Multifunctional bioactive glass fiber reinforced composite scaffolds: A “four-in-one” approach for adjuvant therapy in tumor-derived bone defects

• Multifunctional bioactive glass fiber reinforced composite scaffolds were fabricated. • The multifunctional composite scaffolds achieved four functions in one. • Phosphate glass fiber endowed the composite scaffolds with photothermal performance. • Phosphate glass fiber enhanced the mechanical properties of the composite scaffolds. • The composite scaffolds killed tumor cells and promoted bone cell proliferation . After bone tumor resection, preventing recurrence and reconstructing bone defects pose significant challenges. Conventional adjuvant therapies, including chemotherapy and radiotherapy, may prevent tumor recurrence but come with substantial side effects and do not contribute to bone repair. Herein, multifunctional composite scaffolds, modified with phosphate glass fiber (PGF), were prepared using 3D printing for photothermal tumor eradication and bone regeneration. These composite scaffolds exhibited excellent photothermal performance and could effectively kill tumor cells. The photothermal performance was derived from the integration of PGF and could be controlled by PGF content and laser power density. PGF acted as reinforcement and enhanced the mechanical properties of these scaffolds. Furthermore, the scaffolds degraded gradually, accompanied by the release of bioactive ions, promoting the proliferation of bone cells. Overall, these multifunctional composite scaffolds achieved a “four-in-one” function of photothermal anti-tumor, bone repair promotion, spontaneous degradation, and mechanical support, advancing implanted biomaterials for tumor-derived bone defects.

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Publication Details

Journal
Composites Part A Applied Science and Manufacturing
Published
2025-04-25
DOI
https://doi.org/10.1016/j.compositesa.2025.108987
Primary Topic
Bone Tissue Engineering Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Multifunctional bioactive glass fiber reinforced composite scaffolds: A “four-in-one” approach for adjuvant therapy in tumor-derived bone defects

Xiaosu Yi, Yunzhongze Hu, Saihua Li, Jiafei Gu et al.
Composites Part A Applied Science and Manufacturing
Bone Tissue Engineering Materials
article

Multifunctional bioactive glass fiber reinforced composite scaffolds: A “four-in-one” approach for adjuvant therapy in tumor-derived bone defects

Xiaosu Yi, Yunzhongze Hu, Saihua Li, Jiafei Gu, Xiaoye Cong, Xiaoling Liu, Ping Cui
article en

Abstract

• Multifunctional bioactive glass fiber reinforced composite scaffolds were fabricated. • The multifunctional composite scaffolds achieved four functions in one. • Phosphate glass fiber endowed the composite scaffolds with photothermal performance. • Phosphate glass fiber enhanced the mechanical properties of the composite scaffolds. • The composite scaffolds killed tumor cells and promoted bone cell proliferation . After bone tumor resection, preventing recurrence and reconstructing bone defects pose significant challenges. Conventional adjuvant therapies, including chemotherapy and radiotherapy, may prevent tumor recurrence but come with substantial side effects and do not contribute to bone repair. Herein, multifunctional composite scaffolds, modified with phosphate glass fiber (PGF), were prepared using 3D printing for photothermal tumor eradication and bone regeneration. These composite scaffolds exhibited excellent photothermal performance and could effectively kill tumor cells. The photothermal performance was derived from the integration of PGF and could be controlled by PGF content and laser power density. PGF acted as reinforcement and enhanced the mechanical properties of these scaffolds. Furthermore, the scaffolds degraded gradually, accompanied by the release of bioactive ions, promoting the proliferation of bone cells. Overall, these multifunctional composite scaffolds achieved a “four-in-one” function of photothermal anti-tumor, bone repair promotion, spontaneous degradation, and mechanical support, advancing implanted biomaterials for tumor-derived bone defects.

Composites Part A Applied Science and ManufacturingVol. 195
University of Nottingham Ningbo China (CN), Shanghai Zhangjiang Laboratory (CN)
University of Nottingham Ningbo China
Openalex Percentile: Top 92%
Bone Tissue Engineering Materials
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