Visible light-responsive TiO2 (Vis-TiO2Vis-TiO2ilms which exhibit a unique declined O/Ti composition from the surface to the deep inside bulk have been successfully developed under a substrate temperature of 873 K by applying a radio-frequency magnetron sputtering deposition (RF-MS) method.
To provide deep bulk soil EM measurements, an EM34 was used in the horizontal dipole mode at coil configurations of 10, 20, and 40 m (respectively, designated EM34-10, EM34-20, and EM34-40).
As 12 ML of Zn at this ratio corresponds to a thickness of a 10 1 alloy region on top of the deeper Cu bulk of about 31 nm (ca. 12×10 layers ×0.26 nm layer thickness), any concentration gradient within the first few layers and any gradient-dependent intensity attenuation can be neglected.
The monolithic multi-sensor chip was realized using an SOI wafer, where the Deep-RIE bulk-micromachining process and bipolar IC process were used for sensor device fabrication and circuit fabrication, respectively.
In deeper bulk film areas, the relative concentration of the PdTi2 becomes even higher than Pd (see later), which indicates that the Ti, of which the segregation was detected on the top of the Pd layer, does not only originate from the PdTi2 but also from the bottom TiD y layer forming apparently titanium oxides.
Upon moving from the surface to deep-bulk, we observe that O b decreases while O a increases and not surprisingly, no adsorbed H2O species (i.e., O c peak) was observed.
The deep layer containing the great bulk of Mediterranean water occupies the remaining zone between the intermediate layer and the bottom.
Hence, the Gp/ω characteristic with one peak observed in the deep depletion region reinforced that the bulk trap with one single level in GaN buffer layer was identified by conventional conductance measurement.
By featuring only one single peak in the parallel conductance (G p/ω) characteristics in the deep depletion region, one single-level bulk trap (E C-0.53 eV) uniformly distributed in GaN buffer was identified.
The deep blue atoms in Fig. 9 are the bulk atoms distantly located from the two surface monolayers.
