2017
DOI: 10.1016/j.jestch.2016.10.019
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Modeling and prediction of cutting forces during the turning of red brass (C23000) using ANN and regression analysis

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Cited by 45 publications
(20 citation statements)
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“…ANN, multiple regression approaches and ANOVA were used. It is evident from the analysis of variance in this article that the regression method is able to forecast the cutting forces with a higher accuracy [36] which supports the present study. An optimal renewable energy model, OREM for India was evolved for the year 2020-2021 to meet the increasing energy requirements [37].…”
Section: Discussionsupporting
confidence: 87%
“…ANN, multiple regression approaches and ANOVA were used. It is evident from the analysis of variance in this article that the regression method is able to forecast the cutting forces with a higher accuracy [36] which supports the present study. An optimal renewable energy model, OREM for India was evolved for the year 2020-2021 to meet the increasing energy requirements [37].…”
Section: Discussionsupporting
confidence: 87%
“…Agustina et al [ 17 ] observed that for the aluminum alloy A97075, the most significant cutting parameter is feed rate, followed by the depth of cut and spindle speed. Similarly, studies related to the turning of other materials such as AISI 4340 steel [ 41 ], AISI 4140 steel [ 42 ], red brass [ 43 ], Inconel 718 [ 44 ], also showed that feed rate and depth of cut have a significant effect on cutting forces while cutting speed is found to be insignificant.…”
Section: Resultsmentioning
confidence: 99%
“…However, the processing of graded material remained a big unknown, and presented a challenge for researchers and industry around the world. An investigation by Hanief et al [134] into red brass machining was intended to develop a model to study the influence of cutting parameters (speed, depth of cut, and feed rate) on the cutting forces during turning operations using high speed steel tools. Experiments were carried out on a basis of full factorial design methodology to increase the reliability and confidence limit of the data.…”
Section: Intelligent Manufacturingmentioning
confidence: 99%
“…There are many AI algorithms for machine health monitoring and other machine tool applications: The second-order recurrent neural networks (RNN) method for the learning and extraction of finite for intelligent tool wear estimation [129], optical image scattering and hybrid artificial intelligence techniques for intelligent tool wear identification [130], a pattern recognition method for identifying the designed strength of concrete by evidence accumulation [131], adaptive neuro-fuzzy inference and hybrid systems, in an ANN approach, to the modeling and optimization of ultrasonic welding (USW) process parameters [132], an NN method for the prediction of cutting forces [133], an ANN and regression analysis scheme for the modeling and prediction of cutting forces [134], an ANN method for the intelligent control of a three-joint robotic manipulator [135], an ANN approach using the genetic algorithm for intelligent fixture design [136], a survey of CPS architecture used in Industry 4.0-based manufacturing systems [137], a review of CPS in advanced manufacturing [138], hierarchical hybrid models for face-detection and face-recognition [139], machine learning for the design and evaluation of obstacle detection in a transportation CPS [140], machine learning algorithms for CPS, decision sciences and data products [141], an ANN scheme for diagnosis, classification and prognosis of rotating machines [142], an ANN method for the prediction of the remaining useful life in rotating machines [143], wavelet packet decomposition, Fourier transform and ANN methods used in the classification of faults and the prediction of the degradation of components and machines in a manufacturing system [144], a recursive least-squares (RLS) approach to the behavior of rolling element bearings [145], an NN method for the prognosis of remaining bearing life [146], a model-based, data-driven (or both), prediction method for remaining useful life (RUL) [147], condition-based machinery maintenance (CBM), diagnostics and prognostics [148], a dynamic fault isolation scheme for the prognosis of hybrid systems [149], an LSTM based encoder-decoder for multi-sensor prognostics [150], an NN method for intelligent pressure sensors [151], a functional link ANN approach for the modeling of an intelligent pressure sensor [152]<...>…”
Section: Brief Introductionmentioning
confidence: 99%