Biomedical applications and prospects of temperature-orchestrated photothermal therapy

Nuo Xu, Xu Zhang, Tingting Qi, Yongzhi Wu, Xi Xie, Fangman Chen, Dan Shao, Jinfeng Liao
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引用次数: 4

Abstract

Photothermal therapy (PTT) has been regarded as a promising strategy considering its advantages of high inherent specificity and a lower invasive burden. Since the photothermal killing of cells/bacteria showed different patterns of death depending on the varying temperature in PTT, the temperature change of PTT is vital to cell/tissue response in scientific research and clinical application. On one hand, mild PTT has received substantial attention in the treatment of cancer and soft/hard tissue repair. On the other hand, the high temperature induced by PTT is capable of antibacterial capacity, which is better than conventional antibiotic therapy with drug resistance. Herein, we summarize the recent developments in the application of temperature-dependent photothermal biomaterials, mainly covering the temperature ranges of 40–42°C, 43–50°C, and over 50°C. We highlight the biological mechanism of PTT and the latest progress in the treatment of different diseases. Finally, we conclude by discussing the challenges and perspectives of biomaterials in addressing temperature-orchestrated PTT. Given a deep understanding of the interaction between temperature and biology, rationally designed biomaterials with sophisticated photothermal responsiveness will benefit the outcomes of personalized PTT toward various diseases.

Abstract Image

温度调控光热疗法的生物医学应用及前景
光热疗法(PTT)因其固有特异性高、创伤负担小等优点而被认为是一种很有前途的治疗策略。由于PTT中光热对细胞/细菌的杀伤随温度的变化呈现出不同的死亡模式,因此PTT中温度的变化对细胞/组织的反应在科学研究和临床应用中至关重要。一方面,轻度PTT在癌症治疗和软硬组织修复中得到了广泛关注。另一方面,PTT诱导的高温具有抗菌能力,优于传统的耐药抗生素治疗。本文综述了温度依赖性光热生物材料的最新应用进展,主要涵盖40-42℃、43-50℃和50℃以上的温度范围。本文重点介绍了PTT的生物学机制及其治疗不同疾病的最新进展。最后,我们讨论了生物材料在解决温度协调PTT方面的挑战和前景。在深入了解温度与生物学相互作用的基础上,合理设计具有复杂光热响应性的生物材料将有利于各种疾病的个性化PTT治疗结果。
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