An ion exchange mechanism has been proposed, where K replaces Na in the near surface region of the CIGS29.
In the present communication an innovative technique has been proposed where acousto-optics is involved.
Various couplings are proposed where interactions are achieved through the causal influence between state variables.
A decomposition algorithm is proposed, where the structure of the problem can be utilized.
Nanostructures are proposed where semiconductor quantum wells are embedded in one-dimensional photonic crystals.
Thus, a multilevel design approach is proposed, where shape design is carried on a coarser level.
H-likelihood inference has been proposed where the explicit evaluation of the integral is avoided.
First, a non-parametric identification is proposed where the inputs are excited with multisines.
Here, a method is proposed where no geometry comparison is necessary for topology merging.
A new device is proposed where the electrode is a transparent electrode in modified SnO2.
Mixed fidelity methods are proposed, where low and high fidelity treatments are combined.
