If you are seeing this message, you may be experiencing temporary network problems. Please wait a few minutes and refresh the page. If the problem persists, you may wish to report it to your local Network Manager.
It is also possible that your web browser is not configured or not able to display style sheets. In this case, although the visual presentation will be degraded, the site should continue to be functional. We recommend using the latest version of Microsoft or Mozilla web browser to help minimise these problems.
Wiley InterScience | ||||||||||||||||
![]() FEBS JournalVolume 274 Issue 2, Pages 317 - 322 Published Online: 20 Dec 2006 Journal compilation © 2010 Federation of European Biochemical Societies Published on behalf of the Federation of European Biochemical Societies
Abstract | References | Full Text: HTML, PDF (Size: 548K) | Related Articles | Citation Tracking MINIREVIEW Use of biomolecular templates for the fabrication of metal nanowires Copyright 2007 The Author Journal compilation 2007 FEBS KEYWORDS bionanotechnology • electroless deposition • fibrils • molecular recognition • self-assembly ABSTRACTThe nano-scale spatial organization of metallic and other inorganic materials into 1D objects is a key task in nanotechnology. Nano-scale fibers and tubes are very useful templates for such organization because of their inherent 1D organization. Fibrillar biological molecules and biomolecular assemblies are excellent physical supports on which to organize the inorganic material. Furthermore, these biological assemblies can facilitate high-order organization and specific orientation of inorganic structures by their utilization of highly specific biological recognition properties. In this minireview, I will describe the use of biomolecules and biomolecular assemblies, including DNA, proteins, peptides, and even viral particles, which are excellent templates for 1D organization of inorganic materials into wires. This ranges from simple attempts at electroless deposition on inert biological templates to the advanced use of structural motifs and specific protein–DNA interactions for nano-bio-lithography as well as the fabrication of multilayer organic and inorganic composites. The potential technological applications of these hybrid biological–inorganic assemblies will be discussed. (Received 6 October 2006, accepted 3 November 2006) |
|
|
|