Prediction model for mechanism sand process parameters of vertical shaft impact crusher based on fuzzy-self-attention hybrid neural network

This study proposed a predictive model for process parameters of Vertical Shaft Impact Crusher for manufactured sand. It employs a fuzzy-self-attention hybrid neural network model to determine the optimal operational state of the crusher, effectively enhancing the accuracy of predicting the Fineness Modulus and particle size distribution of the manufactured sand. Extensive training of the model is conducted using a large dataset collected from three mining operation sites. The model is compared to two disintegration modules and a BP neural network. Simulation results reveal that this hybrid neural network model achieves convergence in fewer than 20 epochs during the training process. Its predicted particle size distribution curve closely matches actual sample data, and the Coefficient of Determination 𝑅ଶ is closest to 1, indicating superior predictive performance. This model exhibits the best predictive ability and can effectively forecast both the Fineness Modulus and particle size distribution of the sand.

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Publication Details

Published
2024-08-05
DOI
https://doi.org/10.1117/12.3039384
Primary Topic
Mineral Processing and Grinding
Type
article
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article

Prediction model for mechanism sand process parameters of vertical shaft impact crusher based on fuzzy-self-attention hybrid neural network

Shuimiao Du, Liang Xu, Wanyu Liu, Xiya You
Mineral Processing and Grinding
article

Prediction model for mechanism sand process parameters of vertical shaft impact crusher based on fuzzy-self-attention hybrid neural network

Shuimiao Du, Liang Xu, Wanyu Liu, Xiya You
article en

Abstract

This study proposed a predictive model for process parameters of Vertical Shaft Impact Crusher for manufactured sand. It employs a fuzzy-self-attention hybrid neural network model to determine the optimal operational state of the crusher, effectively enhancing the accuracy of predicting the Fineness Modulus and particle size distribution of the manufactured sand. Extensive training of the model is conducted using a large dataset collected from three mining operation sites. The model is compared to two disintegration modules and a BP neural network. Simulation results reveal that this hybrid neural network model achieves convergence in fewer than 20 epochs during the training process. Its predicted particle size distribution curve closely matches actual sample data, and the Coefficient of Determination 𝑅ଶ is closest to 1, indicating superior predictive performance. This model exhibits the best predictive ability and can effectively forecast both the Fineness Modulus and particle size distribution of the sand.

Shanghai University (CN), Shanghai Jian Qiao University (CN)
Climate action
Openalex Percentile: Top 88%
Mineral Processing and Grinding
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Prediction model for mechanism sand process parameters of vertical shaft impact crusher based on fuzzy-self-attention hybrid neural network — Shuimiao Du, Liang Xu, et al. · (2024) | TGRS Research Map | TGRS