From the Division of Vascular and Interventional Radiology, Department of Radiology, Duke University Medical Center, 2301 Erwin Road, DUMC Box 3808, Durham, NC 27710 (A.A.S.); Department of Radiology and Imaging Sciences, Division of Interventional Radiology and Image Guided Medicine (R.B., E.B.F., J.D.P.), Division of Female Pelvic Medicine and Reconstructive Surgery, Department of Gynecology and Obstetrics (S.A.), Emory University School of Medicine, Atlanta, Ga; Department of Biological Sciences. Clemson University, Clemson, SC (F.P.); Division of Vascular and Interventional Radiology, Department of Diagnostic Radiology and Nuclear Medicine, University of Maryland School of Medicine, Baltimore, Md (N.N.); and Experimental Therapeutics Program, University of Maryland Marlene and Stewart Greenebaum Comprehensive Cancer Center, Baltimore, Md (N.N.).
Radiographics. 2022 Oct;42(6):1776-1794. doi: 10.1148/rg.220082.
The expansion and dissemination of interventional cryoneurolysis in recent years has been fueled by the integration of advanced imaging guidance, the evolution of our understanding of neuropathologic processes after exposure of nerves to cold, and opportunities for its use beyond pain management. The clinical translation of cryoneurolysis through interventional radiology requires consideration of many factors, including the supply and composition of target nerves, the value of diagnostic injection with imaging guidance for confirmation, (c) the integration of advanced imaging guidance that allows safe ablation, the difference between neoplastic and nonneoplastic causes of pain, the phenomenon of percutaneously induced neuroregeneration, the potential to manage conditions other than pain, the consideration of protocols, the limitations of current technology, and the potential complications and adverse effects. Cryoneurolysis has societal and legislative endorsement as an effective nonopioid option for pain palliation. The Centers for Medicare and Medicaid Services (CMS) approved three new category III (CPT) codes specifically for the cryoablation of nerves with advanced imaging guidance. Interventional radiologists who are aware of nerve-directed strategies see eligible patients in their daily practice and have opportunities to bundle procedures (eg, celiac plexus block at the time of a biliary drain for pancreatic cancer with low bile duct obstruction), offering an avenue to serve the patient, reduce opioid dependence, allow faster discharge, and establish name recognition of interventional radiologists. Also, the ability to use CT to target deep structures accurately and swiftly, often with only local anesthesia, compared with the usual monitored anesthesia care in a surgical setting, may provide another avenue to build a cryoneurolysis practice. RSNA, 2022.
近年来,介入冷冻神经松解术的扩展和传播得益于先进影像引导技术的融合、神经暴露于冷后神经病理过程认识的发展,以及超越疼痛管理的应用机会。通过介入放射学实现冷冻神经松解的临床转化需要考虑许多因素,包括目标神经的供应和组成、影像引导诊断性注射以确认的价值、(c)允许安全消融的先进影像引导的整合、肿瘤性和非肿瘤性疼痛原因的差异、经皮诱导神经再生现象、管理除疼痛以外疾病的潜力、方案的考虑、当前技术的局限性以及潜在的并发症和不良反应。冷冻神经松解术作为一种有效的非阿片类药物选择,用于缓解疼痛,得到了社会和立法的认可。医疗保险和医疗补助服务中心(CMS)批准了三个新的 III 类(CPT)代码,专门用于在先进影像引导下对神经进行冷冻消融。了解神经导向策略的介入放射科医生在日常实践中会遇到符合条件的患者,并有机会将程序捆绑在一起(例如,在患有低位胆管梗阻的胰腺癌时,在胆道引流时进行腹腔神经丛阻滞),为患者提供服务、减少阿片类药物依赖、允许更快出院,并建立介入放射科医生的知名度。此外,与通常在手术环境中进行的监测麻醉护理相比,使用 CT 准确、快速地靶向深部结构的能力,通常只需局部麻醉,可能为建立冷冻神经松解术实践提供另一种途径。RSNA,2022 年。