Direct integration of field effect transistors as electro mechanical transducer for stress

S. Haas, D. Reuter, A. Bertz, T. Gessner, M. Schramm, K.-U. Loebel, J. Horstmann
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引用次数: 1

Abstract

The detection of motion with an active electrical device like a transistor allows to shrink the transducer to a few micrometers and to integrate it into a CMOS-process. A promising method for that is using the piezoresistive effect in the channel of a transistor. We have investigated the fundamental behavior of strain sensitive transistors with respect to different transistor parameters. Therefore the transistors have been simulated by using a modified BSIM3.3 model. The simulations showed an increase of the drain current between 3.5 % and 5.8 % for a 60 MPa stress and an acceptable shift of threshold voltage and almost no increase of leakage current. For metrological characterization pressure sensitive silicon membranes have been fabricated as strain inducing elements. First measurements with elongated membranes confirmed the simulation results.
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直接集成场效应晶体管作为应力的机电传感器
用像晶体管这样的有源电子设备检测运动,可以将换能器缩小到几微米,并将其集成到cmos工艺中。一种很有前途的方法是利用晶体管通道中的压阻效应。我们研究了应变敏感晶体管在不同晶体管参数下的基本特性。因此,采用改进的BSIM3.3模型对晶体管进行了仿真。模拟结果表明,在60 MPa的应力下,漏极电流增加了3.5% ~ 5.8%,阈值电压的位移是可以接受的,漏电流几乎没有增加。为了测量特性,我们制作了压敏硅膜作为应变诱导元件。第一次对拉长膜的测量证实了模拟结果。
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