Optimization of cutting temperature in machining of titanium alloy using Response Surface Method, Genetic Algorithm and Taguchi method

Cutting mechanics and efficiency of forward and reverse multidirectional turning

“…Relative higher cutting temperatures produced thermal softening effects, making the tool more susceptible to wear or breakage [23]. By considering the problems associated with high cutting temperature and high bonding at the tool working interface for titanium alloy machining, the optimal parameters for the best cutting conditions were obtained [24]. The cutting temperatures of turning super duplex stainless steel (SDSS) under dry cutting, wet cutting and air-cooled cutting conditions were investigated, and it was concluded that air-cooled machining has better cutting performance [25].…”

Effect of initial microstructure on phase transformation and mechanical properties of Ti–3Al–5Mo–4Cr–2Zr–1Fe alloy

“…This complexity arises due to the competition between various microstructural features and their cumulative effect on fracture toughness and tensile properties. Kadam et al [29] employed Taguchi method to quantify the relative effects of β grain size and solid solution aging process parameters on the mechanical properties of the alloy. Fan et al [30] conducted fracture toughness tests on Ti-7333 alloy at room temperature to understand the fracture mechanism.…”