Error Tolerance of DNA Self-Healing Assemblies by Puncturing

Self-assembly is affected by high error rates due to incorrect tiles in nano-technology manufacturing. Tile sets that can heal (fully or partially) an erroneous assembly have been proposed. Self-healing requires growth to be restarted such that erroneous tiles can be removed and the correct tiles to...

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Hauptverfasser: Hashempour, M., Arani, Z.M., Lombardi, F.
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description Self-assembly is affected by high error rates due to incorrect tiles in nano-technology manufacturing. Tile sets that can heal (fully or partially) an erroneous assembly have been proposed. Self-healing requires growth to be restarted such that erroneous tiles can be removed and the correct tiles to bind to the aggregate. Punctures can be used for this purpose. The goal of this paper is to characterize an intentionally induced puncture (and its relevant properties) on an erroneous tile site in the assembly. This allows to propagate any newly generated error away from the source of growth (i.e. the seed tile), such that self-assembly can continue along specific directions. Different types of puncture are considered with respect to growth direction, error and aggregate types. Puncture resilience is analyzed using a new characterization metric; different tile sets are investigated in detail. Analytical and simulation results are provided.
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identifier ISSN: 1550-5774
ispartof 22nd IEEE International Symposium on Defect and Fault-Tolerance in VLSI Systems (DFT 2007), 2007, p.400-408
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2377-7966
language eng
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source IEEE Electronic Library (IEL) Conference Proceedings
subjects Aggregates
Analytical models
Assembly systems
DNA
Error analysis
Error correction
Manufacturing
Redundancy
Self-assembly
Tiles
title Error Tolerance of DNA Self-Healing Assemblies by Puncturing
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