  The differential rotation of the Sun is a crucial ingredient of the dynamo
theory responsible for the generation of its magnetic field. Currently, the
rotation profile of a star that hosts one or more transiting planets can be
estimated. By detecting the same spot in a later transit, it is possible to
infer the stellar rotation period at that latitude. In this work, we apply for
the first time transit spot mapping to determine the differential rotation of
Kepler-411, a K2V-type star with an average rotation period of 10.52 days,
radius of 0.79 R$_\odot$ and mass of 0.83 M$_\odot$. Kepler-411 hosts at least
four planets, the inner planet is a super-Earth with a radius of 1.88
R$_\oplus$ and an orbital period of 3.0051 days, whereas the two larger
transiting planets are mini Neptunes with radii of 3.27 and 3.31 R$_\oplus$,
and periods of 7.834435 and 58.0204 days, respectively. Their orbits are such
that they transit the star at latitudes of -11$^{\circ}$, -21$^{\circ}$, and
-49$^{\circ}$. Analysis of the transit light curves of the three planets
resulted in the detection of a total of 198 spots. For each transit latitude,
the rotation period of the star was estimated and the differential rotation
pattern estimated independently. Then a solar like differential rotation
profile was fit to the three rotation periods at the distinct latitudes, the
result agreed extremely well with the previous ones, resulting in a
differential shear of $0.0500\pm0.0006$ rd/d or a relative differential
rotation of $8.4\pm0.1$\%.
