Orthogonal frequency coded SAW sensors and RFID design principles

D. Malocha, J. Pavlina, D. Gallagher, N. Kozlovski, B. Fisher, N. Saldanha, D. Puccio
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引用次数: 27

Abstract

Orthogonal frequency coded (OFC) SAW reflectors and transducers have been recently introduced for use in communication, sensor and RFID tag applications.[1,2] The OFC SAW technology approach has been funded by NASA for possible inclusion in ground, space flight and space exploration sensor applications. In general, SAW technology has advantages over possible competing technologies: passive, wireless, radiation hard, operation from cryogenic to furnace temperature ranges, small, rugged, variable frequency and bandwidth operation, encoding and commercially available. SAW sensor embodiments can provide onboard device sensor integration, or can provide integration with an external sensor that uses the SAW device for encoding the sensor information and transmission to the receiver. SAW OFC device technology can provide RFID tags and sensors with low loss, large operating temperatures and a multi-use sensor platform. This paper will discuss the key parameters for OFC device design, which include reflector and transducer design, coding diversity approaches, and insertion loss considerations. Examples of several OFC device sensors and RFID tags will be presented to show the current state-of-the-art performance for several NASA applications, as well as projections for future sensor and RFID tag platform performance.
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正交频率编码SAW传感器和RFID的设计原理
正交频率编码(OFC) SAW反射器和换能器最近被引入到通信、传感器和RFID标签应用中。[1,2] OFC SAW技术方法已得到NASA的资助,用于地面、空间飞行和空间探索传感器的应用。总的来说,声SAW技术比其他可能的竞争技术更有优势:无源、无线、抗辐射、从低温到熔炉温度范围的操作、体积小、坚固耐用、变频和带宽操作、编码和商业化。SAW传感器实施例可以提供机载设备传感器集成,也可以提供与外部传感器集成,该外部传感器使用SAW设备对传感器信息进行编码并传输到接收器。SAW OFC器件技术可以提供低损耗、大工作温度和多用途传感器平台的RFID标签和传感器。本文将讨论OFC器件设计的关键参数,包括反射器和换能器设计、编码分集方法和插入损耗考虑。将展示几种OFC设备传感器和RFID标签的示例,以展示几种NASA应用程序当前最先进的性能,以及对未来传感器和RFID标签平台性能的预测。
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