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Membrane Fouling Diagnosis of Membrane Components Based on MOJS-ADBN
Yaoke Shi1, Zhiwen Wang1,2,3, Xianjun Du1,2,3
1College of Electrical and Information Engineering, Lanzhou University of Technology, Lanzhou 730050, China.
Membranes
|September 22, 2022
Summary
A new method uses a multi-objective jellyfish search adaptive deep belief network (MOJS-ADBN) for membrane fouling diagnosis in water treatment. This approach enhances diagnostic accuracy and convergence speed for effective membrane component monitoring.
Area of Science:
- Environmental Engineering
- Water Treatment Technologies
- Artificial Intelligence in Engineering
Background:
- Membrane fouling in water treatment presents significant challenges due to strong nonlinearity and time-varying characteristics.
- Accurate diagnosis of membrane component fouling is crucial for maintaining efficient water treatment processes.
Purpose of the Study:
- To propose a novel membrane fouling diagnosis method using a multi-objective jellyfish search adaptive deep belief network (MOJS-ADBN).
- To enhance the convergence speed and feature extraction capabilities for improved diagnostic accuracy in membrane water treatment.
Main Methods:
- Introduced adaptive learning rates into the unsupervised pre-training phase of Deep Belief Networks (DBN) to accelerate convergence.
- Employed the Multi-Objective Jellyfish Search (MOJS) algorithm for weight fine-tuning, replacing traditional gradient-based methods to improve feature extraction.
- Proved the convergence of the MOJS-ADBN learning process using Lyapunov functions.
Main Results:
- The MOJS-ADBN demonstrated a fast convergence speed in diagnosing membrane fouling.
- The proposed method achieved high diagnostic accuracy for membrane components.
- Experimental validation confirmed the effectiveness of MOJS-ADBN in membrane packaging diagnosis.
Conclusions:
- MOJS-ADBN offers a robust and accurate solution for membrane fouling diagnosis in real-time water treatment operations.
- The method provides a valuable theoretical foundation for addressing fouling issues in membrane systems.
- This approach contributes to the optimization and reliability of membrane-based water purification.
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