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arXiv 2402.04058eess.SYcs.ETcs.SY
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一种用于流控回路控制、仿真与监测的数字孪生设计方法

A Digital Twin Design Methodology for Control, Simulation, and Monitoring of Fluidic Circuits

Veyis Gunes

AI总结:

本文提出一种面向气动、液压及电气/电子回路的数字孪生综合设计方法,通过主动数字孪生和带记忆的时序逻辑实现计算机辅助设计、仿真、控制、监测及实时诊断,并支持检测系统对自身输入的作用,助力未来工厂数字化转型。

摘要:

我们提出一种数字孪生设计的综合方法,适用于多种系统(气动、液压、电气/电子回路)。该方法能够通过主动数字孪生表示这些系统的运行,从而实现更合适、更便捷的计算机辅助设计、仿真、控制和监测。此外,我们的方法能够检测系统对自身输入的作用(例如在气动系统中:被困在流控系统某部分的气体回流到其自身输入)。在仿真或监测阶段,该方法还有助于对受控系统进行实时诊断。受控物理系统或其数字孪生的输出不仅取决于当前输入,还取决于输入的历史以及内部状态和变量的历史。换言之,底层时序逻辑具有记忆能力,而单纯的组合逻辑方法则不具备。这些能力可促进未来工厂的数字化转型。

英文摘要:

We propose a synthesis method for the design of digital twins applicable to various systems (pneumatic, hydraulic, electrical/electronic circuits). The methodology allows representing the operation of these systems through an active digital twin, thereby enabling a more suitable and easier computer-aided design, simulation, control, and monitoring. Furthermore, our methodology enables the detection of a system's actions on its own inputs (for example, in pneumatics: backflow of gases trapped in part of a fluidic system onto its own inputs). During the simulation or monitoring phase, the approach also facilitates real-time diagnosis of the controlled system. The outputs, on the controlled physical system or its digital twin, do not depend only on the current inputs but also on the history of the inputs and the history of internal states and variables. In other words, the underlying sequential logic has a memory while an only combinational logic approach does not. These capabilities can contribute to the digital transformation of the factory of the future.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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