Mechanisms and promising applications of mussel-inspired hydrogels
Subject Areas :AKBAR MIRZAEI 1 , shahrzad javanshir 2 , ghalzaleh MIRZAEI 3
1 - elmosanat
2 - no
3 - no
Keywords: hydrogel, dopamine, flexible electronics, mussel-inspired chemistry, catechol,
Abstract :
mussel-inspired chemistry has become a powerful tool for the rational design and synthesis of hydrogels with modified properties and applications due to their unique functionalities. Hydrogels are cross-linked three-dimensional polymer networks with high water content and flexible structure, and due to their mechanical and chemical similarities with biological tissues, as well as the existence of mechanical and electrical properties, they are used in various fields of medical engineering, soft robotics, Electronics and environmental science have many applications. Despite the extensive progress in this field, conventional hydrogels still face many problems, such as the lack of general strategies to program the chemical/physical properties and the difficulty in meeting some specific application requirements, especially in the diverse and complex working environment that limit their application. severely restricts. Therefore, the modification of hydrogels according to different purposes can lead to their more and better use in various industries. Adhesive hydrogels are gaining interest for biomedical applications due to their high adhesion, tunable structure, high water content, and biocompatibility. Meanwhile, the modification of normal hydrogels with the help of oyster-inspired chemistry, such as the use of dopamine and tannic acid, can give unique properties to the gels and their application in many fields, including biomedical engineering, electronics, stimuli and sensors. Wider wearable. Our aim in this review article is to investigate the hydrogel made with the help of mussel-inspired compounds.
1. Zhang C., Xiang L., Zhang J., Revisiting the Adhesion Mechanism of Mussel-inspired Chemistry, Chemical Science, 13, 1698-170, 2022.
2. Kan Y., Danner W., Israelachvili N., Boronate Complex Formation with Dopa Containing Mussel Adhesive Protein Retards PH-Induced Oxidation and Enables Adhesion to Mica, Plos one, 9, 108869. 2014.
3. Yu J., et al., Mussel Protein Adhesion Depends on Interprotein Thiol-mediated Redox Modulation. Nat Chem Biol, 7 588-90. 2011.
4. Kord Forooshani P., Lee B.P., Recent Approaches in Designing Bioadhesive Materials Inspired by Mussel Adhesive Protein, Journal of Polymer Science Part A: Polymer Chemistry, 55, 9-33. 2017.
5. Guo Q., Chen J., Wang J., Recent Progress in Synthesis and Application of Mussel-inspired Adhesives, Nanoscale, 2, 1307-1324. 2020.
6. Li Z., Chen Z., Chen H., Polyphenol-based hydrogels: Pyramid Evolution from Crosslinked Structures to Biomedical Applications and the Reverse Design. Bioactive Materials,. 17, 49-70. 2022.
7. Yu J., Wei W., Danner E., Israelachvili J., Effects of Interfacial Redox in Mussel Adhesive Protein Films on Mica, Adv Mater, 23, 2362-6. 2011.
8. Zhang X., Mussel-inspired Adhesive and Conductive Hydrogel with Tunable Mechanical Properties for Wearable Strain Sensors. Gournal of Colloid and Interface Science, 585, 420-432, 2021.
9. Heidarian P., Kouzani A.Z., Kaynak A, Bahrami B., Rational Design of Mussel‐inspired Hydrogels with Dynamic Catecholato− Metal Coordination Bonds, Macromolecular Rapid Communications, 41, 2000439. 2020.
10. Gebbie M.A., et al., Tuning Underwater Adhesion with Cation-π Interactions, Nat Chem, 9, 473-479. 2017.
11. Fu J., et al., Adsorption of Methylene Blue by a High-efficiency Adsorbent (Polydopamine Microspheres): Kinetics, Isotherm, Thermodynamics and Mechanism Analysis, Chemical Engineering Journal, 259, 53-61. 2015.
12. Harrington M.J., Iron-Clad Fibers: a Metal-based Biological Strategy for Hard Flexible Coatings, Science, 328, 216-20. 2010.
13. Zeng H., Hwang D.S., Israelachvili J.N., Strong Reversible Fe3+-mediated Bridging Between Dopa-containing Protein Films in Water, Proc Natl Acad Sci U S A., 107, 12850-3. 2010.
14. Yan J., Springsteen G., Deeter S., Wang B., The Relationship Among PKA, PH, and Binding Constants in the Interactions Between Boronic Acids and Diols—it is not as Simple as it Appears, Tetrahedron, 60, 11205–11209, 2004.
15. Narkar A.R., PH Responsive and Oxidation Resistant Wet Adhesive Based on Reversible Catechol–Boronate Complexation, Chemistry of Materials, 28 5432-5439. 2016.
16. Lv R., Bei Z., Huang Y., Mussel‐inspired Flexible, Wearable, and Self‐ adhesive Conductive Hydrogels for Strain Sensors, Macromolecular rapid Communications,. 41, 1900450. 2020.
17. Lee H., Scherer N.F., Messersmith P.B., Single-molecule Mechanics of Mussel Adhesion, Proceedings of the National Academy of Sciences, 103, 12999-13003 .2006.
18. Han L., Polydopamine Nanoparticles Modulating Stimuli-Responsive Pnipam Hydrogels with Cell/Tissue Adhesiveness, ACS Applied Materials & Interfaces, 8, 29088-29100, 2016.
19. Ghavami Nejad A., PH/NIR Light-controlled Multidrug Release via a Mussel-Inspired Nanocomposite Hydrogel for Chemo-photothermal Cancer Therapy, Sci Rep, 6, 33594. 2016.
20. Han L., Yan L., Wang M., Transparent, Adhesive, and Conductive Hydrogel for Soft Bioelectronics Based on Light-transmitting Polydopamine-doped Polypyrrole Nanofibrils, Chemistry of Materials, 30, 5561-5572. 2018.
21. Rahim M.A., Metal–phenolic Supramolecular Gelation, Angewandte Chemie, 128, 14007-1401.1. 2016.
22. Liao M., Wan P., Wen J., Wearable, Healable, and Adhesive Epidermal Sensors Assembled from Mussel-Inspired Conductive Hybrid Hydrogel Framework, Advanced Functional Materials, 27, 1703852. 2017.
23. Jing X., Highly Stretchable and Biocompatible Strain Sensors Based on Mussel-Inspired Super-Adhesive Self-healing Hydrogels for Human Motion Monitoring, ACS Applied Materials & Interfaces, 10, 20897-20909. 2018.
24. Han L., Lu X., Wang M., A Mussel-inspired Conductive, Self-bdhesive, and Self-Healable Tough Hydrogel as Cell Stimulators and Implantable Bioelectronics, Small, 13, 2017.
25. Pan X., Wang Q., He P., Liu K., Mussel-Inspired Nanocomposite Hydrogel-based Electrodes with Reusable and Injectable Properties for Human Electrophysiological Signals Detection, ACS Sustainable Chemistry & Engineering, 7, 7918-7925. 2019.
26. Lee B.P., Konst S., Novel Hydrogel Actuator Inspired by Reversible Mussel Adhesive Protein Chemistry, Advanced Materials, 26, 3415-3419. 2014.
27. Jiang Z., Strong, Ultrafast, Reprogrammable Hydrogel Actuators with Muscle-Mimetic Aligned Fibrous Structures, Chemistry of Materials, 33, 7818-7828. 2021.
28. Zhang C., Vu B., Zhou Y., Mussel-Inspired Hydrogels: from Design Principles to Promising Applications. Chemical Society Reviews, 49, 3605-3637. 2020.
29. Han L., Tough, Self-healable and Tissue-adhesive Hydrogel with Tunable Multifunctionality. NPG Asia Materials, 9, e372-e372. 2017.
30. Liang Y., Zhao X., Hu T., Mussel-Inspired, Antibacterial, Conductive, Antioxidant, Injectable Composite Hydrogel Wound Dressing to Promote the Regeneration of Infected Skin. Journal of Colloid and Interface Science, 556, 514-528. 2019.
31. Xu M., Mussel-inspired Hydrogel with Potent in Vivo Contact-Active Antimicrobial and Wound Healing Promoting Activities, ACS Applied Bio Materials, 2, 3329-3340. 2019.
32. Gao H., Sun Y., Zhou J., Rong Xu, Duan H., Mussel-Inspired Synthesis of Polydopamine-functionalized Graphene Hydrogel as Reusable Adsorbents for Water Purification, ACS Applied Materials & Interfaces, 5, 425-432. 2013.
33. Zou Y., A Mussel-inspired Polydopamine-filled cellulose Aerogel for Solar-Enabled Water Remediation. ACS Applied Materials & Interfaces, 13, 7617-7624. 2021.
34. Bai Z., Mussel-inspired Anti-biofouling and Robust Hybrid Nanocomposite Hydrogel for Uranium Extraction from Seawater. Journal of Hazardous Materials, 381,120984. 2020.
35. Cao Y., Zhang ., Mussel-inspired Ag Nanoparticles Anchored Sponge for Oil/water Separation and Contaminants Catalytic Reduction. Separation and Purification Technology, 225, 18-23, 2019.
