Mona El Abbasi, M. Madi, Herbert F. Jelinek, K. Kabalan
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引用次数: 0
摘要
无创血压监测对高血压的诊断和治疗至关重要。目前基于袖带的连续血压测量方法需要在每次间歇测量时进行不舒服的动脉压迫。因此,我们建议开发一种新颖的柔性,可穿戴和小型化的微带天线,可以提供连续且易于使用的血压估计。这种可穿戴天线是在高频仿真软件(HFSS)中设计的,专门用于发送和接收2.4 GHz的信号。它也是紧凑的35 x 35 mm2与介电常数4.3的环氧基板。该贴片增益为6db,在2.3-2.6 GHz频段内谐振,该频段位于ISM(工业、科学和医疗)目标频段。为了检验天线在人体上使用的安全性,本文提出了一种基于计算机的人体手臂设计,并将天线应用于人体上。比吸收率为1.74 W/Kg,低于IEEE安全标准截止值。本文还讨论了一种新提出的算法,该算法将电磁波的变化与肱动脉规格的变化联系起来,以估计血压参数。
New Insight on BP Estimation Utilizing a Miniaturized Microstrip Patch Antenna
Noninvasive monitoring of blood pressure (BP) is crucial for diagnosis and management of hypertension. The current cuff-based, continuous BP measurement methods require uncomfortable arterial compression for every intermittent measurement. Thus, we suggest the development of a novel flexible, wearable and miniaturized microstrip antenna that can provide continuous and easy to use estimates of blood pressure. This wearable antenna is designed in High Frequency Simulation Software (HFSS) and dedicated for transmitting and receiving signals at 2.4 GHz. It is also compact of 35 x 35 mm2 with a epoxy substrate of dielectric constant 4.3. The patch presents a gain of 6 dB and resonance over the frequency band 2.3-2.6 GHz, which falls in the targeted industrial, scientific, and medical (ISM) band. In order to check the safety of using the antenna on human body, this paper presents a computer-based design of a human arm and applies the antenna on it. The specific absorption rate is 1.74 W/Kg, which is below the IEEE safety standard cut-off. The paper also presents a discussion on a newly proposed algorithm that relates the variation in electromagnetic waves along with variation in brachial artery specifications to estimate blood pressure parameters.