What Is the Magical Cavitation Bubble: A Holistic Perspective to Trigger Advanced Bubbles, Nano-Sonocatalysts, and Cellular Sonosensitizers.

IF 5 Q1 ENGINEERING, BIOMEDICAL BME frontiers Pub Date : 2024-09-19 eCollection Date: 2024-01-01 DOI:10.34133/bmef.0067
Xiaoge Wu, Fulong Chen, Qi Zhang, Juan Tu
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Abstract

Sonodynamic therapy (SDT) has emerged as a novel and highly researched advancement in the medical field. Traditional ultrasound contrast agents and novel bubble-shaped agents are used to stimulate cavitation and enhance SDT efficiency. However, the impact of artificially modified shell structures on the acoustic properties of microbubbles remains to be explored. Alternatively, in the absence of bubble-shaped agents, some clinically available organic sonosensitizers and advanced inorganic materials are also used to enhance the efficacy of SDT. Diagnostic and therapeutic ultrasound can also activate cavitation bubbles, which supply energy to sonosensitive agents, leading to the production of cytotoxic free radicals to achieve therapeutic effects. While inorganic materials often spark controversy in clinical applications, their relatively simple structure enables researchers to gain insight into the mechanism by which SDT produces various free radicals. Some organic-inorganic hybrid sonosensitive systems have also been reported, combining the benefits of inorganic and organic sonosensitive agents. Alternatively, by employing cell surface modification engineering to enable cells to perform functions such as immune escape, drug loading, gas loading, and sonosensitivity, cellular sonosensitizers have also been developed. However, further exploration is needed on the acoustic properties, ability to generate reactive oxygen species (ROS), and potential clinical application of this cellular sonosensitizer. This review offers a comprehensive analysis of vesical microbubbles and nanoscale sonocatalysts, including organic, inorganic, combined organic-inorganic sonosensitizers, and cellular sonosensitizers. This analysis will enhance our understanding of SDT and demonstrate its important potential in transforming medical applications.

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什么是神奇的空化气泡?触发先进气泡、纳米声催化剂和细胞声敏化剂的整体视角。
声动力疗法(SDT)已成为医学领域的一项新进展,并得到了高度研究。传统的超声造影剂和新型气泡剂被用来刺激空化和提高 SDT 的效率。然而,人工修饰的外壳结构对微泡声学特性的影响仍有待探索。另外,在没有气泡剂的情况下,一些临床可用的有机声敏化剂和先进的无机材料也可用于提高 SDT 的功效。诊断性和治疗性超声波还能激活空化气泡,为声敏剂提供能量,从而产生细胞毒性自由基,达到治疗效果。虽然无机材料在临床应用中经常引发争议,但其相对简单的结构使研究人员能够深入了解 SDT 产生各种自由基的机制。一些有机-无机混合声敏系统也有报道,它们结合了无机和有机声敏剂的优点。另外,通过采用细胞表面修饰工程,使细胞具有免疫逃逸、药物负载、气体负载和声敏等功能,细胞声敏剂也被开发出来。然而,这种细胞声敏剂的声学特性、产生活性氧(ROS)的能力以及潜在的临床应用还需要进一步探索。本综述全面分析了膀胱微气泡和纳米级声催化剂,包括有机、无机、有机-无机组合声敏化剂和细胞声敏化剂。这些分析将加深我们对 SDT 的理解,并展示其在改变医疗应用方面的重要潜力。
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来源期刊
CiteScore
7.10
自引率
0.00%
发文量
0
审稿时长
16 weeks
期刊最新文献
A Novel System for Fabricating Microspheres with Microelectromechanical System-Based Bioprinting Technology. A Janus Adhesive Hydrogel with Integrated Attack and Defense for Bacteria Killing and Antifouling. Cationized Decalcified Bone Matrix for Infected Bone Defect Treatment. Functional Neural Networks in Human Brain Organoids. What Is the Magical Cavitation Bubble: A Holistic Perspective to Trigger Advanced Bubbles, Nano-Sonocatalysts, and Cellular Sonosensitizers.
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