一个60nW电压基准电路,使用BJTs和亚阈值MOSFET产生1.0V

A. Bansal, M. Raja, J. Minkyu
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引用次数: 1

摘要

采用0.13um CMOS 1P6M工艺,制作了产生1.0V、功耗为60nW的超低功耗电压基准电路。它可以在1.3V到3.6V的电池电压下工作。该参考电路使用BJTs和工作在亚阈值区域的MOSFET来产生温度稳定的参考电压。本文提出的参考电路产生的电压为1.0V,而传统带隙电路产生的电压为1.2V。传统带隙电路使用BJT的基极发射极电压(VBE)作为CTAT信号,而参考电路使用亚阈值区域偏置MOSFET的栅极源电压(VGS)作为CTAT信号。参考电压是阈值电压的估计外推到0°K。本电路中使用的亚阈值MOSFET是一种高压晶体管,在室温下阈值电压为0.65V,因此产生1.0V。使用阈值电压为0.35V的低压MOSFET,该电路产生0.5V的参考电压。
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A 60nW voltage reference circuit generating 1.0V using BJTs and subthreshold MOSFET
An ultra low power voltage reference circuit generating 1.0V and consuming 60nW from power supply of 1.3V is fabricated in 0.13um CMOS 1P6M process. It can work from battery voltage of 1.3V to 3.6V. The proposed reference circuit uses BJTs and a MOSFET operating in subthreshold region to generate temperature stable reference voltage. The reference circuit proposed in this work generates 1.0V unlike the conventional bandgap circuit where it is 1.2V. Conventional bandgap circuits use baseemitter voltage (VBE) of BJT as CTAT signal while proposed reference circuit uses gate-source voltage (VGS) of a sub-threshold region biased MOSFET. The reference voltage is an estimate of threshold voltage extrapolated up to 0°K. Subthreshold MOSFET used in this circuit is a high voltage transistor having threshold voltage of 0.65V at room temperature, hence it generates 1.0V. Using a low voltage MOSFET having threshold voltage 0.35V, this circuit generates reference voltage of 0.5V.
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