  Moir\'e superlattices comprised of stacked two-dimensional materials present
a versatile platform for engineering and investigating new emergent quantum
states of matter. At present, the vast majority of investigated systems have
long moir\'e wavelengths, but investigating these effects at shorter,
incommensurate wavelengths, and at higher energy scales, remains a challenge.
Here, we employ angle-resolved photoemission spectroscopy (ARPES) with
sub-micron spatial resolution to investigate a series of different moir\'e
superlattices which span a wide range of wavelengths, from a short moir\'e
wavelength of 0.5 nm for a graphene/WSe2 (g/WSe2) heterostructure, to a much
longer wavelength of 8 nm for a WS2/WSe2 heterostructure. We observe the
formation of minibands with distinct dispersions formed by the moir\'e
potential in both systems. Finally, we discover that the WS2/WSe2
heterostructure can imprint a surprisingly large moir\'e potential on a third,
separate layer of graphene (g/WS2/WSe2), suggesting a new avenue for
engineering moir\'e superlattices in two-dimensional materials.
