Abstract
The typical dimensions of components attractive for micro-and opto-electronic applications are continuously shrinking Obviously, not all components (e.g. band-gap structures like quantum dots or nanotubes) can be produced with lithographic IC compatible technologies just in place of use. Different self-assembly procedures supported also by external force fields have been proposed to handle individual small entities at the microscale. ‘lb evaluate basic self-assembly techniques for “untouchable” microparts, we have chosen purple membrane (PM) sheets as model components. Their basic protein unit bacteriorhodopsin can be anchored by chemical linkers and thus the membrane sheets (∼ 1 μm diameter, 5 nm thick) can be specifically attached to any desired surface. A genetic variant (D36C) of the protein can be linked directly through the introduced thiolfunction to gold surfaces. The 2-dimensional crystalline PM sheets may be of interest for optoelectronic sensing but also as a biomimetic nano-templates.
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Fiedler, S., Zwanzig, M., Fischer, T., Hampp, N. (2004). Mounting at the Nanoscale by Addressing Nanostructured Biological Templates — Another Packaging Strategy for Nanoscaled Electronics?. In: Knobloch, H., Kaminorz, Y. (eds) MicroNano Integration. VDI-Buch. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-18727-8_29
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DOI: https://doi.org/10.1007/978-3-642-18727-8_29
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