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Folding complex DNA nanostructures from limited sets of reusable sequences
Author(s) -
Stefan Niekamp,
Katy Blumer,
Parsa M. Nafisi,
Kathy Tsui,
J.H. Garbutt,
Shawn M. Douglas
Publication year - 2016
Publication title -
nucleic acids research
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 9.008
H-Index - 537
eISSN - 1362-4954
pISSN - 0305-1048
DOI - 10.1093/nar/gkw208
Subject(s) - biology , dna , oligonucleotide , folding (dsp implementation) , dna origami , computational biology , dna nanotechnology , nanostructure , nanotechnology , biophysics , genetics , materials science , engineering , electrical engineering
Scalable production of DNA nanostructures remains a substantial obstacle to realizing new applications of DNA nanotechnology. Typical DNA nanostructures comprise hundreds of DNA oligonucleotide strands, where each unique strand requires a separate synthesis step. New design methods that reduce the strand count for a given shape while maintaining overall size and complexity would be highly beneficial for efficiently producing DNA nanostructures. Here, we report a method for folding a custom template strand by binding individual staple sequences to multiple locations on the template. We built several nanostructures for well-controlled testing of various design rules, and demonstrate folding of a 6-kb template by as few as 10 unique strand sequences binding to 10 ± 2 locations on the template strand.

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