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Fundamental Research on Polarimetrically Coded Radar Barcodes

偏振编码雷达条码的基础研究

基本信息

批准号：
398549671
负责人：
Professor Dr.-Ing. Martin Vossiek
金额：
--
依托单位：
Lehrstuhl für Hochfrequenztechnik
依托单位国家：
德国
项目类别：
Research Grants
财政年份：
2017
资助国家：
德国
起止时间：
2016-12-31 至 2021-12-31
项目状态：
已结题

来源：
https://gepris.dfg.de/gepris/projekt/398549671?language=en
关键词：
Fundamental Research Polarimetrically Coded Radar

项目摘要

Despite intensive research worldwide into chipless RFID in recent years and despite the many potential benefits of the technology, such as zero maintenance requirements and high level of robustness, no sustainable chipless RFID concepts have as yet emerged. The only applications of any significance have been surface acoustic wave RFID tags and basic 1-bit tags for electronic article surveillance. To overcome these limitations, the applicant recently proposed polarimetrically coded radar barcodes as a completely new concept for chipless RFID. A polarimetrically coded radar barcode is a two-dimensional array of partial reflectors each with their own characteristic polarimetric response. A polarimetric imaging radar reads the information stored on the tag remotely. In preliminary research it was shown that the novel approach has the potential to achieve chipless RFIDs with a data capacity of more than 1,000 bits and tag operating temperatures well above 1,000°C. Fundamental research on the design and assessment of polarimetrically coded tags is at the heart of this project. Among the main research elements are coding techniques, designing appropriate reflector structures as well as arranging the structures on the tag in an optimal manner. A key objective of all design considerations is to identify and assess the effects of faults and interference issues on data capacity and detection reliability during the reading process. The impact of tag rotation and tilt and the compensation of these effects will be investigated as well. The system variants previously demonstrates in the preliminary research required artificial, well defined tag / reader arrangements that are impractical for realistic application scenarios. Thus, the overall design goals are: firstly to maximize the data capacity on as small a surface area as possible with efficient design and manufacturing processes and secondly to overcome the above mentioned restrictions in respect to the reading conditions. All these studies relating to the tag and the system concept will provide a comprehensive insight into this novel chipless RFID technology and its potential and limitations. As leading-edge applications and as proof of performance of this innovative technology we will design and experimentally demonstrate chipless RFID tags with a data capacity of more than 1,000 bits as well as tags reaching operating temperatures above 1,000°C under varying reading conditions that are representative for potential practical application scenarios. This project is a major step forward for chipless tag technology in relation to data capacity and to robustness against extreme temperatures. We anticipate that this disruptive technology will break new ground in a range of applications, applications that heretofore could not be pursued with current RFID technologies.

尽管近年来在全球范围内对无芯片RFID进行了深入的研究，尽管该技术具有许多潜在的好处，例如零维护要求和高水平的稳健性，但尚未出现可持续的无芯片RFID概念。唯一有意义的应用是表面声波RFID标签和用于电子物品监控的基本1位标签。为了克服这些限制，申请人最近提出极化编码雷达条形码作为无芯片RFID的全新概念。偏振编码雷达条形码是由部分反射器组成的二维阵列，每个部分反射器都有自己的偏振响应特征。偏振成像雷达远程读取存储在标签上的信息。在初步研究中表明，这种新方法有可能实现无芯片rfid，数据容量超过1000位，标签工作温度远高于1000°C。对极化编码标签的设计和评估的基础研究是这个项目的核心。其中主要的研究内容是编码技术、设计合适的反射体结构以及以最优的方式排列在标签上的结构。所有设计考虑的一个关键目标是在读取过程中识别和评估故障和干扰问题对数据容量和检测可靠性的影响。标签旋转和倾斜的影响以及这些影响的补偿也将被研究。先前在初步研究中演示的系统变体需要人工的、定义良好的标签/读取器安排，这对于实际应用场景是不切实际的。因此，总体设计目标是：首先，以高效的设计和制造工艺，在尽可能小的表面积上最大化数据容量；其次，克服上述关于读取条件的限制。所有这些与标签和系统概念相关的研究将提供对这种新型无芯片RFID技术及其潜力和局限性的全面洞察。作为前沿应用和这种创新技术的性能证明，我们将设计和实验展示无芯片RFID标签，数据容量超过1000位，以及标签在不同的读取条件下达到1000°C以上的工作温度，代表潜在的实际应用场景。该项目是无芯片标签技术在数据容量和抗极端温度稳健性方面向前迈出的重要一步。我们预计这种颠覆性技术将在一系列应用中开辟新天地，这些应用目前的RFID技术无法实现。