Advancements in BaTiO3-Based Ultrasound‐Triggered Piezoelectric Catalysis for Tumor Therapy

doi:10.37015/AUDT.2024.240053

Abstract

Abstract:

Barium titanate (BaTiO₃), as an emerging inorganic piezoelectric material with excellent piezoelectric catalytic effects, has showing advantages in tumor therapy. To achieve ultrasound-regulated tumor treatment using BaTiO₃, researchers have developed strategies including utilizing BaTiO₃ combined with ultrasound for tumor therapy, enhancing reactive oxygen species (ROS) generation through chemical modification of BaTiO₃, and employing combined therapy with other treatment methods. These strategies provide new insights and approaches for non-invasive and precision treatment of tumors. In this review, we first explain the principle of piezoelectric effect based on BaTiO₃. Subsequently, we introduce the application of BaTiO₃ as a piezoelectric material in tumor therapy and its combined therapy with other treatment modalities in tumor treatment. Finally, we summarize the current status and limitations of BaTiO₃ in ultrasound‐triggered piezoelectric therapy for tumors and propose future prospects.

Key words: Barium titanate; Ultrasound; Piezoelectric catalysis; Tumor therapy

Shama Shiti, Xie Xinxin, Wu Ruiqi, He Ping, Li Xiaoda, Chen Qingfeng, Liang Xiaolong. Advancements in BaTiO₃-Based Ultrasound‐Triggered Piezoelectric Catalysis for Tumor Therapy. Advanced Ultrasound in Diagnosis and Therapy, 2024, 8(4): 231-241.

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References 31

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Advancements in BaTiO₃-Based Ultrasound‐Triggered Piezoelectric Catalysis for Tumor Therapy

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