Tool Wear Prediction in Manufacturing

A special issue of Journal of Manufacturing and Materials Processing (ISSN 2504-4494).

Deadline for manuscript submissions: closed (30 November 2020) | Viewed by 13657

Special Issue Editor


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Guest Editor
Department of Mechanical Engineering, McMaster University, Hamilton, ON, Canada
Interests: material behavior at large strain, high strain rate and elevated temperature; residual stresses induced by thermal and mechanical loading; structural stress analysis
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Special Issue Information

Dear Colleagues,

In both metal cutting and metal forming, controlling the tool wear rate is critical as it affects part geometry, surface, and subsurface integrity. Furthermore, the selection of process parameters, thin film tool coatings and cutting environment, especially for materials with high strain hardening sensitivity and low thermal properties, is dependent on striking a balance between tool wear rate and productivity. At the present moment, the majority of the models could predict wear rate at the flank face region only. Unfortunately, few have the ability to predict the crater wear rate. The tool wear rate predicted by analytical or empirical models is triggered by either mechanical or thermal loadings and at the steady-state wear rate region. Limited published models have the ability to predict the transition between transient and steady-state wear rate. However, this limitation could be overcome using finite element (F.E.) methods. In F.E., the accuracy is controlled by both material’s empirical constant and friction models with a coefficient of friction that is dependent on temperature. The downside of F.E. is the computational time, which is directly proportion to the tool wear rate and, even with the present hardware speeds, is still computationally intensive. When using hybrid approaches like F.E./ empirical models, the computational time could be substantially reduced, but extensive model calibration is required. Regardless of the tool wear prediction approaches, few models could incorporate wear induced by chemical reactivity between the workpiece and tool material.

In this Special Issue of JMMP, we are interested in contributions that focus on, but are not limited to:

  • Development of unique analytical models to predict wear on the flank and crater regions;
  • Evaluation of different empirical wear models on “difficult to cut or deform” materials, metal matrix composite, and stack materials;
  • Methodology to predict the transient erosion rate before reaching steady-state;
  • Predicting wear pattern and rate using numerical models (finite element method or finite difference technique) in either orthogonal or oblique configuration;
  • Using a hybrid approaches corresponding to analytical/empirical, mechanistic/empirical or numerical/empirical models to simulate tool life;
  • Estimating tool performance using non-analytical models like artificial neural network or survival life analysis, etc.;
  • Effect of material constitutive models and friction models on tool degradation rate accuracy;
  • Advancement in estimating tool life for non-orthogonal metal cutting processes like drilling, ball nosed end milling, tapping, etc.;
  • Multivariable empirical models to predict the effects of tool coating characteristics like thickness, micro cutting-edge geometry, friction properties, surface roughness on tool performance;
  • Models that are capable of simulating the effect of cutting environment (high-pressure cutting pressure, minimal quantity lubricant, cryogenic cooling) on tool life.

Prof. Dr. Eu-Gene Ng
Guest Editor

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Published Papers (3 papers)

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Research

17 pages, 7550 KiB  
Article
Research on Tool Wear Based on 3D FEM Simulation for Milling Process
by Zhibo Liu, Caixu Yue, Xiaochen Li, Xianli Liu, Steven Y. Liang and Lihui Wang
J. Manuf. Mater. Process. 2020, 4(4), 121; https://doi.org/10.3390/jmmp4040121 - 16 Dec 2020
Cited by 14 | Viewed by 4181
Abstract
In the process of metal cutting, the anti-wear performance of the tool determines the life of the tool and affects the surface quality of the workpiece. The finite element simulation method can directly show the tool wear state and morphology, but due to [...] Read more.
In the process of metal cutting, the anti-wear performance of the tool determines the life of the tool and affects the surface quality of the workpiece. The finite element simulation method can directly show the tool wear state and morphology, but due to the limitations of the simulation time and complex boundary conditions, it has not been commonly used in tool life prediction. Based on this, a tool wear model was established on the platform of a finite element simulation software for the cutting process of titanium alloy TC4 by end milling. The key technique is to embed different types of tool wear models into the finite element model in combination with the consequent development technology. The effectiveness of the tool wear model was validated by comparing the experimental results with the simulation results. At the same time, in order to quickly predict the tool life, an empirical prediction formula of tool wear was established, and the change course of tool wear under time change was obtained. Full article
(This article belongs to the Special Issue Tool Wear Prediction in Manufacturing)
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13 pages, 984 KiB  
Article
An Analytic Approach to the Cox Proportional Hazards Model for Estimating the Lifespan of Cutting Tools
by Lucas Equeter, François Ducobu, Edouard Rivière-Lorphèvre, Roger Serra and Pierre Dehombreux
J. Manuf. Mater. Process. 2020, 4(1), 27; https://doi.org/10.3390/jmmp4010027 - 24 Mar 2020
Cited by 9 | Viewed by 3350
Abstract
The machining industry raises an ever-growing concern for the significant cost of cutting tools in the production process of mechanical parts, with a focus on the replacement policy of these inserts. While an early maintenance induces lower tool return on investment, scraps and [...] Read more.
The machining industry raises an ever-growing concern for the significant cost of cutting tools in the production process of mechanical parts, with a focus on the replacement policy of these inserts. While an early maintenance induces lower tool return on investment, scraps and inherent costs stem from late replacement. The framework of this paper is the attempt to predict the tool inserts Mean Up Time, based solely on the value of a cutting parameter (the cutting speed in this particular turning application). More specifically, the use of the Cox Proportional Hazards (PH) Model for this prediction is demonstrated. The main contribution of this paper is the analytic approach that was conducted about the relevance on data transformation prior to using the Cox PH Model. It is shown that the logarithm of the cutting speed is analytically much more relevant in the prediction of the Mean Up Time through the Cox PH model than the raw cutting speed value. The paper also covers a numerical validation designed to show and discuss the benefits of this data transformation and the overall interest of the Cox PH model for the lifetime prognosis. This methodology, however, necessitates the knowledge of an analytical law linking the covariate to the Mean Up Time. It also shows how the necessary data for the numerical experiment was obtained through a gamma process simulating the degradation of cutting inserts. The results of this paper are expected to help manufacturers in the assessment of tool lifespan. Full article
(This article belongs to the Special Issue Tool Wear Prediction in Manufacturing)
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21 pages, 6394 KiB  
Article
A Unique Methodology for Tool Life Prediction in Machining
by Keyvan Hosseinkhani and Eu-Gene Ng
J. Manuf. Mater. Process. 2020, 4(1), 16; https://doi.org/10.3390/jmmp4010016 - 25 Feb 2020
Cited by 11 | Viewed by 5274
Abstract
In this paper, a unique approach for estimating tool life using a hybrid finite element method coupled with empirical wear rate equation is presented. In the proposed approach, the computational time was significantly reduced when compared to nodal movement technique. However, to adopt [...] Read more.
In this paper, a unique approach for estimating tool life using a hybrid finite element method coupled with empirical wear rate equation is presented. In the proposed approach, the computational time was significantly reduced when compared to nodal movement technique. However, to adopt such an approach, the angle between tool’s rake and flank faces must be constant through the process and at least two cutting experiments need to be performed for empirical model calibration. It is also important to predict the sliding velocity along the tool/flank face interface accurately when using Usui’s model to predict the tool wear rate. Model validations showed that when the sliding velocity was assumed to be equivalent to the cutting speed, poor agreement between the predicted and measured wear rate and tool life was observed, especially at low cutting speed. Furthermore, a new empirical model to predict tool wear rate in the initial or break-in period as a function of Von Mises stress field was developed. Experimental validation shows that the newly developed model substantially improved the initial tool wear rate in terms of trend and magnitude. Full article
(This article belongs to the Special Issue Tool Wear Prediction in Manufacturing)
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