Collagen/poly(acrylic acid)/ MXene hydrogels with tissue‐adhesive, biosensing, and photothermal antibacterial properties

The application of collagen-based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two-dimensional MXene nanosheets were introduced into collagen/ acrylic acid (AA) system, which was polymerized in situ to produce versatile hydrogel (GCol-...

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Published inPolymer engineering and science Vol. 63; no. 11; pp. 3672 - 3683
Main Authors Zhang, Min, Yang, Qili, Liang, Kaiwen, Gao, Lu, Lu, Peng, Ding, Cuicui, Dang, Yuan
Format Journal Article
LanguageEnglish
Published Newtown Society of Plastics Engineers, Inc 01.11.2023
Blackwell Publishing Ltd
Subjects
Antibacterial agents
Biocompatibility
Bonding strength
Collagen
Composition
Compressive properties
E coli
Electrical resistivity
Fibroblasts
Gels (Pharmacy)
Health aspects
Hydrogels
Hydroxides
Hydroxyl groups
In vitro methods and tests
Mechanical properties
MXenes
Near infrared radiation
Photothermal conversion
Polyacrylic acid
Properties
Strain
Tensile stress
Testing
Toxicity testing
China
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Abstract The application of collagen-based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two-dimensional MXene nanosheets were introduced into collagen/ acrylic acid (AA) system, which was polymerized in situ to produce versatile hydrogel (GCol-MX-PAA). The tensile stress and compressive stress values of the resultant hydrogel at the MXene concentration of 5 mg/mL reached 211.5 kPa and 7.8 MPa, respectively, which were approximately 4.0 and 1.4 times higher than those of GCol-PAA. The bonding strength of the hydrogel reached 30.7 kPa in the porcine skin-adhesive model owing to the large number of free phenolic hydroxyl groups on GCol. Furthermore, GCol-MX-PAA could be applied to monitor large and subtle activities of human body due to the excellent electrical conductivity of MXene. Thanks to the outstanding photothermal conversion performance of MXene, the hydrogel could kill E. coli and S. aureus effectively under NIR irradiation. In addition, in vitro cytotoxicity test performed on L929 fibroblasts demonstrated the desirable biocompatibility of GCol-MX-PAA. The design strategy in this work gives guidance for the development of multifunctional collagen-based hydrogel in a wide range of applications.
AbstractList The application of collagen-based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two-dimensional MXene nanosheets were introduced into collagen/ acrylic acid (AA) system, which was polymerized in situ to produce versatile hydrogel (GCol-MX-PAA). The tensile stress and compressive stress values of the resultant hydrogel at the MXene concentration of 5 mg/mL reached 211.5 kPa and 7.8 MPa, respectively, which were approximately 4.0 and 1.4 times higher than those of GCol-PAA. The bonding strength of the hydrogel reached 30.7 kPa in the porcine skin-adhesive model owing to the large number of free phenolic hydroxyl groups on GCol. Furthermore, GCol-MX-PAA could be applied to monitor large and subtle activities of human body due to the excellent electrical conductivity of MXene. Thanks to the outstanding photothermal conversion performance of MXene, the hydrogel could kill E. coli and S. aureus effectively under NIR irradiation. In addition, in vitro cytotoxicity test performed on L929 fibroblasts demonstrated the desirable biocompatibility of GCol-MX-PAA. The design strategy in this work gives guidance for the development of multifunctional collagen-based hydrogel in a wide range of applications. Highlights * Versatile hydrogel constructed from GA-modified collagen, PAA, and MXene. * The composite hydrogel displays improved mechanical properties. * This hydrogel possesses superior tissue adhesion and strain sensitivity. * This hydrogel shows desired photothermal antibacterial property and biocompatibility. KEYWORDS adhesion, biological applications of polymers, biomaterials, biopolymers, hydrogels
The application of collagen‐based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two‐dimensional MXene nanosheets were introduced into collagen/acrylic acid (AA) system, which was polymerized in situ to produce versatile hydrogel (GCol‐MX‐PAA). The tensile stress and compressive stress values of the resultant hydrogel at the MXene concentration of 5 mg/mL reached 211.5 kPa and 7.8 MPa, respectively, which were approximately 4.0 and 1.4 times higher than those of GCol‐PAA. The bonding strength of the hydrogel reached 30.7 kPa in the porcine skin‐adhesive model owing to the large number of free phenolic hydroxyl groups on GCol. Furthermore, GCol‐MX‐PAA could be applied to monitor large and subtle activities of human body due to the excellent electrical conductivity of MXene. Thanks to the outstanding photothermal conversion performance of MXene, the hydrogel could kill E. coli and S. aureus effectively under NIR irradiation. In addition, in vitro cytotoxicity test performed on L929 fibroblasts demonstrated the desirable biocompatibility of GCol‐MX‐PAA. The design strategy in this work gives guidance for the development of multifunctional collagen‐based hydrogel in a wide range of applications.HighlightsVersatile hydrogel constructed from GA‐modified collagen, PAA, and MXene.The composite hydrogel displays improved mechanical properties.This hydrogel possesses superior tissue adhesion and strain sensitivity.This hydrogel shows desired photothermal antibacterial property and biocompatibility.
The application of collagen-based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two-dimensional MXene nanosheets were introduced into collagen/ acrylic acid (AA) system, which was polymerized in situ to produce versatile hydrogel (GCol-MX-PAA). The tensile stress and compressive stress values of the resultant hydrogel at the MXene concentration of 5 mg/mL reached 211.5 kPa and 7.8 MPa, respectively, which were approximately 4.0 and 1.4 times higher than those of GCol-PAA. The bonding strength of the hydrogel reached 30.7 kPa in the porcine skin-adhesive model owing to the large number of free phenolic hydroxyl groups on GCol. Furthermore, GCol-MX-PAA could be applied to monitor large and subtle activities of human body due to the excellent electrical conductivity of MXene. Thanks to the outstanding photothermal conversion performance of MXene, the hydrogel could kill E. coli and S. aureus effectively under NIR irradiation. In addition, in vitro cytotoxicity test performed on L929 fibroblasts demonstrated the desirable biocompatibility of GCol-MX-PAA. The design strategy in this work gives guidance for the development of multifunctional collagen-based hydrogel in a wide range of applications.
Audience Academic
Author Yang, Qili
Gao, Lu
Ding, Cuicui
Dang, Yuan
Lu, Peng
Liang, Kaiwen
Zhang, Min
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  fullname: Dang, Yuan
  organization: Fujian Medical University Cancer Hospital Fujian Cancer Hospital Fuzhou China
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2023 Society of Plastics Engineers
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Snippet The application of collagen-based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two-dimensional...
The application of collagen‐based hydrogel is severely restricted due to its poor mechanical strength and functional singleness. In this paper, two‐dimensional...
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StartPage 3672
SubjectTerms Antibacterial agents
Biocompatibility
Bonding strength
Collagen
Composition
Compressive properties
E coli
Electrical resistivity
Fibroblasts
Gels (Pharmacy)
Health aspects
Hydrogels
Hydroxides
Hydroxyl groups
In vitro methods and tests
Mechanical properties
MXenes
Near infrared radiation
Photothermal conversion
Polyacrylic acid
Properties
Strain
Tensile stress
Testing
Toxicity testing
Title Collagen/poly(acrylic acid)/ MXene hydrogels with tissue‐adhesive, biosensing, and photothermal antibacterial properties
URI https://www.proquest.com/docview/2884564870
Volume 63
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