Note that Islam et al.[20] proposed another band diagram to describe the band structure of the PS/Si(P) interface.
Indeed, as a Schottky-type behavior is observed for the PS/Si(P) interface, thus the PS/Si(N) one should be ohmic.
Two interfaces were created for the University of Toronto campus network consisting of 220 nodes: a P interface based on existing design practices which presented primarily physical information and a P+F interface based on EID which presented both physical and functional information identified by an abstraction hierarchy analysis.
When the PS porosity is high, the electrical behavior could be demonstrated by considering the PS/Si(P) interface as a Schottky diode where the metal role is played by the PS layer.
These rely on the angular stability created by the screwhead LCP interface.
We found such qualitative evaluation was useful for the further development of the system, and have already incorporated some of their suggestions in the Web interface (see RLIMS-P interface).
In this article, we report on the evaluation task conducted in the BioCreative IAT and then describe the RLIMS-P interface, highlighting the modifications introduced based on the user feedback from this activity.
The p-n and p-p junction interface potential barriers are employed as tuning factors to achieve high selectivity and sensitivity.
To investigate the p-6P/6T/ p-6P interface formation in more detail, 0.2 nm of p-6P was deposited on top of the 6T ML.
Only the azimuthal orientation of p-6P crystallites is significantly different on both substrates, which plays a minor role for the formation of the p-6P/6T/ p-6P interface.
The F test, Pearson χ test and Fisher exact test revealed that maximum diameter (P <0.00001), mean CT value (P =0.005), type of interface (P =0.005) and presence of air bronchograms (P =0.02) significantly differed among the AAH, AIS and MIA groups (Table 1).
