In-body Bionanosensor Communication and Localization for Anomaly Detection

Jennifer Simonjan, B. Unluturk, I. Akyildiz
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Abstract

Nanotechnology enables the development of a new generation of devices which are able to sense, process and communicate while being in the scale of tens to hundreds of cubic nanometers. Such small, imperceptible devices enhance not only current applications but enable entirely new paradigms especially for in-body environments. This paper introduces a localization concept for bionanosensors floating in the human bloodstream to detect anomalies in the body. To realize autonomous localization and resource-efficient communication, we propose to exploit inertial positioning and sub-terahertz backscattering. Our concept is a first step towards early disease detection as it aims at localizing body regions which show anomalies. Simulations are conducted to enable a systematical evaluation on the feasibility of the approach.
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用于异常检测的体内生物传感器通信与定位
纳米技术使新一代设备的发展成为可能,这些设备能够在几十到几百立方纳米的尺度上进行感知、处理和通信。这种小而不易察觉的设备不仅增强了当前的应用,而且为体内环境提供了全新的范例。本文介绍了漂浮在人体血液中的生物传感器的定位概念,以检测身体的异常。为了实现自主定位和资源高效通信,我们提出利用惯性定位和亚太赫兹后向散射。我们的概念是早期疾病检测的第一步,因为它旨在定位显示异常的身体区域。通过仿真对该方法的可行性进行了系统的评价。
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