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Progress in Chemistry 2023, Vol. 35 Issue (4): 560-576 DOI: 10.7536/PC221016 Previous Articles   Next Articles

• Review •

Catechol Hydrogel as Wet Tissue Adhesive

Yiming Chen, Huiying Li, Peng Ni, Yan Fang(), Haiqing Liu, Yunxiang Weng()   

  1. College of Chemistry and Materials Science, Fujian Normal University,Fuzhou 350007, China
  • Received: Revised: Online: Published:
  • Contact: *e-mail: haiqingliu@fjnu.edu.cn(Haiqing Liu); wengyx20@fjnu.edu.cn(Yunxiang Weng)
  • Supported by:
    National Natural Science Foundation of China(52103108); National Natural Science Foundation of China(22175037); Key Project for Advancing Science and Technology of Fujian Province([2021]415-2021G02005); Social Development of Instructive Program of Fujian Province(2020Y0020); Education and research project for young and middle-aged teachers of Fujian Province(JAT210047)
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Wet adhesion plays an important role in the gestation and development of life. The research shows that hydrogel is a kind of intelligent material with both solid and liquid properties. They have been widely used in such areas as wound closure and repair, cell engineering and tissue engineering, owing to their noteworthy versatility and bio-compatibility. However, the physiological environment is usually wet, and the hydration layer on wet tissue surface prevents hydrogel from forming interfacial adhesion bonds with tissue surface. Faced with this challenge, inspired by the fact that the catechol group of DOPA is critical group for the underwater adhesion of mussels, the structure and functional unit design of catechol hydrogel have attracted wide attention. This review introduces the structure and wet adhesion mechanism of mussel foot proteins (Mfps), and the main types of catechol derivatives are classified into natural Mfps or Mfps synthesized by genetic engineering, catechol small molecular compounds, natural polymers modified by catechol groups and synthesized functional polymers containing catechol groups. Nextly, the research progress of catechol hydrogel as wet tissue adhesive in the past decade is summarized, such as tissue wound repair materials, biological coating materials, targeted drug delivery materials and bioelectronic equipment materials. Finally, the opportunities and challenges of catechol hydrogel are prospected.

Key words: mussel foot proteins, adhesion mechanism, catechol, wet tissue-adhesion, hydrogel
Fig.1 Distribution map of Mfps
Fig.2 Action mechanism diagram of catechol group
Fig.3 Schematic of self-assembling peptide showing sequential positions of DOPA, lysine, arginine and tyrosine residues. Peptides assemble into fibrillar networks displaying the side chains of these residues with local fibril regiospecificity
Fig.4 Molecular structure of(a) TA, (b) DA and (c) UH
Fig.5 Structures of catechol-functionalized polysaccharide
Fig.6 Structures of catechol-functionalized synthesized polymer
Fig.7 Schematic diagram of Mfp-5 mimetic polymer
Fig.8 Schematic diagram for coordinated and covalent glycopolyeptide hydrogels (i.e., R-Gels and V-Gels); HRP: Horseradish peroxidase
Fig.9 Schematic illustration of the reaction mechanisms and the coating formation processes of L-dopa, L-dopa/PEI, and DA
Fig.10 (a) Constructing soft armour-like hydrophobic adhesive layer on the surface of PAM-SDS-C18-DA prehydrogel; (b) Schematic illustration of iron triggered recombination of SDS micelle
Fig.11 DOPA-g-CS form covalent linkages with the amines and cysteine residues of mucin
Fig.12 Immobilization and pH-Responsive Release of Dox from PDA Capsules
Fig.13 Schematic illustration of the hydrogel-integrated bio-adhesive ultrasoft BMI
Fig.14 (a1) Synthesis and chemical structures of dsCD; (a2) Synthesis and chemical structures of Gel-UPy/dsCD hydrogels
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Abstract

Catechol Hydrogel as Wet Tissue Adhesive