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. 2023 Oct 2;23:100827. doi: 10.1016/j.mtbio.2023.100827

Table 3.

Antimicrobial mechanism and application of common materials.

Material Antibacterial mechanism Application Bacterial type Antibacterial adjuvant and antibacterial mechanism Biocompatibility Ref.
Au Physical destruction of the biofilms by light-driven motion P. aeruginosa [104]
Au nanorods PTT Ablation infected osteomyelitis MRSA Cip (antibiotic) Cell viability was >80%. [97]
Au NPs Treatment of subcutaneous abscess S. aureus PHMB (electrostatic interaction) Cell viability was >90%. [113]
Fe2+ ·OH is produced through the Fenton or Fenton-like reaction Protecting tooth extraction wound S. mutans CPNC (PTT) No significant cytotoxicity, and hemolysis rates
<5%.
[100]
Fe3O4 Magnetically driven physical destruction Treatment of skin and soft tissue infection MRSA ZIF (physical destruction of the biofilms by a flower-like structure with sharp edges) Cell viability was >90%. [103]
Elimination of microchannels biofilms S. aureus, MRSA and P. aeruginosa H2O2 (dye drives physical destruction of the biofilms) No significant cytotoxicity. [102]
POD-like activity catalyze the generation of·OH Wounds and subcutaneous implant-associated biofilms infection treatment S. aureus and E. coli GO (PTT) No significant cytotoxicity. [54]
Ga3+ Interfering with Fe3+ metabolism of bacteria or biofilms Orthopedic implants Ti–Ga alloys S. aureus and E. coli No significant cytotoxicity. [53]
Pt POD-like activity catalyze the generation of ·OH Therapy of biofilms-induced periodontitis S. aureus Cell viability was >90%, and hemolysis rates were <5%. [114]
Ce (IV) DNase activity, degrades eDNA Treatment of subcutaneous abscess S. aureus GO (PTT) Cell viability was >80%. [32]
Snitrosoglutathione (GSNO) Release NO due to GSNO could be disrupted by heat, light, and some metal ions Therapy of infected wounds E. coli and S. aureus Cell viability was >90%. [88]
L-Arg Release NO due to oxidization of H2O2 Treatment of infected wounds. E. coli and S. aureus [85]
NONOate Release NO in an acidic microenvironment Alleviate inflammation in a subcutaneous infection S. aureus Cip (antibiotic) No significant cytotoxicity. [63]
QSC Electrostatic interaction Coating P. aeruginosa ACY (QSI) Cell viability was >95%. [46]
QAS Electrostatic interaction Coating applied on the surface of orthopedic implant materials E. coli and S. aureus Hemolysis rates <0.1%. [28]