Prediction of Cotton Yarn Quality Based on Attention-GRU
Open Access
- 5 September 2023
- journal article
- research article
- Published by MDPI AG in Applied Sciences
- Vol. 13 (18) , 10003
Abstract
With the diversification of spinning order varieties and process parameters, the conventional method of determining production plans through trial spinning no longer satisfies the processing requirements of enterprises. Currently, deficiencies exist in predicting spinning quality relying on manual experience and traditional methods. The back propagation (BP) neural network within the realm of deep learning theory faces challenges in handling time series data, while the long short-term memory (LSTM) neural network, despite its intricate mechanism, exhibits an overall lower predictive accuracy. Consequently, a more precise predictive methodology is imperative to assist production personnel in efficiently ascertaining cotton-blending schemes and processing parameters, thereby elevating the production efficiency of the enterprise. In response to this challenge, we propose an attention-GRU-based cotton yarn quality prediction model. By employing the attention mechanism, the model is directed towards the input features most significantly impacting yarn quality. Real-world performance indicators of raw cotton and process parameters are utilized to predict yarn tensile strength. A comparative analysis is conducted against prediction results of BP, LSTM, and gated recurrent unit (GRU) neural networks that do not incorporate the attention mechanism. The outcomes reveal that the GRU model enhanced with the attention mechanism demonstrates reductions of 56.3%, 38.5%, and 36.4% in root mean square error (RMSE), along with 0.367%, 0.158%, and 0.190% in mean absolute percentage error (MAPE), respectively. The model attains a coefficient of determination R-squared of 0.954, indicating a high degree of fitness. This study underscores the potential of the proposed attention-GRU model in refining cotton yarn quality prediction and its consequential implications for process optimization and enhanced production efficiency within textile enterprises.Keywords
Funding Information
- The Zhejiang Provincial Postdoctoral Research Program First Class, China (No. ZJ2021038, 2022C01202, 2022C01065, No.23242083-Y)
- Science and Technology Program of Zhejiang Province, China (No. ZJ2021038, 2022C01202, 2022C01065, No.23242083-Y)
- Zhejiang Sci-Tech University Research Start-up Fund, China (No. ZJ2021038, 2022C01202, 2022C01065, No.23242083-Y)
This publication has 17 references indexed in Scilit:
- Design of Knitted Garment Design Model Based on Mathematical Image TheoryJournal of Sensors, 2022
- Effect of Different Yarn Combinations on Auxetic Properties of Plied YarnsAutex Research Journal, 2021
- Influence of Polymer Concentration and Nozzle Material on Centrifugal Fiber SpinningPolymers, 2020
- Analysis of the magnetic field and electromagnetic force of a non-striking weft insertion system for super broad-width looms, based on an electromagnetic launcherTextile Research Journal, 2019
- Prediction and optimization of chemical fiber spinning tension based on grey system theoryTextile Research Journal, 2018
- Accurate prediction of cotton ring-spun yarn quality from high-volume instrument and mill processing dataTextile Research Journal, 2016
- Yarn-level simulation of woven clothACM Transactions on Graphics, 2014
- Influence of GA-BP Artificial Neural Network Based on PCA Dimension Reduction in Yarn Tenacity PredictionAdvanced Materials Research, 2014
- An artificial neural network approach to prediction of the colorimetric values of the stripped cotton fabricsFibers and Polymers, 2008
- Analysis of Two Modeling Methodologies for Predicting the Tensile Properties of Cotton-covered Nylon Core YarnsTextile Research Journal, 2007