Enhancement of Multifocal Breast Cancer Treatment using Multibeam Metasurface Antenna-based Hyperthermia

Kyrillos Youssef, M. Abo-Zahhad, A. El-Malek
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Abstract

Recent advances in cancer treatment using hyperthermia techniques have piqued researchers’ interest in examining and correcting treatment shortcomings. Focused microwave hyperthermia is a technique for treating breast tumors that has the advantages of great precision and few side effects. Breast hyperthermia is a noninvasive cancer treatment in which the temperature of the breast is slightly raised to 39- 45° C by localized electromagnetic irradiation. Traditional hyperthermia techniques envisioned treating single or at most two spherical breast malignant foci with large-scale antenna arrays that required intricate feeding and phase management. This paper proposes a hyperthermia noninvasive multifocal breast cancer treatment using a single multi-beam meta-surface antenna. The proposed method raises the temperature of multifocal irregularly shaped breast cancers while keeping the surrounding healthy tissues at body temperature. Besides, the proposed meta-surface antenna is more efficient where its gain is three times the conventional ones at 2.3 GHz. Instead of employing an antenna array with a complex control unit for each antenna, the proposed antenna will have a single feed and workable control. Although the proposed single antenna element is miniaturized in its size to 65% at 2.4 GHz, the proposal keeps the same number of beams and radiation output. As a result, it will be easy to modify the radiated beams by the sites of the multifocal malignancy. To maintain the temperature of healthy tissues, a new reconfiguration technique for a 3D distribution of antenna beams is developed.
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多波束超表面天线热疗增强多灶性乳腺癌治疗
使用热疗技术治疗癌症的最新进展激起了研究人员对检查和纠正治疗缺陷的兴趣。聚焦微波热疗是一种治疗乳腺肿瘤的技术,具有精度高、副作用小等优点。乳房热疗是一种非侵入性癌症治疗方法,通过局部电磁照射将乳房温度略微提高到39- 45°C。传统的热疗技术设想用大规模天线阵列治疗单个或最多两个球形乳房恶性病灶,这需要复杂的喂养和相位管理。本文提出了一种采用单波束元表面天线的热疗无创多灶性乳腺癌治疗方法。提出的方法提高多灶不规则形状乳腺癌的温度,同时保持周围健康组织的体温。此外,所提出的超表面天线在2.3 GHz时的增益是传统天线的3倍,效率更高。而不是采用天线阵列与一个复杂的控制单元为每个天线,建议的天线将有一个单一的馈电和可行的控制。虽然提议的单天线元件的尺寸缩小到2.4 GHz的65%,但提议保持相同数量的波束和辐射输出。因此,通过多灶性恶性肿瘤的位置可以很容易地改变辐射光束。为了保持健康组织的温度,提出了一种新的天线波束三维分布重构技术。
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