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Layering pattern

The optimised interlayer distance of a concentric bilayered CNT by density-functional theory treatment was calculated to be 3.39 A [23] compared with the experimental value of 3.4 A [24]. Modification of the electronic structure (especially metallic state) due to the inner tube has been examined for two kinds of models of concentric bilayered CNT, (5, 5)-(10, 10) and (9, 0)-(18, 0), in the framework of the Huckel-type treatment [25]. The stacked layer patterns considered are illustrated in Fig. 8. It has been predicted that metallic property would not change within this stacking mode due to symmetry reason, which is almost similar to the case in the interlayer interaction of two graphene sheets [26]. Moreover, in the three-dimensional graphite, the interlayer distance of which is 3.35 A [27], there is only a slight overlapping (0.03-0.04 eV) of the HO and the LU bands at the Fermi level of a sheet of graphite plane [28,29],... [Pg.47]

A possible layered precursor to the layered nanoproduct conversion mechanism is thus proposed. The silver clusters formed at the initial heating stage by the partial decomposition of AgSR serve as nuclei at further reaction stages, and their distribution naturally inherits the layered pattern of the precursor. The following growth is mainly controlled by the atom concentration and atom diffusion path, which are both constrained by the crystal structure of the precursor [9]. [Pg.302]

Figure 13.2 Fluorescence micrographs of DOPC multi-layer patterns fabricated by dip-pen nanolithography, (a) An array of 25 contiguous line features. Red color is from doped rhodamine-labeled lipid, (b) A higher magnification of the region highlighted by the white square in (a), (c) Two-component patterns containing two different dyes. Green color is from doped NBD-labeled lipid. Figure 13.2 Fluorescence micrographs of DOPC multi-layer patterns fabricated by dip-pen nanolithography, (a) An array of 25 contiguous line features. Red color is from doped rhodamine-labeled lipid, (b) A higher magnification of the region highlighted by the white square in (a), (c) Two-component patterns containing two different dyes. Green color is from doped NBD-labeled lipid.
What are the typical materials used to create the color-shifting flakes A symmetrical layering pattern of absorber/dielectric/reflector/dielectric/absorber is... [Pg.156]

Figure 12.7.2 Layering patterns of absorber (partially reflected)/dielectric (low re-fractive)/reflector (inner reflector)/dielectric/absorber used to create the optical effect of color-shifting ink. Figure 12.7.2 Layering patterns of absorber (partially reflected)/dielectric (low re-fractive)/reflector (inner reflector)/dielectric/absorber used to create the optical effect of color-shifting ink.
Figure 8. Schematic of a bilevel-resist process using a silicon-containing top layer. Pattern transfer to the bottom planarizing layer is achieved by oxygen... Figure 8. Schematic of a bilevel-resist process using a silicon-containing top layer. Pattern transfer to the bottom planarizing layer is achieved by oxygen...
Figure 6. Thin-layer pattern with deduced chemical formulas of non-acid glyco-lipids of white rat non-epithelial residue (cf. Figure 2). Figure 6. Thin-layer pattern with deduced chemical formulas of non-acid glyco-lipids of white rat non-epithelial residue (cf. Figure 2).
When the fiber is dried, no differentiation between successive layers of secondary wall fibers can be distinguished. However, when fibers are swelled and viewed at higher magnifications in cross section, lacey, layered patterns become apparent [275]. Figure 5.39 illustrates layering that occurs when fibers wet with water or other liquids such as lower alcohols, ethylene glycol, or glycerin are embedded by polymerization of methyl and butyl methacrylates. [Pg.74]

Graft copolymer (top resist layer) patterned at 4 J/cm. Continued on next page. [Pg.135]

Figure 9.—Continued. SEM micrographs showing two-layer resist features transferred via O2 RIE into a 1.5 jjn-thick planarizing layer. Graft copoljnner (top resist layer) patterned at 4 J/cm. ... Figure 9.—Continued. SEM micrographs showing two-layer resist features transferred via O2 RIE into a 1.5 jjn-thick planarizing layer. Graft copoljnner (top resist layer) patterned at 4 J/cm. ...
Figure 6.6 Comparison of metal shorts for aluminum layer patterned after... Figure 6.6 Comparison of metal shorts for aluminum layer patterned after...
In FT electrophoresis, well-designed microchips are employed to obtain an electropherogram with periodic peaks. Crabtree et al. (6) achieved SCOFT detection on a microchip with a Cr layer patterned on top of the separation channel. In their first report on SCOFT detection, fifty-five 300 Lim-wide slits, spaced such that each slit is separated by 700 qm measured from its center, that is, 400 im-wide detection windows, were aligned at 300 pm intervals. A... [Pg.401]

Structural layer patterning. Cantilevers and chips definition protective photoresist layer coating... [Pg.58]

One strategy for mask consolidation is summarized in Fig. C.ll. The layer pattern is separated into four dice, with a 90 degree rotation around the same common vertex for each successive layer. This pattern is then tiled over the substrate area. The mask is then used rotated by 90° for each successive layer. I of the substrate is useless when printed since it has layers printed in the wrong order, but of the area comes out with the correct order. Of course, four more layers or design options (e.g. self-aligned devices) can be added to a second mask. [Pg.128]

Figure 17.16 SEM cross section of 25-nm half-pitch lines patterned with LELE double-patterning technique. The line profiles were obtained after the final pattern transfer to the underlying substrate. The second-layer patterns after the second etch step are considerably longer than the first-layer patterns because they are capped with the second HM material. (Courtesy of S. Holmes.)... Figure 17.16 SEM cross section of 25-nm half-pitch lines patterned with LELE double-patterning technique. The line profiles were obtained after the final pattern transfer to the underlying substrate. The second-layer patterns after the second etch step are considerably longer than the first-layer patterns because they are capped with the second HM material. (Courtesy of S. Holmes.)...

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See also in sourсe #XX -- [ Pg.369 , Pg.374 , Pg.376 , Pg.378 ]




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Multi-layered patterns

Pattern-evaporated Layers

Patterned layer

Patterned layer

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