基于CKF鲁棒观测器反馈的两级厌氧消化最大极值沼气产量预测跟踪控制

IF 3.9 2区 计算机科学 Q2 AUTOMATION & CONTROL SYSTEMS
Hongxuan Li , Haoping Wang , Yang Tian , Nicolai Christov
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引用次数: 0

摘要

两级厌氧消化技术可以有效地将有机污染物转化为可再生能源气体,是一种很有前途的微生物技术。然而,实际实施面临两个基本挑战:关键过程状态(例如,厌氧微生物的浓度)不能通过传统传感器直接测量,并且在当前的操作范式下,产气效率仍然不是最佳的。为了解决这些挑战,本研究提出了一种鲁棒的基于观测器的沼气产量极值预测跟踪控制器(RO-EPTC)。提出的RO-EPTC控制器集成了培养卡尔曼滤波鲁棒观测器和基于人工神经网络的预测跟踪控制器。RO-EPTC能够对生物气产量进行动态极值预测,同时确保将实际产气量实时收敛到确定的最佳轨迹。此外,该方案提供了对不可测系统状态的准确估计。最后,通过仿真对比实验,验证了所提RO-EPTC方法的效果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Maximum extrem biogas yield prediction based tracking control for two-stage anaerobic digestion using CKF robust observer feedback
Two-stage anaerobic digestion process, recognized as a promising microbiological technology, can effectively converts organic pollutants into renewable energy gases. However, practical implementation faces two fundamental challenges: the critical process states (for example, concentrations of anaerobic microorganisms) are not directly measurable through conventional sensors, and the gas production efficiency remains suboptimal under current operational paradigms. To address these challenges, this study proposed a robust observer-based biogas yield extremum prediction tracking controller (RO-EPTC). The proposed RO-EPTC controller integrates a cubature Kalman filter robust observer and an artificial neural network-based prediction tracking controller. The RO-EPTC enables dynamic extremum prediction of biogas yield while ensuring real-time convergence of actual gas production to the identified optimal trajectory. Additionally, the proposed scheme provides accurate estimation of unmeasurable system states. Finally, through simulation comparison experiments, the effects of proposed RO-EPTC method were verified.
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来源期刊
Journal of Process Control
Journal of Process Control 工程技术-工程:化工
CiteScore
7.00
自引率
11.90%
发文量
159
审稿时长
74 days
期刊介绍: This international journal covers the application of control theory, operations research, computer science and engineering principles to the solution of process control problems. In addition to the traditional chemical processing and manufacturing applications, the scope of process control problems involves a wide range of applications that includes energy processes, nano-technology, systems biology, bio-medical engineering, pharmaceutical processing technology, energy storage and conversion, smart grid, and data analytics among others. Papers on the theory in these areas will also be accepted provided the theoretical contribution is aimed at the application and the development of process control techniques. Topics covered include: • Control applications• Process monitoring• Plant-wide control• Process control systems• Control techniques and algorithms• Process modelling and simulation• Design methods Advanced design methods exclude well established and widely studied traditional design techniques such as PID tuning and its many variants. Applications in fields such as control of automotive engines, machinery and robotics are not deemed suitable unless a clear motivation for the relevance to process control is provided.
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