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Progress in Chemistry 2019, Vol. 31 Issue (1): 83-93 DOI: 10.7536/PC180436 Previous Articles   Next Articles

• Review •

Stimuli-Responsive Peptides Self-Assembly and Its Application

Jiatian Guo, Yuchao Lu, Chen Bi, Jiating Fan, Guohe Xu**(), Jingjun Ma**()   

  • Received: Revised: Online: Published:
  • Contact: Guohe Xu, Jingjun Ma
  • About author:
    ** Corresponding author e-mail: (Guohe Xu);
    (Jingjun Ma)
  • Supported by:
    The work was supported by the Young Tip-top Talents Plan of Universities, the Colleges in Hebei Province of China(BJ201702); The Specific Foundation for Doctor in Hebei Agriculture University of China(ZD2016027)
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Peptides self-assembly has great potential applications in the field of biomedicine and construction of new materials for the advantages of stable structure, easy control, and good biocompatibility and biodegradability. In this paper, the progress in peptides self-assembly is systematically reviewed, including the conception, mechanism and applications, focusing on the stimuli-responsive peptides self-assembly. According to the difference of stimuli, stimuli-responsive peptides self-assembly can be classified into pH-responsive self-assembly, temperature-responsive self-assembly, solvent-responsive self-assembly, light-responsive self-assembly, ultrasonic responsive self-assembly, and ion-responsive self-assembly. The applications of peptides self-assembly in drug release carriers, the repair of spinal cord injury, biomimetic enzyme catalysis, and biological template are listed in detail. Finally, the problems of peptides self-assembly research, such as difficult control of the external factors that affect the structure of assembly and the low degree of overlap between peptides self-assembly and life sciences, are analyzed, and the future development of stimuli-responsive peptides self-assembly is prospected.

Key words: peptides, self-assembly, stimuli-responsive
Fig.1 The mechanism of peptides self-assembly
Fig.2 pH-responsive self-assembly of PA[59]
Fig.3 pH-responsive self-assembly based on peptide sequence composed of arginine and aspartate[60]
Fig.4 pH induced self-assembly of PA[62]
Fig.5 pH-responsive self-assembly based on C-12-GAGAGAGY[63]
Fig.6 Temperature induced PA self-assembled into nanotubes and spiral belt[67]
Fig.7 Temperature-responsive self-assembly based on FF[68]
Fig.8 Solvent-responsive self-assembly based on peptide-polymer[69]
Fig.9 Solvent-responsive self-assembly baesd on FF[70]
Fig.10 Light-responsive self-assembly based on Gemini α-Helix peptide[72]
Fig.11 Ultrasound-responsive self-assembly based on soybean peptide[75]
Fig.12 Cu2+-responsive self-assembly based on Aβ19-20[76]
Fig.13 Fmoc-FFH-CONH2 catalytic cleavage[90]
Fig.14 Illustration of the self-evolution of porphyrins and peptides to a model of a primitive photosystem in a volcanic hydrothermal “prebiotic soup”[92]
Fig.15 Scheme of the Au nanowire fabrication (a)Histidine sequence-containing peptides are immobilized on the amide binding site of the template (b) Au ion immobilization on the sequenced histidine-rich peptide and (c) Au nanocrystal growth[93]
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