  Searching for low-power-consuming and high-efficient methods for well
controllable driving of skyrmion motion is one of the most concerned issues for
future spintronic applications, raising high concern with an appreciated choice
of magnetic media and driving scenario. In this work, we propose a novel
scenario of spin wave driven skyrmion motion in a ferrimagnetic (FiM) lattice
with the net angular momentum {\delta}s. We investigate theoretically the
effect of both {\delta}s and the circular polarization of spin wave on the
skyrmion dynamics. It is revealed that the momentum onto the skyrmion imposed
by the excited spin wave can be partitioned into a ferromagnetic term plus an
antiferromagnetic term. The ratio of these two terms and consequently the Hall
angle of skyrmion motion can be formulated as the functions of {\delta}s,
demonstrating the key role of {\delta}s as an effective control-parameter for
the skyrmion motion. Moreover, the spin wave frequency dependent skyrmion
motion is discussed, predicting the frequency enhanced skyrmion Hall motion.
This work thus represents an essential contribution to understand the skyrmion
dynamics in a FiM lattice.
