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AFM micrographs

Fig. 5. Size and density of Ni nanocrystals as a function of (a) initial Ni film thickness and (b) annealing temperature (inset shows the AFM micrograph of Oswalt ripening at high temperatures). Fig. 5. Size and density of Ni nanocrystals as a function of (a) initial Ni film thickness and (b) annealing temperature (inset shows the AFM micrograph of Oswalt ripening at high temperatures).
Figure 4. AFM micrograph of a saturated monolayer of antibodies against p2-microglobulin measured in phosphate buffered saline (PBS) solution using tapping mode. The dark window shows the underlying polystyrene surface obtained by wipping off the antibodies. Figure 4. AFM micrograph of a saturated monolayer of antibodies against p2-microglobulin measured in phosphate buffered saline (PBS) solution using tapping mode. The dark window shows the underlying polystyrene surface obtained by wipping off the antibodies.
Figure 7.21. AFM micrograph indicating roughness of only 3nm for an electrodepos-ited annealed GZO film on a Ni-W substrate. [Reproduced with permission from Ref. 129. Copyright 2007 IEEE.]... Figure 7.21. AFM micrograph indicating roughness of only 3nm for an electrodepos-ited annealed GZO film on a Ni-W substrate. [Reproduced with permission from Ref. 129. Copyright 2007 IEEE.]...
Fig. 5.5 AFM micrographs of the surface topography of anodic oxides (A) before and (B) after the potential drop as shown in Fig. 5.4. After [Le4]. Fig. 5.5 AFM micrographs of the surface topography of anodic oxides (A) before and (B) after the potential drop as shown in Fig. 5.4. After [Le4].
Figure 26 AFM micrograph of DLC film on Ir(lOO) prepared by IBD method (100 eV followed by thermal annealing at 600 °C under He gas environment. After annealing, DLC film suffered from blistering because of immiscibility between C and Ir. Size of the micrograph is 9.85 x 9.85 pm. ... Figure 26 AFM micrograph of DLC film on Ir(lOO) prepared by IBD method (100 eV followed by thermal annealing at 600 °C under He gas environment. After annealing, DLC film suffered from blistering because of immiscibility between C and Ir. Size of the micrograph is 9.85 x 9.85 pm. ...
Figure 31-3 (A) Cryo atomic force (AFM) micrograph of molecules of the human immunoglobulin IgM. Courtesy of Zhifeng Shao, University of Virginia. (B) Schematic diagram. One-fifth of this structure is shown in greater detail in Fig. 31-4A. (C) Model based on earlier electron microscopic images. From Feinstein and Munn. 64(2... Figure 31-3 (A) Cryo atomic force (AFM) micrograph of molecules of the human immunoglobulin IgM. Courtesy of Zhifeng Shao, University of Virginia. (B) Schematic diagram. One-fifth of this structure is shown in greater detail in Fig. 31-4A. (C) Model based on earlier electron microscopic images. From Feinstein and Munn. 64(2...
Fig. 2.61 AFM micrographs of thin films of a Kraton PS-PB-PS triblock copolymer with /pS == 0.24. Part (b) is an enlargement of the square region in part (a), showing the coexistence of regions with parallel and perpendicular cylinders of PS (van Dijk and van den Berg 1995). Fig. 2.61 AFM micrographs of thin films of a Kraton PS-PB-PS triblock copolymer with /pS == 0.24. Part (b) is an enlargement of the square region in part (a), showing the coexistence of regions with parallel and perpendicular cylinders of PS (van Dijk and van den Berg 1995).
Fig. 11 AFM micrograph of the (110) surface of the cubic phase of compound 36c showing a one-layer step. Fig. 11 AFM micrograph of the (110) surface of the cubic phase of compound 36c showing a one-layer step.
Figure 3. AFM micrographs of DMN-DVB copolymers without filler (a) and filled with methyl-(b) or methyl,hydride-containing fumed silicas (c). Figure 3. AFM micrographs of DMN-DVB copolymers without filler (a) and filled with methyl-(b) or methyl,hydride-containing fumed silicas (c).
According to AFM micrographs, the surface roughness of porous spheres of DMN-DVB copolymer increases in the presence of methyl-containing silica. At the same time, the availability of methylsilyl and silicon hydride groups on the silica surface promotes surface smoothing upon filling, similar to an unfilled system. [Pg.108]

Room-temperature AFM micrograph in air (1.5 nm x 1.5 rm) of an electropolished Al surface after 24h of growing acid-anodized Al203 pores nanopores on top of it, then dissolving away the Al203 pores [30],... [Pg.701]

Figure 20.15 shows the AFM micrographs of a nickel smooth surface, without (upper) and with (lower) Ag nanoparticles [25]. Below, the SERS spectra of 1,10-phenanthroline adsorbed on Ni, Fe, and Pd are shown, after SERS activation by means of the Ag layer. [Pg.568]

Fig. 20.17 SERS spectra of 1,10-phenanthroline adsorbed on a rough Ag plate and on the sandwich-like Ag substrate, with the corresponding AFM micrographs. Exciting line 514.5 nm... Fig. 20.17 SERS spectra of 1,10-phenanthroline adsorbed on a rough Ag plate and on the sandwich-like Ag substrate, with the corresponding AFM micrographs. Exciting line 514.5 nm...
Fig. 2. AFM micrographs of Pd/Al203 model catalysts after (a) hydrogen reduction, (b) cyclohexane addition, hydrogen reduction and reaction, (c) hydrogen reduction and reaction, S/Pd=0.12, (d) hydrogen reduction and reaction, S/Pd = 0.33. Fig. 2. AFM micrographs of Pd/Al203 model catalysts after (a) hydrogen reduction, (b) cyclohexane addition, hydrogen reduction and reaction, (c) hydrogen reduction and reaction, S/Pd=0.12, (d) hydrogen reduction and reaction, S/Pd = 0.33.
The kinetic results can be summarized by separating the decrease in the number of active sites a from S blocking obtained from the S/Pd ratio and from the AFM micrographs, from the effect of S on the activation energy Ea and the frequency factor kp. Assuming that... [Pg.468]

Figure 19. AFM micrographs of four different polymers adsorbed on mica (a) single molecules of macroinitiator pBPEM, (b) monolayer of homopolymer pBPEM-,gra/f-p.r BuA brush, (c) monolayer of pBPEM-gra/h(p/ BuA-Woc -pS) brush, and (d) single molecules of pBPEM-,gra/t-(pS-f)iocA-p/3BuA) brush.169... Figure 19. AFM micrographs of four different polymers adsorbed on mica (a) single molecules of macroinitiator pBPEM, (b) monolayer of homopolymer pBPEM-,gra/f-p.r BuA brush, (c) monolayer of pBPEM-gra/h(p/ BuA-Woc -pS) brush, and (d) single molecules of pBPEM-,gra/t-(pS-f)iocA-p/3BuA) brush.169...
Fig. 2.23 (a) Top-view and (b) side-view SEM image of probe tip in contact with a patterned elastomer sample, (c) Section of an AFM micrograph of micro- and nanopores of identical depth fabricated in silicon showing the limited ability of the tip to penetrate into the pores... [Pg.45]

Fig. 6.9 AFM micrographs (lOOx) of five wear types and the fresh, unused surface of flint... Fig. 6.9 AFM micrographs (lOOx) of five wear types and the fresh, unused surface of flint...
Fig. 20 AFM micrographs (both height image and phase image) of MEH-PPV/C60 (20 wt %) composite films fabricated with a xylene, b DCB, and c THE The phase image enables calculation of the 50 surface coverage. (Reproduced from [118] with permission, 2001, Wiley-VCH)... Fig. 20 AFM micrographs (both height image and phase image) of MEH-PPV/C60 (20 wt %) composite films fabricated with a xylene, b DCB, and c THE The phase image enables calculation of the 50 surface coverage. (Reproduced from [118] with permission, 2001, Wiley-VCH)...
Similarly, core-shell cylindrical brushes were prepared via block copolymerization [308,313]. They consist of the soft pnBA cores and hard pSt shells [308]. The high resolution AFM micrographs of the block copolymer pBPEM-g-(pnBA-fc-pSt) brushes shows a necklace morphology. The synthesis of well-defined brush block copolymers demonstrates the synthetic power of ATRP. It was used to create a well-defined backbone with a degree of polymerization of 500, which was followed by a transesterification and the subsequent grafting of pnBA chains using ATRP. A final chain extension with St produced the block copolymers. [Pg.121]

Figure 7.7 AFM micrographs and cross-sections of 3 pm x 3 pm squares obtained after the CVD of ((CH3)3P)AuCH3 onto printed nanoparticles. Upper SAM of 10, deposited from EtOH, printed with Pd nanoparticles lower SAM of 11, deposited from EtOH, printed with GSH-NP (An). Figure 7.7 AFM micrographs and cross-sections of 3 pm x 3 pm squares obtained after the CVD of ((CH3)3P)AuCH3 onto printed nanoparticles. Upper SAM of 10, deposited from EtOH, printed with Pd nanoparticles lower SAM of 11, deposited from EtOH, printed with GSH-NP (An).

See other pages where AFM micrographs is mentioned: [Pg.104]    [Pg.122]    [Pg.133]    [Pg.841]    [Pg.203]    [Pg.447]    [Pg.367]    [Pg.13]    [Pg.212]    [Pg.139]    [Pg.106]    [Pg.701]    [Pg.449]    [Pg.567]    [Pg.464]    [Pg.175]    [Pg.177]    [Pg.220]    [Pg.292]    [Pg.61]    [Pg.62]    [Pg.731]   


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