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Novel surface engineering design enabled surface multifunctionalisation of metastable Ti–15–3 β-titanium alloy

Authors: Tong Pan; Xuan Huang; Behnam Dashtbozorg; Siyu Sun; Yepeng Yang; Ke Ren; Artemis Stamboulis; Xiaoying Li; Kan Ma; Hanshan Dong

DOI: 10.26599/FRICT.2026.9441262Status: Verified Academic AccessLicense: CC-BY 4.0 Academic Open Access

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Key Findings in This Report

• • Au-catalysed C3T achieved near-zero wear and a stable COF of ~0.3 under a 20 N load, demonstrating superior tribological performance for high-load sliding contacts. • • Ag-catalysed C3T delivered antibacterial efficacies of 99.878% against E. coli and 99.999% against S. aureus within 3–6 h of contact, via passive Ag-ion release, addressing infection risks in biomedical and marine applications. • • Both treatments increased bulk tensile strength by ~50%, from 872±39 to 1,280±40 MPa, enhancing structural integrity without compromising surface functionality. • • The IBTSF strategy integrates bulk heat treatment with surface functionalisation in a single step, offering a scalable and efficient route for multifunctionalising metastable β-titanium alloys.