定位:亚uw超宽带反向散射定位

P. Pannuto, B. Kempke, P. Dutta
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引用次数: 26

摘要

即使在复杂的室内多径环境中,超宽带技术也有望提供高质量的位置估计,但现有的超宽带系统在运行期间需要数十到数百毫瓦的功率。反向散射通信已经证明了惊人的低功耗标签的可行性,但迄今为止仅限于低定位分辨率的窄带系统。将这些互补技术结合起来的挑战在于它们都有一个复合限制,即传输功率受限。规定将超宽带传输限制在-41.3 dBm/MHz,而反向散射设备只能反射它接收到的功率。解决方案是长期集成这种有限的功率,将最初难以察觉的信号从噪声中提升出来。这种整合只在目标静止时有效。然而,静止描述了绝大多数物体,尤其是丢失的物体。有了这个见解,我们设计了Slocalization,一个亚微瓦,分米精度的定位系统,在定位系统中开辟了一个新的权衡空间,实现了能量,尺寸和成本点,可以实现所有东西的本地化。为了评估这一概念,我们实现了一个能量收集Slocalization标签,并发现Slocalization可以在30米的空间内在15分钟内恢复超宽带后向散射,并且定位标签的平均3D欧几里得误差仅为30厘米。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Slocalization: Sub-uW Ultra Wideband Backscatter Localization
Ultra wideband technology has shown great promise for providing high-quality location estimation, even in complex indoor multipath environments, but existing ultra wideband systems require tens to hundreds of milliwatts during operation. Backscatter communication has demonstrated the viability of astonishingly low-power tags, but has thus far been restricted to narrowband systems with low localization resolution. The challenge to combining these complimentary technologies is that they share a compounding limitation, constrained transmit power. Regulations limit ultra wideband transmissions to just -41.3 dBm/MHz, and a backscatter device can only reflect the power it receives. The solution is long-term integration of this limited power, lifting the initially imperceptible signal out of the noise. This integration only works while the target is stationary. However, stationary describes the vast majority of objects, especially lost ones. With this insight, we design Slocalization, a sub-microwatt, decimeter-accurate localization system that opens a new tradeoff space in localization systems and realizes an energy, size, and cost point that invites the localization of every thing. To evaluate this concept, we implement an energy-harvesting Slocalization tag and find that Slocalization can recover ultra wideband backscatter in under fifteen minutes across thirty meters of space and localize tags with a mean 3D Euclidean error of only 30 cm.
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