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In this paper, we propose a controller capable of reducing the effect of measurement errors under AC and DC noise. Typically, the control system measures data through a sensor. If sensor noise is included in a controller via the feedback channel, the signal is distorted and the entire system cannot work normally. Therefore, some appropriate action to counter the measurement error effect is essential in the controller design. Our controller is equipped with a gain-scaling factor and a compensator to reduce the effect of measurement error in the feedback signal. Also, we use a switching control strategy to enhance the performance of the controller regarding convergence speed. Our proposed controller can therefore effectively reduce the AC and DC noise of the sensor. We analyze the proposed controller by Laplace transform technique and our control method is verified via MATLAB simulation. Keywords: chain of integrators, measurement error, regulation, gain-scaling factor, switching control I.           .         (feedback)           [3,5,8].                   [2,4,9].    AC      [7,11,12].   [7,11,12] AC      .    AC     DC              12  .        x

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Design and Analysis of a Switching State Feedback Controller to Reduce the Measurement Error Effect for a Chain of Integrators System under AC and DC Noise