Yue Wei, Guo Yunjian, Lee Jong-Chul, Ganbold Enkhzaya, Wu Jia-Kang, Li Yang, Wang Cong, Kim Hyun Soo, Shin Young-Kee, Liang Jun-Ge, Kim Eun-Seong, Kim Nam-Young
RFIC Bio Centre, Kwangwoon University, Seoul, 01897, South Korea.
Department of Electronics Engineering, Kwangwoon University, Seoul, 01897, South Korea.
Nanomicro Lett. 2025 Jan 9;17(1):106. doi: 10.1007/s40820-024-01599-8.
Recent advancements in passive wireless sensor technology have significantly extended the application scope of sensing, particularly in challenging environments for monitoring industry and healthcare applications. These systems are equipped with battery-free operation, wireless connectivity, and are designed to be both miniaturized and lightweight. Such features enable the safe, real-time monitoring of industrial environments and support high-precision physiological measurements in confined internal body spaces and on wearable epidermal devices. Despite the exploration into diverse application environments, the development of a systematic and comprehensive research framework for system architecture remains elusive, which hampers further optimization of these systems. This review, therefore, begins with an examination of application scenarios, progresses to evaluate current system architectures, and discusses the function of each component-specifically, the passive sensor module, the wireless communication model, and the readout module-within the context of key implementations in target sensing systems. Furthermore, we present case studies that demonstrate the feasibility of proposed classified components for sensing scenarios, derived from this systematic approach. By outlining a research trajectory for the application of passive wireless systems in sensing technologies, this paper aims to establish a foundation for more advanced, user-friendly applications.
无源无线传感器技术的最新进展显著扩展了传感的应用范围,尤其是在监测工业和医疗应用的具有挑战性的环境中。这些系统具备无电池运行、无线连接功能,并且设计得既小型化又轻量化。这些特性能够对工业环境进行安全、实时的监测,并支持在有限的体内空间和可穿戴表皮设备上进行高精度的生理测量。尽管已探索了多种应用环境,但针对系统架构的系统且全面的研究框架仍难以捉摸,这阻碍了这些系统的进一步优化。因此,本综述首先考察应用场景,接着评估当前的系统架构,并在目标传感系统的关键实现背景下讨论每个组件的功能——具体而言,即无源传感器模块、无线通信模型和读出模块。此外,我们还展示了案例研究,这些案例证明了源自这种系统方法的针对传感场景的分类组件的可行性。通过勾勒无源无线系统在传感技术中的应用研究轨迹,本文旨在为更先进、用户友好的应用奠定基础。