From molecular to macroscopic via the rational design of a self-assembled 3D DNA crystal

被引:0
|
作者
Jianping Zheng
Jens J. Birktoft
Yi Chen
Tong Wang
Ruojie Sha
Pamela E. Constantinou
Stephan L. Ginell
Chengde Mao
Nadrian C. Seeman
机构
[1] New York University,Department of Chemistry
[2] Purdue University,Department of Chemistry
[3] West Lafayette,undefined
[4] Indiana 47907,undefined
[5] USA,undefined
[6] Structural Biology Center,undefined
[7] Argonne National Laboratory,undefined
[8] Argonne,undefined
[9] Illinois 60439,undefined
[10] USA,undefined
[11] Present address: Department of Bioengineering,undefined
[12] Rice University,undefined
[13] 6100 Main Street,undefined
[14] MS-142,undefined
[15] Houston,undefined
[16] Texas 77005,undefined
[17] USA.,undefined
来源
Nature | 2009年 / 461卷
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Creating a macroscopic object, such as a crystal, with the microscopic molecular structure desired is a challenge. One promising approach is the use of macromolecules with robust three-dimensional motifs and sticky ends so that, by attaching to one another, they can form a periodic arrangement that can be investigated by crystallographic techniques. Zheng et al. use DNA for this purpose, arranged in a structural motif called a tensegrity triangle, and can grow crystals of the order of 200 micrometres in size, in which the positions of the atoms can be determined with a precision of 4 Å. The highly specific interaction between complementary DNA strands makes it possible to realize the desired and designed structure for the unit cell of the crystal. The latter also exhibits periodic holes, which could potentially be used to host biomolecules in a three-dimensional periodic arrangement, making it possible to determine their structure even if they do not crystallize on their own.
引用
收藏
页码:74 / 77
页数:3
相关论文
共 50 条
  • [31] 3D Cell Culture in a Self-Assembled Nanofiber Environment
    Chai, Yi Wen
    Lee, Eu Han
    Gubbe, John D.
    Brekke, John H.
    PLOS ONE, 2016, 11 (09):
  • [32] A Self-Assembled Planar Chemical Garden in a 3D Solution
    Angelis, Georgios
    Pampalakis, Georgios
    CHEMISTRYSELECT, 2020, 5 (11): : 3454 - 3457
  • [33] Defect engineering in self-assembled 3D photonic crystals
    Yan, Qingfeng
    Zhou, Zuocheng
    Su, Fabing
    Zhao, X. S.
    NANOSCIENCE AND TECHNOLOGY, PTS 1 AND 2, 2007, 121-123 : 57 - 60
  • [34] Growth control of 3d self-assembled nanoporous colloids
    Sokolov, I
    Kievsky, Y
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2005, 229 : U721 - U721
  • [35] Defect engineering in self-assembled 3D photonic crystals
    Yan, Qingfeng
    Zhou, Zuocheng
    Su, Fabing
    Zhao, X. S.
    NANOSCIENCE AND TECHNOLOGY, PTS 1 AND 2, 2007, 121-123 : 377 - 380
  • [36] Design automation for DNA self-assembled nanostructures
    Pistol, Constantin
    Lebeck, Alvin R.
    Dwyer, Chris
    43RD DESIGN AUTOMATION CONFERENCE, PROCEEDINGS 2006, 2006, : 919 - +
  • [37] A Cellular Architecture for Self-Assembled 3D Computational Devices
    Macias, N. J.
    Pandey, S.
    Deswandikar, A.
    Kothapalli, C. K.
    Yoon, C. K.
    Gracias, D. H.
    Teuscher, C.
    PROCEEDINGS OF THE 2013 IEEE/ACM INTERNATIONAL SYMPOSIUM ON NANOSCALE ARCHITECTURES (NANOARCH), 2013, : 116 - 121
  • [38] Self-Assembled DNA Nanospheres: Design and Applications
    Li, Jing
    Liu, Xiaojun
    Wang, Jiaoli
    Jiang, Qi
    Chen, Minhui
    Zhang, Wei
    Chen, Yu
    Pu, Ying
    Huang, Jin
    CHEMISTRY-SWITZERLAND, 2023, 5 (03): : 1882 - 1910
  • [39] The design of DNA self-assembled computing circuitry
    Dwyer, C
    Vicci, L
    Poulton, J
    Erie, D
    Superfine, R
    Washburn, S
    Taylor, RM
    IEEE TRANSACTIONS ON VERY LARGE SCALE INTEGRATION (VLSI) SYSTEMS, 2004, 12 (11) : 1214 - 1220
  • [40] Tunable, self-assembled 3D reduced graphene oxide structures fabricated via boiling
    Jo, HangJin
    Noh, Hyunwoo
    Kaviany, Massoud
    Kim, Ji Min
    Kim, Moo Hwan
    Ahn, Ho Seon
    CARBON, 2015, 81 : 357 - 366