Literature DB >> 24061231

What molecular assembly can learn from catalytic chemistry.

Yu Wang1, Hai-Xin Lin, Liang Chen, Song-Yuan Ding, Zhi-Chao Lei, De-Yu Liu, Xiao-Yu Cao, Hao-Jun Liang, Yun-Bao Jiang, Zhong-Qun Tian.   

Abstract

One important objective of molecular assembly research is to create highly complex functional chemical systems capable of responding, adapting, and evolving. Compared with living systems, the synthetic systems are still rather primitive and are far from realizing those features. Nature is by far the most important source of inspiration for designing and creating such systems. In this critical review, we summarize an alternative approach, inspired by catalysis, to examine and describe some molecular assembly processes. A new term, "catassembly," is suggested to refer to the increase in the rate and control of a molecular assembly process. This term combines the words "catalysis" and "assembly," and identifiably retains the Greek root "cat-" of catalysis. The corresponding verb is "catassemble" and the noun is "catassembler", referring to the "helper" species. Catassembly in molecular assembly is a concept that is analogous to catalysis in chemical synthesis. After using several examples to illustrate the characteristics of catassembly, we discuss future methodological and theoretical developments. We also emphasize the significance of the synergy between chemical synthesis and molecular assembly, especially for hierarchical assembly systems. Because most efforts in the field of molecular assembly have been devoted to the design and synthesis of molecular building blocks, we wish to stress the apparently missing yet critical link to complex chemical systems, i.e., the design and utilization of molecular catassemblers to facilitate the formation of functional molecular assemblies from building blocks with high efficiency and selectivity. This rational control and accelerated method will promote the systems chemistry approach, and may expand the spectrum of molecular assembly from basic science to applications.

Year:  2013        PMID: 24061231     DOI: 10.1039/c3cs60212e

Source DB:  PubMed          Journal:  Chem Soc Rev        ISSN: 0306-0012            Impact factor:   54.564


  5 in total

1.  Programming colloidal bonding using DNA strand-displacement circuitry.

Authors:  Xiang Zhou; Dongbao Yao; Wenqiang Hua; Ningdong Huang; Xiaowei Chen; Liangbin Li; Miao He; Yunhan Zhang; Yijun Guo; Shiyan Xiao; Fenggang Bian; Haojun Liang
Journal:  Proc Natl Acad Sci U S A       Date:  2020-03-04       Impact factor: 11.205

Review 2.  Catalysis with two-dimensional materials and their heterostructures.

Authors:  Dehui Deng; K S Novoselov; Qiang Fu; Nanfeng Zheng; Zhongqun Tian; Xinhe Bao
Journal:  Nat Nanotechnol       Date:  2016-03       Impact factor: 39.213

3.  Programming chain-growth copolymerization of DNA hairpin tiles for in-vitro hierarchical supramolecular organization.

Authors:  Honglu Zhang; Yu Wang; Huan Zhang; Xiaoguo Liu; Antony Lee; Qiuling Huang; Fei Wang; Jie Chao; Huajie Liu; Jiang Li; Jiye Shi; Xiaolei Zuo; Lihua Wang; Lianhui Wang; Xiaoyu Cao; Carlos Bustamante; Zhongqun Tian; Chunhai Fan
Journal:  Nat Commun       Date:  2019-03-01       Impact factor: 14.919

4.  Supramolecular copolymerization through self-correction of non-polymerizable transient intermediates.

Authors:  Ganyu Chen; Peichen Shi; Longhui Zeng; Liubin Feng; Xiuxiu Wang; Xujing Lin; Yibin Sun; Hongxun Fang; Xiaoyu Cao; Xinchang Wang; Liulin Yang; Zhongqun Tian
Journal:  Chem Sci       Date:  2022-06-17       Impact factor: 9.969

5.  Chaperone-like chiral cages for catalyzing enantio-selective supramolecular polymerization.

Authors:  Yu Wang; Yibin Sun; Peichen Shi; Matthew M Sartin; Xujing Lin; Pei Zhang; Hongxun Fang; Pixian Peng; Zhongqun Tian; Xiaoyu Cao
Journal:  Chem Sci       Date:  2019-07-30       Impact factor: 9.825

  5 in total

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