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Self-assembled organic-inorganic

The stepwise construction of self-assembled organic/inorganic multilayers based on multivalent supramolecular interactions between guest-functionalized dendrimers and nanoparticles and host-modified gold nanoparticles has been developed, yielding supramolecular LbL assembly (Fig. 13.8).12 Multilayer thin films composed of... [Pg.416]

A capacitive-type CO2 seusor usiug self-assembled organic-inorganic bilayer film operating at low temperature was described. The seusor is based on changes in capacitance... [Pg.715]

Mauritz, K.A. Mountz, D.A. Reuschle, D.A. Blackwell, R.I. Self-assembled organic/inorganic hybrids as membrane materials. Electrochim. Acta 2004, 50, 565 (and references therein). [Pg.1280]

Figure 13. Self-assembled organic template (micellar or liquid crystalline) that directs the assembly of the inorganic phase about the structure-directing organic phase. (Courtesy of Prof. Sarah Tolbert, UCLA.)... Figure 13. Self-assembled organic template (micellar or liquid crystalline) that directs the assembly of the inorganic phase about the structure-directing organic phase. (Courtesy of Prof. Sarah Tolbert, UCLA.)...
Different types of nanotubes built of self-assembled organic molecules have been discussed in Section 4.2.4. Inorganic nanotubes, for instance, built of vanadium oxide [53] are also known [54]. [Pg.233]

M. Fujita (ed.), Molecular Self-assembly Organic versus Inorganic Approaches (Structure and Bonding, vol. 96), Springer, Berlin, 2000. [Pg.809]

Despite these difficulties, mesoscale self-assembly of inorganic materials holds promise. In fact, it is believed that the importance of self-assembly in the manufacturing of electronics, photonics, optics, and robotics mesoscale components could conceivably supersede its importance in the molecular and nanoscale sciences. Some hybrid organic—inorganic systems have attracted attention because... [Pg.42]

Dynamic self-assembly of supramolecular systems prepared under thermodynamic control may in principle be connected to a kinetically controlled sol-gel process in order to extract and select the interpenetrated hybrid networks. Such dynamic convergence between supramolecular self-assembly and inorganic sol— gel processes, which synergistically communicate, leads to higher self-organized hybrid materials with increased micrometric scales. [Pg.49]

The strategy of self-assembly could be applied to open up developments in molecular-based nanomaterials. We believe that the combination of ionic liquids and biomolecules, organic molecular self-assemblies and inorganic nanomaterials, can lead to new dimensions in materials science. [Pg.155]

Molecular Self-Assembly Organic Versus Inorganic Approaches... [Pg.314]

Molecular Self-Assembly—Organic Versus Inorganic Approaches Fujita, M.. Ed. Structure and Bonding, Springer-Verlag Berlin, Germany. 2000 Vol. 96. [Pg.273]

Supramoleciflar directed self-assembly of inorganic and inorganic-organic hybrid nanostructures has emerged as an active area of recent research. The recent advance shows a remarkable feasibihty to mimic natoal mineralization systems by a designed artificial organic template, where a supramolecular functional polymer can be directly employed as minerahzation template for the synthesis of novel inorganic nanoarchitectures [165] such as CdS helices [166] and hydroxyapatite (HAP) nanofibers [167]. [Pg.96]

Kato T. Hydrogen-bonded liquid crystals molecular self-assembly for dynamically functional materials. In Fuiita M, editor. Molecular self-assembly organic versus inorganic approaches. Berlin Heidelberg Springer 2000. p. 95-146. [Pg.408]

Krische, M., Lehn, J.-M. The Utilization of Persistent H-Bonding Motifs in the Self-Assembly of Supramolecular Architectures. In Fuiita, M. (ed.) Molecular Self-Assembly Organic Versus Inorganic Approaches. Structure and Bonding, vol. 96, pp. 3-29. Springer, Berlin Heidelberg (2000). doi 10.1007/3-540-46591-X l... [Pg.179]

Cariati, E., R. Ugo, F. Cariati, D. Roberto, N. Masciocchi, S. Galli, and A. Sironi. 2001. J-aggregates granting giant second-order NLO responses in self-assembled hybrid inorganic-organic materials. Adv. Mater. 13 1665-1668. [Pg.211]


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Nanofibers organic/inorganic, self-assembly

Organic Assemblies

Organic organized assemblies

Organic self-organizing

Organic/inorganic assemblies

Organized assemblies

Self-assembled organic-inorganic characterization

Self-assembly, organized assemblies

Self-organizing

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