The assessment of cutting tool wear

By Viktor Astakhov. 2004

309 citations recorded by the source corpus.

Subfields: Materials Chemistry, Mechanical Engineering, Mechanics of Materials

View Paper: https://www.semanticscholar.org/paper/f56d02e59364a86802f2c069a832a208472653f9

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Materials Chemistry

1. Y. Chou
2. T. Hryniewicz
3. Zdzisław Pluta
4. Yong Huang
5. S. Liang
6. Xinran Xiao
7. Y. Kaynak
8. I. Al-Samarrai

In Mechanical Engineering

1. Y. Chou
2. S. Liang
3. Yong Huang
4. T. Hryniewicz
5. Zdzisław Pluta
6. Xinran Xiao
7. Y. Kaynak
8. Stephen T. Newman

In Mechanics of Materials

1. T. Hryniewicz
2. Zdzisław Pluta
3. Y. Chou
4. Yong Huang
5. S. Liang
6. Xinran Xiao
7. Y. Kaynak
8. Viktor Astakhov

Citations in the corpus

• A METHODOLOGY FOR PRACTICAL CUTTING FORCE EVALUATION BASED ON THE ENERGY SPENT IN THE CUTTING SYSTEM (2008, methodology): “…being removed, Ppd , can be calculated from the chip compression ratio and parameters of the deformation curve of the work material as follows (Astakhov, 2004, 2006) Ppd ¼ K ð1:15 ln fÞnþ1 n þ 1 nAw ð7Þ where K is the strength coefficient (N=m2) and n is the hardening exponent of the work…”
• Evaluation of machining performance in cryogenic machining of Inconel 718 and comparison with dry and MQL machining (2014, background): “In machining, the flank wear is the most common criteria because it defines the cutting edge retreat and has a significant influence on the workpiece dimensional accuracy [30–32].”
• Thermal Expansion of Solids (2012, methodology): “To this number of applications of the presented method of the description of non-continuous quantum physical phenomena, the uses to the description of curves of the tool edge wear [19-22], the tool life under cut [23,24], the curves of material strengthening [25,26], and the characteristics of stiff”
• A review of flank wear prediction methods for tool condition monitoring in a turning process (2012, unknown): “These two criteria can be summarized as follows: VB (cid:1) 0 : 3 mm and VB max (cid:1) 0 : 6 mm Although above flank wear and tool life criteria do not account for the tool geometry, they have been used widely by the researchers [2].”
• Hybrid cryogenic MQL for improving tool life in machining of Ti-6Al-4V titanium alloy (2019, background): “Astakhov [55] explained that minimum tool wear and improved surface finish can be achieved at an optimum”
• CBN tool wear in hard turning: a survey on research progresses (2007, methodology): “reactions or adhesion, and its effects on the CBN tool wear process – Study of tool wear effects on the white-layer generation on the chip and machined workpiece surface, which may affect the wear mechanisms and patterns, vice versa – Investigation on the underlying physics for the tool performance ”