The deictic concept, and more particularly, the approach used for the design of our interface is examined.
The throughputs (TP) of our interface were 0.1962 ± 0.0562 b/s for the SCI patients and 0.4356 ± 0.0706 b/s for the healthy subjects.
We show how to implement Dirichlet (known velocity), Neumann (known normal stress), and slip velocity boundary conditions as special cases of our interface representation.
Thanks to the multifold advantages of our interface design, high Coulombic efficiency of >99.4% was obtained at 1 mA cm−2; and more than 400 stable cycles were realized in prototypical lithium-sulfur cells with limited lithium, corresponding to an average anode Coulombic efficiency of >99%.
Therefore, the oxygen K-edge spectrum of our interface may indicate the presence of calcium titanate.
In order to discuss the advantages and shortcomings of our interface, we compare the reference implementation described in the preceding section to similar software applications.
Figure 6 shows on the left hand side, a paper-based prescription form used in the current practice and on the right hand side, part of Section C of our interface.
Other suggestions are mostly related to the layout of our interface (e.g. display window does not auto-adjust into the proper size of the browser; users are unable to return to their last step of action).
The following article summarizes some of our key concepts for our interface designs and presents some of our interactive technologies in more detail.
@Home has created a slick portal, with video at the speed of several megabits per second, that is a good window to peer into to see what might be the future of our computing interfaces.
