Self-Assembled DNA-Based Structures for Nanoelectronics
DOI:
https://doi.org/10.13052/same2245-4551.115Keywords:
Self-assembly, DNA nanostructures, electrical conductivity of DNA, carbon nanotubes, nanoparticles.Abstract
Recent developments in structural DNA nanotechnology have made com-
plex and spatially exactly controlled self-assembled DNA nanoarchitectures
widely accessible. The available methods enable large variety of differ-
ent possible shapes combined with the possibility of using DNA structures
as templates for high-resolution patterning of nano-objects, thus opening
up various opportunities for diverse nanotechnological applications. These
DNA motifs possess enormous possibilities to be exploited in realization of
molecular scale sensors and electronic devices, and thus, could enable fur-
ther miniaturization of electronics. However, there are arguably two main
issues on making use of DNA-based electronics: (1) incorporation of indi-
vidual DNA designs into larger extrinsic systems is rather challenging, and
(2) electrical properties of DNA molecules and the utilizable DNA templates
themselves, are not yet fully understood. This review focuses on the above
mentioned issues and also briefly summarizes the potential applications of
DNA-based electronic devices.
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