Three-dimensional organization of block copolymers on "DNA-minimal" scaffolds.
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abstract
Here, we introduce a 3D-DNA construction method that assembles a minimum number of DNA strands in quantitative yield, to give a scaffold with a large number of single-stranded arms. This DNA frame is used as a core structure to organize other functional materials in 3D as the shell. We use the ring-opening metathesis polymerization (ROMP) to generate block copolymers that are covalently attached to DNA strands. Site-specific hybridization of these DNA-polymer chains on the single-stranded arms of the 3D-DNA scaffold gives efficient access to DNA-block copolymer cages. These biohybrid cages possess polymer chains that are programmably positioned in three dimensions on a DNA core and display increased nuclease resistance as compared to unfunctionalized DNA cages.
McLaughlin, C. K., Hamblin, G. D., Hnni, K. D., Conway, J. W., Nayak, M. K., Carneiro, K., Bazzi, H. S., & Sleiman, H. F.
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McLaughlin, Christopher K||Hamblin, Graham D||Hänni, Kevin D||Conway, Justin W||Nayak, Manoj K||Carneiro, Karina MM||Bazzi, Hassan S||Sleiman, Hanadi F