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Oxygen Bubble Dynamics in PEM Water Electrolyzers with a Deep-Learning-Based Approach
by
Kadjo, Jean-Jacques Amangoua
, Benne, Michel
, Lin-Kwong-Chon, Christophe
, Damour, Cédric
, Sinapan, Idriss
in
Acoustics
/ Algorithms
/ Alternative energy sources
/ bubble flow recognition
/ Bubbles
/ Computer vision
/ Deep learning
/ deep learning algorithm
/ Design
/ Efficiency
/ Energy resources
/ Geometry
/ High speed cameras
/ high-resolution camera acquisition
/ Image acquisition
/ Methods
/ Neural networks
/ Oxygen
/ polymer exchange membrane water electrolysis
/ Renewable resources
/ Two phase flow
/ Vision systems
/ Water flow
2023
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Oxygen Bubble Dynamics in PEM Water Electrolyzers with a Deep-Learning-Based Approach
by
Kadjo, Jean-Jacques Amangoua
, Benne, Michel
, Lin-Kwong-Chon, Christophe
, Damour, Cédric
, Sinapan, Idriss
in
Acoustics
/ Algorithms
/ Alternative energy sources
/ bubble flow recognition
/ Bubbles
/ Computer vision
/ Deep learning
/ deep learning algorithm
/ Design
/ Efficiency
/ Energy resources
/ Geometry
/ High speed cameras
/ high-resolution camera acquisition
/ Image acquisition
/ Methods
/ Neural networks
/ Oxygen
/ polymer exchange membrane water electrolysis
/ Renewable resources
/ Two phase flow
/ Vision systems
/ Water flow
2023
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Do you wish to request the book?
Oxygen Bubble Dynamics in PEM Water Electrolyzers with a Deep-Learning-Based Approach
by
Kadjo, Jean-Jacques Amangoua
, Benne, Michel
, Lin-Kwong-Chon, Christophe
, Damour, Cédric
, Sinapan, Idriss
in
Acoustics
/ Algorithms
/ Alternative energy sources
/ bubble flow recognition
/ Bubbles
/ Computer vision
/ Deep learning
/ deep learning algorithm
/ Design
/ Efficiency
/ Energy resources
/ Geometry
/ High speed cameras
/ high-resolution camera acquisition
/ Image acquisition
/ Methods
/ Neural networks
/ Oxygen
/ polymer exchange membrane water electrolysis
/ Renewable resources
/ Two phase flow
/ Vision systems
/ Water flow
2023
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Oxygen Bubble Dynamics in PEM Water Electrolyzers with a Deep-Learning-Based Approach
Journal Article
Oxygen Bubble Dynamics in PEM Water Electrolyzers with a Deep-Learning-Based Approach
2023
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Overview
Oxygen bubble accumulation on the anodic side of a polymer exchange membrane water electrolyzer (PEMWE) may cause a decrease in performance. To understand the behavior of these bubbles, a deep-learning-based bubble flow recognition tool dedicated to a PEMWE is developed. Combining the transparent side of a single PEMWE cell with a high-resolution high-speed camera allows us to acquire images of the two-phase flow in the channels. From these images, a deep learning vision system using a fine-tuned YOLO V7 model is applied to detect oxygen bubbles. The tool achieved a high mean average precision of 70%, confirmed the main observations in the literature, and provided exciting insights into the characteristics of two-phase flow regimes. In fact, increasing the water flow rate from 0.05 to 0.4 L/min decreases the bubble coverage (by around 32%) and the mean single-bubble area. In addition, increasing the current density from 0.3 to 1.4 A/cm2 leads to an increase in bubble coverage (by around 40%) and bubble amount.
Publisher
MDPI AG
Subject
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