P. Tombesi, Andrea Cutini, Valentina Grasso, Francesca Di Vece, Ugo Politti, Eleonora Capatti, Florence Labb, Stefano Petaccia, Sergio Sartori
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引用次数: 0
摘要
小肝细胞癌的首批消融术是在超声波(US)引导下进行的经皮乙醇注射。后来,射频消融被证明比经皮乙醇注射能获得更大的凝固区域,并成为全球最常用的消融技术。在过去的十年中,微波消融系统比射频消融获得了更大的消融面积,这表明在治疗肝脏肿瘤时,3厘米的障碍可能会被打破。同样,用于引导经皮消融的 US 技术也取得了重大进展。对比增强 US(CEUS)能比 US 更好地确定和瞄准肿瘤,并能在术后评估消融区域的大小,从而可以立即对残余肿瘤灶进行再治疗。此外,融合成像将实时 US 图像与计算机断层扫描或磁共振成像融合在一起,在检测和定位 CEUS 上不明显的病灶方面有显著改善。最近开发的人工智能软件可以对解剖结构进行三维分割和重建,从而帮助制定手术计划、评估消融的完整性,并比 CEUS 更精确地定位残留病灶。希望这能帮助消融 5-7 厘米大小的肿瘤。
Past, present, and future perspectives of ultrasound-guided ablation of liver tumors: Where could artificial intelligence lead interventional oncology?
The first ablation procedures for small hepatocellular carcinomas were percutaneous ethanol injection under ultrasound (US) guidance. Later, radiofrequency ablation was shown to achieve larger coagulation areas than percutaneous ethanol injection and became the most used ablation technique worldwide. In the past decade, microwave ablation systems have achieved larger ablation areas than radiofrequency ablation, suggesting that the 3-cm barrier could be broken in the treatment of liver tumors. Likewise, US techniques to guide percutaneous ablation have seen important progress. Contrast-enhanced US (CEUS) can define and target the tumor better than US and can assess the size of the ablation area after the procedure, which allows immediate retreatment of the residual tumor foci. Furthermore, fusion imaging fuses real-time US images with computed tomography or magnetic resonance imaging with significant improvements in detecting and targeting lesions with low conspicuity on CEUS. Recently, software powered by artificial intelligence has been developed to allow three-dimensional segmentation and reconstruction of the anatomical structures, aiding in procedure planning, assessing ablation completeness, and targeting the residual viable foci with greater precision than CEUS. Hopefully, this could lead to the ablation of tumors up to 5-7 cm in size.