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@article{ART002974343},
author={Min, Byung-Won},
title={Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining},
journal={Journal of Internet of Things and Convergence},
issn={2466-0078},
year={2023},
volume={9},
number={3},
pages={93-98},
doi={10.20465/KIOTS.2023.9.3.093}

TY - JOUR
AU - Min, Byung-Won
TI - Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining
JO - Journal of Internet of Things and Convergence
PY - 2023
VL - 9
IS - 3
PB - The Korea Internet of Things Society
SP - 93
EP - 98
SN - 2466-0078
AB - In this paper, an artificial neural network based on simulated annealing was constructed. The mapping relationship between the parameters of micro-scaled flow channels electrochemical machining and the channel shape was established by training the samples. The depth and width of micro-scaled flow channels electrochemical machining on stainless steel surface were predicted, and the flow channels experiment was carried out with pulse power supply in NaNO3 solution to verify the established network model. The results show that the depth and width of the channel predicted by the simulated annealing artificial neural network with "4-7-2" structure are very close to the experimental values, and the error is less than 5.3%. The predicted and experimental data show that the etching degree in the process of channels electrochemical machining is closely related to voltage and current density. When the voltage is less than 5V, a "small island" is formed in the channel; When the voltage is greater than 40V, the lateral etching of the channel is relatively large, and the "dam" between the channels disappears. When the voltage is 25V, the machining morphology of the channel is the best.
KW - Micro-scaled flow channel;Neural network;Simulated annealing;Electrochemical machining;Prediction model;Parameter optimization
DO - 10.20465/KIOTS.2023.9.3.093
ER -

Min, Byung-Won. (2023). Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining. Journal of Internet of Things and Convergence, 9(3), 93-98.

Min, Byung-Won. 2023, "Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining", Journal of Internet of Things and Convergence, vol.9, no.3 pp.93-98. Available from: doi:10.20465/KIOTS.2023.9.3.093

Min, Byung-Won "Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining" Journal of Internet of Things and Convergence 9.3 pp.93-98 (2023) : 93.

Min, Byung-Won. Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining. 2023; 9(3), 93-98. Available from: doi:10.20465/KIOTS.2023.9.3.093

Min, Byung-Won. "Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining" Journal of Internet of Things and Convergence 9, no.3 (2023) : 93-98.doi: 10.20465/KIOTS.2023.9.3.093

Min, Byung-Won. Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining. Journal of Internet of Things and Convergence, 9(3), 93-98. doi: 10.20465/KIOTS.2023.9.3.093

Min, Byung-Won. Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining. Journal of Internet of Things and Convergence. 2023; 9(3) 93-98. doi: 10.20465/KIOTS.2023.9.3.093

Min, Byung-Won. Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining. 2023; 9(3), 93-98. Available from: doi:10.20465/KIOTS.2023.9.3.093

Min, Byung-Won. "Research on ANN based on Simulated Annealing in Parameter Optimization of Micro-scaled Flow Channels Electrochemical Machining" Journal of Internet of Things and Convergence 9, no.3 (2023) : 93-98.doi: 10.20465/KIOTS.2023.9.3.093