Near Full Stroke Length Linear Range Enhancement Circuit for Linear Variable Differential Transformer (LVDT)

S. Wisetphanichkij
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Abstract

This paper proposes a linear range enhancement circuit for Linear Variable Differential Transformer (LVDT). The nonlinear is compensated with a signal obtained from an inverse hyperbolic tangent function circuit and with the appropriate gain settings within the circuit. The efficiency of the proposed circuit depends on the accuracy of the signal obtained by the inverse hyperbolic tangent function circuit. The simulation results with Pspice® program demonstrate the efficiency of the proposed circuit for enhancing the linear operating distance of the transducer. Under a relative error a(%) of 2.2%, the linear operating range is improved from ± 9mm to ± 35mm for LVDT Kn=250(kn=0.1) at ± 37mm full stroke length, which is much wider compared to the signal obtained from the transducer before the improvement.
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线性可变差动变压器(LVDT)近全行程线性范围增强电路
提出了一种用于线性可变差动变压器(LVDT)的线性范围增强电路。非线性补偿信号从一个反双曲正切函数电路和适当的增益设置内的电路。该电路的效率取决于由反双曲正切函数电路获得的信号的精度。Pspice®程序的仿真结果表明,所提出的电路可以有效地提高换能器的线性工作距离。在相对误差a(%)为2.2%的情况下,当LVDT Kn=250(Kn= 0.1)时,在±37mm全行程时,线性工作范围从±9mm提高到±35mm,比改进前从换能器获得的信号宽得多。
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