  Twisted van der Waals heterostructures have recently been proposed as a
condensed-matter platform for realizing controllable quantum models due to the
low-energy moir\'e bands with specific charge distributions in moir\'e
superlattices. Here, combining angle-resolved photoemission spectroscopy with
sub-micron spatial resolution ({\mu}-ARPES) and scanning tunneling microscopy
(STM), we performed a systematic investigation on the electronic structure of
5.1{\deg} twisted bilayer WSe2 that hosts correlated insulating and
zero-resistance states. Interestingly, contrary to one's expectation, moir\'e
bands were observed only at {\Gamma}-valley but not K-valley in {\mu}-ARPES
measurements; and correspondingly, our STM measurements clearly identified the
real-space honeycomb- and Kagome-shaped charge distributions at the moir\'e
length scale associated with the {\Gamma}-valley moir\'e bands. These results
not only reveal the unsual valley dependent moir\'e-modified electronic
structure in twisted transition metal dichalcogenides, but also highlight the
{\Gamma}-valley moir\'e bands as a promising platform for exploring strongly
correlated physics in emergent honeycomb and Kagome lattices at different
energy scales.
