MOA-2022-BLG-563, KMT-2023-BLG-0469,
and KMT-2023-BLG-0735, respectively.