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Image processing electron microscopy

Radermacher M, Ruiz T. (2006) Three-dimensional reconstruction of single particles in electron microscopy image processing. Methods Mol. Biol. 319, 427-61. [Pg.157]

Martinez-nistal, A. Veniale, F. Setti, M. Cotecchia, F. 1999. A scanning electron microscopy image processing method for quantifying fabric orientation of clay geomaterials. Applied Clay Science 14 235-243. [Pg.764]

Fig. 18 Scanning electron microscopy image indicating that long-range order is preserved in the stamping process and those mesoscale dimensions can be approached using stamping... Fig. 18 Scanning electron microscopy image indicating that long-range order is preserved in the stamping process and those mesoscale dimensions can be approached using stamping...
This advantage can be used for growing nanowires (wires with nanometric diameter). Nanoporous membranes that can be fabricated by the anodic oxidation of aluminum are appropriate templates. This process leads to the formation of an alumina layer with parallel nanopores, as shown in Fig. 15A, which can then be filled by electrodeposition. Fig. 15B shows a schematic view of a multilayer nanowire and Fig.l5C a transmission electron microscopy image of a Cu/ CuCoNi layered nanowire grown in the nanopores. [Pg.831]

Veblen, D.R., 1990. Transmission electron microscopy Scattering processes, conventional microscopy, and high-resolution imaging, in I.D.R. Mackinnon and EA. Mumpton, eds, Electron and Optical Methods in Clay Science, The Clay Minerals Society, CMS Workshop Lectures, 2, pp. 15 10. [Pg.277]

Fig. 12 Scanning Electron Microscopy images of MIP used as stationary phase in chromatography (1) MIP particles obtained by grinding, grading and sedimentation (2) beads prepared by an emulsion process (from [114])... Fig. 12 Scanning Electron Microscopy images of MIP used as stationary phase in chromatography (1) MIP particles obtained by grinding, grading and sedimentation (2) beads prepared by an emulsion process (from [114])...
All the mesoporous ceramic oxides obtained by this method are amorphous on the atomic level, but show periodicities on the nanometer length scale and narrow pore size distribution. The outcome of the process is very predictable, as the binary phase diagram of the surfactant can be used as a guideline towards the nanostructure design. The transmission electron microscopy images of siH-cas derived from three different LLC surfactant phases are shown in Fig. 3. [Pg.34]

Figure 3.20 The ribosome is the site of protein synthesis, (a) Schematic of several ribosomes in the process of manufacturing a particular protein. (b) Model derived from electron microscopy image reconstruction. From Bartels et al (1988) with permission. Figure 3.20 The ribosome is the site of protein synthesis, (a) Schematic of several ribosomes in the process of manufacturing a particular protein. (b) Model derived from electron microscopy image reconstruction. From Bartels et al (1988) with permission.
Figure 6 SEM (scanning electron microscopy) image of a test pattern prepared by direct-writing EBCL and surface initiated polymerization (SIPP) of styrene. On the left, line widths of 500 to to nm of the primary patterns were directly written onto the substrate by the e-beam. Below, some text and the biphenyl structure were inscribed to demonstrate that complex structures can easily be realized by this technique. The defects observable are due to adsorption of impurities aftCT the process was completed. (Reproduced from Ref. 34. WUey-VCH, 2007.)... Figure 6 SEM (scanning electron microscopy) image of a test pattern prepared by direct-writing EBCL and surface initiated polymerization (SIPP) of styrene. On the left, line widths of 500 to to nm of the primary patterns were directly written onto the substrate by the e-beam. Below, some text and the biphenyl structure were inscribed to demonstrate that complex structures can easily be realized by this technique. The defects observable are due to adsorption of impurities aftCT the process was completed. (Reproduced from Ref. 34. WUey-VCH, 2007.)...

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Electron image

Electron microscopy imaging

Electron processes

Electronic imaging

Electronic processes

Image processing

Imaging electron

Imaging processes

Microscopy image

Microscopy imaging

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