Compact error-resilient computational DNA tiling assemblies

Published

Journal Article

The self-assembly process for bottom-up construction of nanostructures is of key importance to the emerging scientific discipline Nanoscience. However, self-assembly at the molecular scale is prone to a quite high rate of error. Such high error rate is a major barrier to large-scale experimental implementation of DNA tiling. The goals of this paper are to develop theoretical methods for compact error-resilient self-assembly and to analyze these methods by stochastic analysis and computer simulation. Prior work by Winfree provided an innovative approach to decrease tiling self-assembly errors without decreasing the intrinsic error rate ε of assembling a single tile. However, his technique resulted in a final structure that is four times the size of the original one. This paper describes various compact error-resilient tiling methods that do not increase the size of the tiling assembly. These methods apply to assembly of boolean arrays which perform input sensitive computations (among other computations). Our 2-way (3-way) overlay redundancy construction drops the error rate from ε to approximately ε 2 (ε3), without increasing the size of the assembly. These results were further validated using stochastic analysis and computer simulation. © Springer-Verlag Berlin Heidelberg 2005.

Duke Authors

Cited Authors

  • Reif, JH; Sahu, S; Yin, P

Published Date

  • September 9, 2005

Published In

Volume / Issue

  • 3384 /

Start / End Page

  • 293 - 307

International Standard Serial Number (ISSN)

  • 0302-9743

Citation Source

  • Scopus