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Nano-arrays

Ruiz A, Valsesia A, Bretagnol F et al (2007) Large-area protein nano-arrays patterned by soft lithography. Nanotechnology 18 1-6... [Pg.76]

Ma, Z.X., Kyotani, T., Liu, Z., Terasaki, O., and Tomita, A. Very high surface area microporous carbon with a three-dimensional nano-array structure Synthesis and its molecular structure. Chem. Mater. 13, 2001 4413-4415. [Pg.112]

Construction of Nano-Array Electrode Material for Amperometric Detection... [Pg.239]

The nano-array biosensor based on GOD-Ti02/Ti nanotube array electrode exhibits the reinforced current response in a bioelectrocatalysis and electro-reduction process, which can promote amperometric detection of glucose concentration with a high sensitivity and a low detection limit. In particular, such a nano-array biosensor based on GOD-Ti02/Ti nanotube array electrode can be potentially used for a better detection of somatic blood glucose for... [Pg.257]

Z. Ma, T. Kyotani, Z. Liu, O. Terasaki, and A. Tomita, Very High Surface Area Microporous Carbon with a Three-dimensional Nano-array Structure Synthesis and its Molecular Structure. Chem. Mater., 2001, 13, 4413 1415. [Pg.660]

Abdulhalim I (2007) Simplified optical scatterometry for periodic nano-arrays in the quasistatic limit. Appl Opt 46 2219-2229... [Pg.101]

In addition, traditional top-down nanofabrication methods such as focused ion beam (FIB], can be used to fabricate nanopore array electrodes [225], FIB milling thus represents a simple and convenient method for fabrication of prototype nanopore electrode arrays. These electrode nano-arrays can be used in electrochemical nanofabrication for applications in sensing and fundamental electrochemical studies. [Pg.43]

J. T. Xu, M. L5mch, J. L. Huff, C. Mosher, S. Vengasandra, G. F. Ding, and E. Henderson, Microfabricated quill-type surface patterning tools for the creation of biological micro/nano arrays, Biomed. Microdevices, 6,117-123 (2004). [Pg.487]

Cgo is extremely hydrophobic thus, some of the initial attempts to capture Cgo molecules were carried out in water. Qo forms a 1 2 complex with a cyclodextrin molecule. Liu et al. synthesized water-soluble double-CD 16 (Figure 7.10). End-to-end intermolecular inclusion complexation of Cgo with double-CD 16 led to the formation of a supramolecular polymer in water. An STM image of the polymer displayed the regular linear arrangement of the Cgo nano-array. TEM observation of the supramolecular polymer confirmed the presence of a linear structure with a length in the range of 150 to 250 nm, suggesting that the polymer consists of 60 to 80 units of the minimum component. [Pg.120]

Ling et al. [86]. showed that stable colloidal suspensions of Ceo and C70 in water were easily formed by mechanical grinding a mixture of Ceo or C70 with p-sulfonatocalix[4]arene (64) alone and/or with the zwitterionic 3-(l-methylimi-dazolium-3-yl)propane-l-sulfonate, or 3-(l-methyl-imidazolium-3-yl)butane-l-sulfonate, followed by ultrasonication after the addition of water. Yellow and brown solutions formed with Cso and C70 respectively, were found to contain nano-arrays of the fullerenes (40-130 nm in diam.) covered by a sheath of sulfonated calixarene, sulfonated imidazolium zwitterions or supermolecules of these two components. [Pg.916]

Another simple and straightforward technique makes use of immiscible solvent to form nano structures upon solvent evaporation at the interface. Using a floating technique on a liquid interface the particle arrays are transferred to almost any arbitrary substrate. These nano-arrays have been utilized as masks for vacuum deposition of metal cluster arrays, plasma etching, or as print masters. [Pg.156]

This chapter focuses on recent developments in the construction of supramo-lecular polymer-like ensembles incorporating [60]fullerene, including supramo-lecular polymers, nano-arrays and discrete assemblies of [60]fuUerene derivatives. These ensembles have been constmcted in various phases solid state, meso, solution and solid-liquid and liquid-liquid interfaces. [Pg.191]

These above examples are characteristic of the construction of [GOjfuUerene nanoarrays using weak intermolecular forces in the solid state. ControlUng intermolecu-lar weak interactions has proven to be effective for the construction of selectively organized polymeric nano-arrays of [GOjfullerene molecules in the soUd state. [Pg.196]


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See also in sourсe #XX -- [ Pg.163 ]




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