Antimicrobial Nano‐Ag/Cu Composite Coatings on Pure Ti Implants by Magnetron Sputtering Following Pretreatment for Dental Applications

Pure Ti is widely utilized in dental implant applications due to its exceptional biocompatibility. However, its lack of antibacterial properties poses a limitation. To address this constraint, nanocomposite coatings with novel topographic microstructure and Ag, Cu nanoparticles are introduced onto the surface of pure Ti implants through sandblasting, acid etching, and hydrothermal treatment and magnetron sputtering. In addition, polished Ti substrates, Ti substrates subjected to sandblasting, acid etching, and hydrothermal treatment, as well as Ti samples individually magnetron sputtered with Ag and Cu, are fabricated and investigated. A systematic comparison between those samples is performed to investigate the influence of substrate surface microstructure and element composition on physicochemical characteristics and antibacterial performance of Ti implants. The results demonstrate that sandblasting, acid etching, and alkali heat treatment significantly enhance the surface roughness of pure Ti, thereby improving its wettability. Nano‐Ag and nano‐Cu particles are deposited via magnetron sputtering technology, resulting in excellent antibacterial properties. Compared to the single‐layer coating, the nano‐composite coating exhibited superior antibacterial activity despite releasing lower concentrations of Ag + and Cu 2+ . Therefore, nanocomposite Ag‐ and Cu‐based coatings fabricated by sandblasting, acid etching, hydrothermal treatment, and magnetron sputtering, effectively enhance the antibacterial properties of Ti implants for dental applications.

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Publication Details

Journal
Advanced Engineering Materials
Published
2025-03-28
DOI
https://doi.org/10.1002/adem.202402437
Citations
2
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
1.35

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article

Antimicrobial Nano‐Ag/Cu Composite Coatings on Pure Ti Implants by Magnetron Sputtering Following Pretreatment for Dental Applications

Jiannan Liu, Ping Cheng, Ping Liu, Leilei Yu et al.
2 citations
Advanced Engineering Materials
Bone Tissue Engineering Materials
1.35
article

Antimicrobial Nano‐Ag/Cu Composite Coatings on Pure Ti Implants by Magnetron Sputtering Following Pretreatment for Dental Applications

Jiannan Liu, Ping Cheng, Ping Liu, Leilei Yu, Wei Li, С. А. Карпушенков, Xun Ma
article en
2 citations

Abstract

Pure Ti is widely utilized in dental implant applications due to its exceptional biocompatibility. However, its lack of antibacterial properties poses a limitation. To address this constraint, nanocomposite coatings with novel topographic microstructure and Ag, Cu nanoparticles are introduced onto the surface of pure Ti implants through sandblasting, acid etching, and hydrothermal treatment and magnetron sputtering. In addition, polished Ti substrates, Ti substrates subjected to sandblasting, acid etching, and hydrothermal treatment, as well as Ti samples individually magnetron sputtered with Ag and Cu, are fabricated and investigated. A systematic comparison between those samples is performed to investigate the influence of substrate surface microstructure and element composition on physicochemical characteristics and antibacterial performance of Ti implants. The results demonstrate that sandblasting, acid etching, and alkali heat treatment significantly enhance the surface roughness of pure Ti, thereby improving its wettability. Nano‐Ag and nano‐Cu particles are deposited via magnetron sputtering technology, resulting in excellent antibacterial properties. Compared to the single‐layer coating, the nano‐composite coating exhibited superior antibacterial activity despite releasing lower concentrations of Ag + and Cu 2+ . Therefore, nanocomposite Ag‐ and Cu‐based coatings fabricated by sandblasting, acid etching, hydrothermal treatment, and magnetron sputtering, effectively enhance the antibacterial properties of Ti implants for dental applications.

Advanced Engineering MaterialsVol. 27(9)
University of Shanghai for Science and Technology (CN), Shanghai Jiao Tong University (CN), Shanghai Ninth People's Hospital (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 21%
Bone Tissue Engineering Materials
1.35
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