The
elucidation of structural interfaces between proteins and inorganic
surfaces is a crucial aspect of bionanotechnology development. Despite
its significance, the interfacial structures between proteins and
metallic surfaces are yet to be fully understood, and the lack of
experimental investigation has impeded the development of many devices.
To overcome this limitation, we suggest considering the generation
of protein/surface structures as a molecular docking problem with
a homogenous plan as the target. To this extent, we propose a new
software, DockSurf, which aims to quickly propose reliable protein/surface
structures. Our approach considers the conformational exploration
with Euler’s angles, which provide a cartography instead of
a unique structure. Interaction energies were derived from quantum
mechanics computations for a set of small molecules that describe
protein atom types and implemented in a Derjaguin, Landau, Verwey,
and Overbeek potential for the consideration of large systems such
as proteins. The validation of DockSurf software was conducted with
molecular dynamics for corona proteins with gold surfaces and provided
enthusiastic results. This software is implemented in the RPBS platform
to facilitate widespread access to the scientific community.