Optimization of MQL turning process considering the distribution and control of cutting fluid mist particles

Author(s):  
Niancong Liu ◽  
Xing Zou ◽  
Jia Yuan ◽  
Hao Jiang ◽  
Yu Zhang ◽  
...  
Procedia CIRP ◽  
2018 ◽  
Vol 77 ◽  
pp. 441-444 ◽  
Author(s):  
Chris M Taylor ◽  
Samantha Giovana Abrego Hernandez ◽  
Matthew Marshall ◽  
Matt Broderick

2000 ◽  
Author(s):  
Y. Yue ◽  
K. L. Gunter ◽  
D. J. Michalek ◽  
J. W. Sutherland

Abstract In Part 1 of this paper, models were developed to describe the formation mechanisms and dynamic behavior of cutting fluid mist. This part of the paper focuses on experimentally investigating mist formation during the turning process, and then simulating the dynamic behavior of the mist droplets, including the distribution and the mass concentration. Simulation results are compared to experimental measurements to validate the theoretical models presented in Part 1. It is seen that the model predictions adequately characterize the observed experimental behavior.


1948 ◽  
Vol 15 (1) ◽  
pp. 37-44
Author(s):  
M. C. Shaw

Abstract In the course of a fundamental study of metal cutting it was found that a cutting fluid encounters a rather unusual combination of conditions at the point of a cutting tool. The fluid is subjected to high local pressures of the order of the hardness of the metal cut, high local temperatures limited only by the melting point of the work material, and nascent highly stressed metal surfaces. This combination of conditions will, in general, promote a chemical reaction. The organic chemist uses reactions between metals and organic reagents in chemical synthesis, many of these so-called organometallic reactions being difficult to initiate and control. In this paper it is shown how the metal-cutting process may be employed in the preparation of organometallic compounds. The metal involved in the preparation is cut in the presence of the other reactants, thus utilizing the high-temperature, high-pressure, and highly stressed nascent surface produced at the point of cutting to start the reaction. This process has been called mechanical activation. This new chemical technique promises to give many extremely versatile organometallic reactions a commercial significance which they have heretofore lacked because their application was limited to batch rather than continuous processes by the inflammability and toxicity of the reactants, and the difficulty of starting and controlling the reaction.


2013 ◽  
Vol 845 ◽  
pp. 799-802 ◽  
Author(s):  
Rusdi Nur ◽  
M.Y. Noordin ◽  
S. Izman ◽  
Denni Kurniawan

Machining process should also consider environmental aspect, with power consumption as one of the criteria. Cutting parameters can be optimized to minimize power consumption. This paper takes a study on turning of nickel-based hastelloy under dry condition (no cutting fluid) which varies cutting speed (150, 200, and 250 m/min) and depth of cut (0.5, 1.0, and 1.5 mm). Power consumption of particular machining process at various cutting parameters was derived and calculated. It was found that minimum power consumption was shown when the turning process was performed at the lowest cutting speed and depth of cut.


2015 ◽  
Vol 6 (1) ◽  
pp. 47-60 ◽  
Author(s):  
Mohammad Zadshakoyan ◽  
Vahid Pourmostaghimi

Tool wear prediction plays an important role in industry automation for higher productivity and acceptable product quality. Therefore, in order to increase the productivity of turning process, various researches have been made recently for tool wear estimation and classification in turning process. Chip form is one of the most important factors commonly considered in evaluating the performance of machining process. On account of the effect of the progressive tool wear on the shape and geometrical features of produced chip, it is possible to predict some measurable machining outputs such as crater wear. According to experimentally performed researches, cutting speed and cutting time are two extremely effective parameters which contribute to the development of the crater wear on the tool rake face. As a result, these parameters will change the chip radius and geometry. This paper presents the development of the genetic equation for the tool wear using occurred changes in chip radius in turning process. The development of the equation combines different methods and technologies like evolutionary methods, manufacturing technology, measuring and control technology with the adequate hardware and software support. The results obtained from genetic equation and experiments showed that obtained genetic equations are correlated well with the experimental data. Furthermore, it can be used for tool wear estimation during cutting process and because of its parametric form, genetic equation enables us to analyze the effect of input parameters on the crater wear parameters.


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