In silicon with very low diffusion lengths (L n = 100 nm), extremely large efficiency gains (from 1.5% to 11%) are possible by exploiting the radial p-n junction nanorod geometry, provided that the trap density in the depletion region remains fixed at a relatively low level (<~3×1015 cm−3).
Further improvements may be possible by exploiting the stationarity of the stochastic process in order to take advantage of full information provided in the time series, and should be considered in the future.
This is possible by, for instance, exploiting the secondary electron multiplication and limiting the energy of the steamers by distributed resistivity.
Second, in this study, we considered only simple statistical estimators for the optimal sequencing depth; however, more elaborate approaches are possible, e.g., by exploiting the results from the fitted growth curves.
Furthermore, hybridization of target DNA in a cross-linking or non-cross-linking configuration is also possible by exploiting aggregation of DNA-functionalized gold nanoparticles, which opens up new possibilities for rapid, easy and reliable genetic diagnosis [83].
This is made possible by exploiting the unique features at the interface of process and molecular design.
Reuse of current achievements in the field of admission control is made possible by exploiting the orthogonality, which exists between the time dimension and the resource plane.
This is made possible by exploiting the two constituents' immiscibility in thermodynamic equilibrium as well as the lack of Cu segregation to W grain-boundaries, thus allowing for the growth of the two phases.
This is made possible by exploiting the relative local time precession rates of the CHAMP and GRACE satellites.
Moreover, they present how it is possible to exploit modern cloud infrastructures to execute large-scale calculations by coordinating possibly heterogeneous virtual machine instances.
