International Journal of Machine Tools and Manufacture
Cutting tool fracture prediction and strength evaluation by stress identification, part i: Stress model
References (17)
Brittle fracture of cutting tools
Annals of the CIRP
(1989)- et al.
The optimal cutting conditions as a function of probability distribution function of the tool life and experimental test number
International Journal of Machine Tools Manufacture
(1988) - et al.
Tool fracture probability under steady state cutting condition
Journal of Engineering for Industry
(1984) Interrupted cutting with brittle tools
Definition and measurement of strength and toughness behaviour of carbides
Disturbances in cutting process caused by edge deterioration
- et al.
Chipping and breakage of carbide tools
Journal of Engineering for Industry
(1978) Analytical prediction of entry-chipping in interrupted turning operation
Cited by (22)
Meso-scale tool breakage prediction based on finite element stress analysis for shoulder milling of hardened steel
2020, Journal of Manufacturing ProcessesCitation Excerpt :The model was not able to predict the stress distribution in the regions close to the tool tip due to the uniformly distributed loads. One of the early studies by Zhou et al. [12] presented a method for identification of the maximum principal stress and maximum effective stress subjected to a cutting tool in turning processes. An FEM model was developed with varying distributed load based on Zorev’s work [13] applied to the rake and flank faces of the turning insert.
Finite Element Analysis of Cutting Forces Generated in Turning Process using Deform 3D Software
2017, Materials Today: ProceedingsDevelopment of cutting edge geometries for hard milling operations
2015, CIRP Journal of Manufacturing Science and TechnologyCitation Excerpt :Thus, tool failure appears if the first principal stress exceeds the tensile strength of the tool substrate. This was also demonstrated by Zhou et al. [14]. Accordingly, optimized chamfer geometry leads to reduced minimal principle stresses in the wedge, which favours tool life time.
An investigation of cutting forces in machining with worn ball-end mill
2009, Journal of Materials Processing TechnologyTemperature, stress and microstructure in 10Ni5CrMoV steel plate during air-arc cutting process
2007, Computational Materials ScienceCitation Excerpt :During the air–arc cutting process, not only the material removal (e.g., in numerical control (NC) cutting process) but also the intense thermal effect (e.g., in the welding process) is occurred. During the NC cutting process, re-establishment of stress equilibrium within the remaining parts of the structure causes some distortion due to the relief of the residual stresses in the removed parts [2–4]; while during the welding processes, the steep temperature gradients present in the area under the electric arc beam, along with the great changes of the mechanical properties and microstructures, non-homogeneous permanent strains and residual stresses are yielded in this area after the process. However, the air–arc cutting process may be more different and complex than both NC cutting process and welding process.
Effect of chamfer angle on wear of PCBN cutting tool
2003, International Journal of Machine Tools and Manufacture