Exploring the geometry of miniaturized Archimedean SPIRAL Antennas for small and portable multitask devices

R. Adenodi
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Abstract

The focus of miniaturization is the production of small and portable devices that can be carried in the pocket anywhere and anytime.  Small and portable devices that perform multitask such the smartphone requires a portable and efficient antenna that operates in many  frequency bands. A single planar miniaturized Archimedean spiral antenna, which operates in a frequency range that is determined by its  inner and outer radii of its arc, has been adjourned to be a better candidate for these multiple tasks. This study examined the  geometry of a miniaturized Archimedean spiral antenna of varying turns. An inner radius of 4.90 mm and a thickness of 0.0356 mm  suitable for the printed antenna were previously chosen for the study. The length of the arc and the outer radius were determined for  spiral turns ranging from 0.5 to 100 with an incremental step of 0.5. Results revealed the radial distance generating the spiral, the length  of its arc, the outer radius, and the surface area were 4.97 mm, 2 15.51 mm, 4.97 mm and 77.16 mm for 0.5 spiral turns, and 19.12 mm,  7,546.80 mm, 2,849.33 mm and 1,148.64 2 mm for 100 spiral turns. Based on the outer radii, the frequency range of operation will be  between 16.76 MHz and 9.60 GHz. The mathematical functions formulated through curve fitting described the relationship between the  outer radius and arc length with a power function and the number of turns and frequency with an exponential function, while arc length  and radial distance, area and number of turns, and area and pitch angle are described by polynomial functions. It is recommended that  further analysis on the geometry of the minimized Archimedean spiral antenna be conducted.
探索用于小型和便携式多任务设备的小型化阿基米德螺旋天线的几何形状
小型化的重点是生产可以随时随地放在口袋里的小型便携式设备。像智能手机这样的小型便携式多任务设备需要一个可在多个频段工作的便携式高效天线。一种单平面小型化阿基米德螺旋天线,其工作频率范围由其弧线的内外半径决定,已经被推迟作为这些多重任务的更好候选。本研究检验了一个小型化阿基米德螺旋天线的几何形状。之前选择了适合打印天线的内半径为4.90 mm,厚度为0.0356 mm进行研究。弧的长度和外半径被确定为螺旋匝从0.5到100,增量步长为0.5。结果表明,0.5转时产生螺旋的径向距离、弧长、外半径和表面积分别为4.97 mm、2 15.51 mm、4.97 mm和77.16 mm; 100转时产生螺旋的半径分别为19.12 mm、7546.80 mm、2849.33 mm和1148.64 2 mm。根据外半径,工作频率范围将在16.76 MHz到9.60 GHz之间。曲线拟合的数学函数用幂函数描述了外半径与弧长之间的关系,用指数函数描述了匝数与频率之间的关系,用多项式函数描述了弧长与径向距离、面积与匝数、面积与俯仰角之间的关系。建议对最小化阿基米德螺旋天线的几何结构进行进一步的分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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