Given two disjoint sets, specified possibly over (infinite) sets of Extended Finite State Machine (EFSM) configurations, a method for deriving an input sequence that distinguishes each pair of configurations of these sets is proposed.
Considering the peculiarity of the drill point configuration, a straightforward method for flank/flute intersection is derived.
To this end, the approach developed in this work includes the assessment of a broad range of feasible scenarios (probabilistic approach) and then the selection of the optimal configuration based on a method of decision-making, taking into account the main technical and economic aspects of the infrastructure.
Further device performance improvement can also be obtained through plasmonic nanostructures and waveguide-integrated configurations, providing that a method of growing high-quality graphene with high carrier mobility that is compatible with modern semiconductor technologies can be developed.
Based on above discussion and analysis, within the drive-response configuration, this paper presents a method about twice encryption based on multistage chaos synchronized system for secure communications.
We use a configuration interaction method to calculate the electronic structure of a quantum dot model within the effective mass approximation.
Implementing the atomistic tight-binding theory in the conjunction with a configuration interaction method of coulomb and exchange description, the excitonic fine structure splitting (FSS) in core/shell semiconductor nanocrystals is usually caused by the intrinsic electron hole exchange interaction.
The atomistic tight-binding model (TB) and a configuration interaction method (CI) are implemented to calculate the single-particle spectra, optical band gaps, ground-state wave function overlaps, ground-state oscillation strengths, ground-state coulomb energies, ground-state exchange energies and Stokes shift as a function of ZnS external growth shell thicknesses.
The proposed quadruplexer shows a simple configuration, an effective design method and a small circuit size.
Based on the above, a method for configuration synthesis of metamorphic mechanisms is introduced herein.
