Microwave tissue ablation: Biophysics, technology, and applications

被引：244

作者：

Brace C.L. ^{[1
]}

机构：

[1] Departments of Radiology and Biomedical Engineering, University of Wisconsin, Madison, WI 53705

来源：

Critical Reviews in Biomedical Engineering | 2010年 / 38卷 / 01期

关键词：

Hyperthermia; Microwave ablation; Thermal therapies;

D O I：

10.1615/CritRevBiomedEng.v38.i1.60

中图分类号：

学科分类号：

摘要：

Microwave ablation is an emerging treatment option for many cancers, cardiac arrhythmias, and other medical conditions. During treatment, microwaves are applied directly to tissues to produce rapid temperature elevations sufficient to produce immediate coagulative necrosis. The engineering design criteria for each application differ, with individual consideration for factors such as desired ablation zone size, treatment duration, and procedural invasiveness. Recent technological developments in applicator cooling, power control, and system optimization for specific applications promise to increase the utilization of microwave ablation in the future. This article reviews the basic biophysics of microwave tissue heating, provides an overview of the design and operation of current equipment, and outlines areas for future research. © 2010 by Begell House, Inc.

引用

页码：65 / 78

页数：13

共 122 条

[81]

Trembly B.S., Wilson A.H., Sullivan M.J., Stein A.D., Wong T.Z., Strohbehn J.W., Control of the SAR pattern within an interstitial microwave array through variation of antenna driving phase, IEEE Trans Microw Theory Tech, 34, pp. 568-571, (1986)

[82]

Brace C., Laeseke P., Sampson L., Van Der Weide D., Lee Jr. F.T., Switched-mode microwave ablation: Less dependence on tissue properties leads to more consistent ablations than phased arrays, Radiological Society of North America Annual Meeting, Chicago, IL

[83]

9-14 Jun 2007

[84]

Oshima F., Yamakado K., Nakatsuka A., Takaki H., Makita M., Takeda K., Simultaneous microwave ablation using multiple antennas in explanted bovine livers: Relationship between ablative zone and antenna, Radiat Med, 26, pp. 408-414, (2008)

[85]

Hope W.W., Schmelzer T.M., Newcomb W.L., Heath J.J., Lincourt A.E., Norton H.J., Heniford B.T., Iannitti D.A., Guidelines for power and time variables for microwave ablation in an in vivo porcine kidney, J Surg Res, 153, 2, pp. 263-267, (2009)

[86]

Simon C.J., Dupuy D.E., Mayo-Smith W.W., Microwave ablation: Principles and applications, Radiographics, 25, SUPPL. 1, (2005)

[87]

Duan Y.Q., Gao Y.Y., Ni X.X., Wang Y., Feng L., Liang P., Changes in peripheral lymphocyte subsets in patients after partial microwave ablation of the spleen for secondary splenomegaly and hypersplenism: A preliminary study, Int J Hyperthermia, 23, pp. 467-472, (2007)

[88]

Lin J., Hirai S., Chiang C., Hsu W., Su J., Wang Y., Computer simulation and experimental studies of sar distributions of interstitial arrays of sleeved-slot microwave antennas for hyperthermia treatment of brain tumors, IEEE Trans Microw Theory Tech, 48, pp. 2191-2198, (2000)

[89]

Tsutsui H., Usuda J., Kubota M., Yamada M., Suzuki A., Shibuya H., Miyajima K., Tanaka K., Sugino K., Ito K., Kato H., Endoscopic tumor ablation for laryngotracheal intraluminal invasion secondary to advanced thyroid cancer, Acta Otolaryngol, 128, pp. 799-807, (2008)

[90]

Singletary S.E., Minimally invasive ablation techniques in breast cancer treatment, Ann Surg Oncol, 9, pp. 319-320, (2002)

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