Guangying Zhu's research while affiliated with University of Shanghai for Science and Technology and other places

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Publications (4)


Impedance-based online detection of lithium plating for lithium-ion batteries: Mechanism and sensitivity analysis
  • Article

May 2024

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49 Reads

Electrochimica Acta

Tao Sun

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Zhuo Li

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Guangying Zhu

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[...]

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Figure 1. Simulation experiments of ISC faults within the battery module.
Figure 2. First-order RC equivalent circuit model.
Figure 6. Schematic diagram of the ResNet 101 layer network structure after modification.
Figure 7. Multi-machine learning model architecture. Figure 7. Multi-machine learning model architecture.
Basic performance parameters of the battery.

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Identification of Internal Short-Circuit Faults in Lithium-Ion Batteries Based on a Multi-Machine Learning Fusion
  • Article
  • Full-text available

February 2023

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85 Reads

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4 Citations

Batteries

Internal short-circuit (ISC) faults are a common cause of thermal runaway in lithium-ion batteries (LIBs), which greatly endangers the safety of LIBs. Different LIBs have common features related to ISC faults. Due to the insufficient volume of acquired ISC fault data, conventional machine learning models could not effectively identify ISC faults. To compensate for the above deficiencies, this paper proposes a multi-machine learning fusion method to predict ISC faults and to perform faults warning classification under multiple operating conditions using the input of voltage normalization. Firstly, learning data acquisition is captured by experiments and simulation. Secondly, the simulation data are inputted into the ResNet-convolutional neural network (CNN) for pretraining, followed by the transfer learning method to freeze parts of the model layers in the CNN, and part of the experimental data are also inputted into the CNN model for parameter fine-tuning to build a multi-machine learning model. Finally, the degree of ISC faults within the laboratory battery is predicted based on the multi-machine learning model. The results show that the CNN model had a 99.9% prediction accuracy on the simulated dataset, and the multi-machine learning fusion model after transfer learning had a 96.67% prediction accuracy on the laboratory battery dataset, which can accurately identify different levels of ISC faults in batteries and realize the graded warning of ISC faults.

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Citations (1)


... Unlike modelbased methods, data-driven battery FDD methods do not rely on an accurate battery model, while FDD is performed by real-time data such as voltage, current, and temperature generated during battery operation. Commonly employed data-driven diagnostic techniques encompass entropy analysis (EA) [28], statistical analysis (SA) [29], and machine learning (ML) [30]. Xia et al. [31] introduced a fault detection method for lithium batteries based on the voltage profile correlation coefficient. ...

Reference:

Early-Stage ISC Fault Detection for Ship Lithium Batteries Based on Voltage Variance Analysis
Identification of Internal Short-Circuit Faults in Lithium-Ion Batteries Based on a Multi-Machine Learning Fusion

Batteries