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Progress in Chemistry
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Figure/Table detail
Crystal Material Construction Based on DNA Nanotechnology
Peixin Li, Mushi Peng, Xuehui Yan, Yifan Yu, Ye Tian
Progress in Chemistry
, 2024, 36(
7
): 949-960. DOI:
10.7536/PC240116
Fig. 1
Three important DNA nanotechnology techniques for constructing crystal materials: DNA tiles, programmable atomic equivalents, and DNA origami
Other figure/table from this article
Fig. 2
(a) Archimedean shapes and the DNA tiles composing them
[
19
]
, Copyright © 2013, American Chemical Society; (b) A schematic diagram of a hexagonal lattice composed of “six-pointed star” DNA tiles consisting of three strands
[
6
]
, Copyright © 2006, American Chemical Society; (c) A schematic diagram of DNA tensegrity triangles
[
25
]
; (d) Diamond (R3) and hexagonal (P63) lattices constructed using DNA tensegrity triangles
[
10
]
, Copyright © 2021, American Chemical Society.
Fig. 3
(a) Schematic diagram of PAE composition and crystal structure
[
31
]
, Copyright © 2022 Wiley‐VCH GmbH; (b) Programmed assembly of gold nanoparticles DNA conjugates into different crystal arrangements by changing the sequence of DNA linkers
[
60
]
, Copyright © 2013 WILEY‐VCH Verlag GmbH & Co. KGaA, Weinheim; (c) Lattice contraction and expansion caused by pH changes
[
40
]
, Copyright © 2018, American Chemical Society; (d) Four colloidal crystal alloy equivalents composed of EEs and PAE
[
61
]
, Copyright © 2019, American Chemical Society
Fig. 4
(a) The invention of DNA origami
[
95
]
; (b) Multiple layers of DNA origami form a honeycomb lattice
[
96
]
,Copyright © 2020, Springer Nature Switzerland AG; (c) Different DNA origami frameworks self assemble to form a lattice
[
86
]
, Copyright © 2016, Springer Nature Limited; (d) Preparation of Wulff shaped single crystals using DNA origami octahedra
[
94
]
,scale bar:1 μm