  The exotic properties of two-dimensional (2D) materials and 2D
heterostructures, built by forming heterogeneous multi-layered stacks, have
been widely explored across a number of subject matters following the goal to
invent, design, and improve applications enabled by 2D materials. To
successfully harvest these unique properties effectively and increase the yield
of manufacturing 2D material-based devices for achieving reliable and
repeatable results is the current challenge. The scientific community has
introduced various experimental transfer systems explained in detail for
exfoliated 2D materials, however, the field lacks statistical analysis and the
capability of producing a transfer technique enabling; i) high transfer
precision and yield, ii) cross-contamination free transfer, iii)
multi-substrate transfer, and iv) rapid prototyping without wet chemistry. Here
we introduce a novel 2D material deterministic transfer system and
experimentally show its high accuracy, reliability, repeatability, and
non-contaminating transfer features by demonstrating fabrication of 2D
material-based optoelectronic devices featuring novel device physics and unique
functionality. Such rapid and material-near prototyping capability can
accelerate not only layered material science in discovery but also engineering
innovations.
