Concept and implementation of the laboratory test bench for simulating the case of leak detection with the use of leak-noise correlator

V. Faerman, A. Tsavnin
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引用次数: 4

Abstract

Concept of laboratory rig for pipe leaks detections task solution via acoustic control is proposed. Hardware and software implementation stages are described. The laboratory bench consists of two subsystems. The first subsystem provides audio signal real-time playback to simulate the propagated leak noise at two terminal points of pipe line segment. The second subsystem is leak-noise correlator itself. Using piezoelectric accelerometers as sensors it receives acoustic signal and then performs analog-to-digital conversion with further software digital processing. Regarding the hardware implementation, PC is utilized for software signal generation, in particular, Simulink model is used. Raspberry Pi-based device is used for digital signal processing. Since leak location problem can be solved with different digital processing algorithms such as correlation or specter analysis, the presented laboratory rig can be applied for academic purposes. For instance, it can be implemented within courses such as “Digital Signal Processing” and “Applied Math”. In addition, the presented solution is also applicable for scientific research associated with delay time estimation.Concept of laboratory rig for pipe leaks detections task solution via acoustic control is proposed. Hardware and software implementation stages are described. The laboratory bench consists of two subsystems. The first subsystem provides audio signal real-time playback to simulate the propagated leak noise at two terminal points of pipe line segment. The second subsystem is leak-noise correlator itself. Using piezoelectric accelerometers as sensors it receives acoustic signal and then performs analog-to-digital conversion with further software digital processing. Regarding the hardware implementation, PC is utilized for software signal generation, in particular, Simulink model is used. Raspberry Pi-based device is used for digital signal processing. Since leak location problem can be solved with different digital processing algorithms such as correlation or specter analysis, the presented laboratory rig can be applied for academic purposes. For instance, it can be implemented within courses such as “Digita...
利用泄漏噪声相关器模拟泄漏检测的实验室测试台的概念和实现
提出了利用声控技术解决管道泄漏检测任务的试验台概念。描述了硬件和软件的实现阶段。实验台架由两个子系统组成。第一个子系统提供音频信号的实时回放,以模拟管道线段两端传播的泄漏噪声。第二个子系统是泄漏噪声相关器本身。利用压电加速度计作为传感器接收声信号,然后通过进一步的软件数字处理进行模数转换。在硬件实现上,利用PC机进行软件信号生成,特别采用Simulink模型。基于树莓派的器件用于数字信号处理。由于泄漏定位问题可以通过相关分析或幽灵分析等不同的数字处理算法来解决,因此该实验装置可以用于学术目的。例如,它可以在“数字信号处理”和“应用数学”等课程中实现。此外,该方法也适用于与延迟时间估计相关的科学研究。提出了利用声控技术解决管道泄漏检测任务的试验台概念。描述了硬件和软件的实现阶段。实验台架由两个子系统组成。第一个子系统提供音频信号的实时回放,以模拟管道线段两端传播的泄漏噪声。第二个子系统是泄漏噪声相关器本身。利用压电加速度计作为传感器接收声信号,然后通过进一步的软件数字处理进行模数转换。在硬件实现上,利用PC机进行软件信号生成,特别采用Simulink模型。基于树莓派的器件用于数字信号处理。由于泄漏定位问题可以通过相关分析或幽灵分析等不同的数字处理算法来解决,因此该实验装置可以用于学术目的。例如,它可以在课程中实现,例如“数字…
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