Autocatalytic and oscillatory reaction networks that form guanidines and products of their cyclization

被引:0
|
作者
Alexander I. Novichkov
Anton I. Hanopolskyi
Xiaoming Miao
Linda J. W. Shimon
Yael Diskin-Posner
Sergey N. Semenov
机构
[1] Weizmann Institute of Science,Department of Molecular Chemistry and Materials Science
[2] Weizmann Institute of Science,Department of Chemical Research Support
来源
Nature Communications | / 12卷
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Autocatalytic and oscillatory networks of organic reactions are important for designing life-inspired materials and for better understanding the emergence of life on Earth; however, the diversity of the chemistries of these reactions is limited. In this work, we present the thiol-assisted formation of guanidines, which has a mechanism analogous to that of native chemical ligation. Using this reaction, we designed autocatalytic and oscillatory reaction networks that form substituted guanidines from thiouronium salts. The thiouronium salt-based oscillator show good stability of oscillations within a broad range of experimental conditions. By using nitrile-containing starting materials, we constructed an oscillator where the concentration of a bicyclic derivative of dihydropyrimidine oscillates. Moreover, the mixed thioester and thiouronium salt-based oscillator show unique responsiveness to chemical cues. The reactions developed in this work expand our toolbox for designing out-of-equilibrium chemical systems and link autocatalytic and oscillatory chemistry to the synthesis of guanidinium derivatives and the products of their transformations including analogs of nucleobases.
引用
收藏
相关论文
共 50 条
  • [21] Evolution of Autocatalytic Sets in Computational Models of Chemical Reaction Networks
    Hordijk, Wim
    ORIGINS OF LIFE AND EVOLUTION OF BIOSPHERES, 2016, 46 (2-3): : 233 - 245
  • [22] Evolution of Autocatalytic Sets in Computational Models of Chemical Reaction Networks
    Wim Hordijk
    Origins of Life and Evolution of Biospheres, 2016, 46 : 233 - 245
  • [23] The hierarchical organization of autocatalytic reaction networks and its relevance to the origin of life
    Peng, Zhen
    Linderoth, Jeff
    Baum, David A.
    PLOS COMPUTATIONAL BIOLOGY, 2022, 18 (09)
  • [24] MUTATION IN AUTOCATALYTIC REACTION NETWORKS - AN ANALYSIS BASED ON PERTURBATION-THEORY
    STADLER, PF
    SCHUSTER, P
    JOURNAL OF MATHEMATICAL BIOLOGY, 1992, 30 (06) : 597 - 632
  • [25] Darwinian properties and their trade-offs in autocatalytic RNA reaction networks
    Ameta, Sandeep
    Arsene, Simon
    Foulon, Sophie
    Saudemont, Baptiste
    Clifton, Bryce E.
    Griffiths, Andrew D.
    Nghe, Philippe
    NATURE COMMUNICATIONS, 2021, 12 (01)
  • [26] Phase separation of interpenetrating polymer networks synthesized by using an autocatalytic reaction
    Nakanishi, Hideyuki
    Satoh, Masahiro
    Norisuye, Tomohisa
    Tran-Cong-Miyata, Qui
    MACROMOLECULES, 2006, 39 (26) : 9456 - 9466
  • [27] Structural constraints limit the regime of optimal flux in autocatalytic reaction networks
    Despons, Armand
    De Decker, Yannick
    Lacoste, David
    COMMUNICATIONS PHYSICS, 2024, 7 (01):
  • [28] Autocatalytic Reaction Networks: A Pathway to Spatial Temporal Mastery in Dynamic Materials
    Zhao, Yingshuai
    Li, Bohan
    Fu, Xiaoming
    Zhao, Peng
    Zhao, Yuanfeng
    Zhou, Wei
    Lu, Yan
    Zheng, Yijun
    ANGEWANDTE CHEMIE-INTERNATIONAL EDITION, 2025, 64 (03)
  • [29] Darwinian properties and their trade-offs in autocatalytic RNA reaction networks
    Sandeep Ameta
    Simon Arsène
    Sophie Foulon
    Baptiste Saudemont
    Bryce E. Clifton
    Andrew D. Griffiths
    Philippe Nghe
    Nature Communications, 12
  • [30] SMALL AUTOCATALYTIC REACTION NETWORKS .3. MONOTONE GROWTH FUNCTIONS
    STADLER, BMR
    STADLER, PF
    BULLETIN OF MATHEMATICAL BIOLOGY, 1991, 53 (03) : 469 - 485