  As today's nanotechnology focus becomes primarily oriented toward production
and manipulation of materials at the subatomic level, allowing the performance
and complexity of interconnects where the device density accepts more than
hundreds devices on a single chip, the manipulation of semiconductor
nanostructures at the subatomic level sets its prime tasks on preserving and
adequate transmission of information encoded in specified (quantum) states. The
presented study employs the quantum communication protocol based on the
hypergraph network model where the numerical solutions of equations of motion
of quantum particles are associated to vertices (assembled with device chip),
which follow specific controllable paths in the phase space. We address these
findings towards ultimate quest for prediction and selective control of quantum
particle trajectories. In addition, presented protocols could represent
valuable tool for reducing background noise and uncertainty in low-dimensional
and operationally meaningful, scalable complex systems.
