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Artificial bee colony, genetic, back propagation and recurrent neural networks for developing intelligent system of turning process

机译:人工蜂群,遗传,反向传播和递归神经网络,用于开发车削过程智能系统

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Intelligent manufacturing requires significant technological interventions to interface manufacturing processes withcomputational tools in order to dynamically mold the systems. In this era of the 4th industrial revolution, Artificial neuralnetwork (ANNs) is a modern tool equipped with a better learning capability (based on the past experience or historydata) and assists in intelligent manufacturing. This research paper reports on ANNs based intelligent modelling of aturning process. The central composite design is used as a data-driven modelling tool and huge input–output is generatedto train the neural networks. ANNs are trained with the data collected from the physics-based models by usingback-propagation algorithm (BP), genetic algorithm (GA), artificial bee colony (ABC), and BP algorithm trained with selffeedbackloop. The ANNs are trained and developed as both forward and reverse mapping models. Forward modellingaims at predicting a set of machining quality characteristics (i.e. surface roughness, cylindricity error, circularity error,and material removal rate) for the known combinations of cutting parameters (i.e. cutting speed, feed rate, depth ofcut, and nose radius). Reverse modelling aims at predicting the cutting parameters for the desired machining qualitycharacteristics. The parametric study has been conducted for all the developed neural networks (BPNN, GA-NN, RNN,ABC-NN) to optimize neural network parameters. The performance of neural network models has been tested with thehelp of ten test cases. The network predicted results are found in-line with the experimental values for both forward andreverse models. The neural network models namely, RNN and ABC-NN have shown better performance in forward andreverse modelling. The forward modelling results could help any novice user for off-line monitoring, that could predictthe output without conducting the actual experiments. Reverse modelling prediction would help to dynamically adjustthe cutting parameters in CNC machine to obtain the desired machining quality characteristics.
机译:智能制造需要大量的技术干预才能将制造过程与计算工具以动态地塑造系统。在第四次工业革命的时代,人工神经网络(ANN)是一种具有更好学习能力的现代工具(基于过去的经验或历史数据)并协助智能制造。该研究论文报告了基于ANN的智能建模车削过程。中央复合设计用作数据驱动的建模工具,并产生了巨大的输入输出训练神经网络。通过使用基于物理的模型收集的数据来训练人工神经网络反向传播算法(BP),遗传算法(GA),人工蜂群(ABC)和经过自我反馈训练的BP算法循环。人工神经网络被训练和发展为正向和反向映射模型。正向建模目的是预测一组加工质量特征(即表面粗糙度,圆柱度误差,圆度误差,和切削速率)的已知组合切削参数(即切削速度,进给速率,切削深度)切割和鼻半径)。反向建模的目的是预测切削参数以获得所需的加工质量特征。已针对所有已开发的神经网络(BPNN,GA-NN,RNN,ABC-NN)以优化神经网络参数。神经网络模型的性能已通过十个测试用例的帮助。网络预测结果与正向和正向的实验值一致反向模型。 RNN和ABC-NN等神经网络模型在正向逆向建模。向前的建模结果可以帮助任何新手进行离线监视,从而可以预测输出而不进行实际实验。逆向建模预测将有助于动态调整在CNC机床中切削参数以获得所需的加工质量特征。

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