为生物医学应用而设计的射频供电温度传感器

G. Martins, F. Sousa
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引用次数: 12

摘要

报道了一种采用标准130纳米CMOS技术设计的具有电源管理和通信电路的射频供电温度传感器。该系统被设计为具有类似rfid的功能,即该设备与外部读取器通信,接收功率和反向散射信息。最初,系统在低功率充电模式下收集能量,整流器经过优化设计,可以在低至-10 dBm的信号电平下工作,中心约为900 MHz。在最小输入功率条件下,系统上电时间约为70 μs。设计了一种校准方法,使传感器在人体温度范围(35至42°C)内工作时,测量误差小于0.1°C。在Cadence Spectre环境下对电路进行了仿真,观察到在活动模式下的总功耗约为8.5μW,待机模式下的总功耗约为4.9μW。对部分电路进行了测试,并给出了初步结果。
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An RF-powered temperature sensor designed for biomedical applications
An RF-powered temperature sensor with power management and communication circuits designed with a standard 130 nm CMOS technology is reported. The system was designed to have an RFID-like functionality, i.e., the device communicates with an external reader, receiving power and backscattering information. Initially, the system collects energy in a low-power charging mode, with a rectifier optimally designed to operate with signal levels as low as -10 dBm centered approximately 900 MHz. Operating at condition of minimum input power, the system takes around 70 μs to power up. A calibration method was designed to enable a measurement error of less than 0.1°C while the sensor operates in the human body temperature range (35 to 42 °C). The circuits were simulated in the Cadence Spectre environment and the total power consumption observed was approximately 8.5μW when in active mode and 4.9μW when in standby mode. Some parts of the circuit were measured and preliminary results are reported.
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