Abstract
The microhardness and yield strength decrease with grain size increasing for wide range of the 0,2 HfN + 0,8 ZrN coated materials (K40, Sandvik Koromant, MS221) was disclosed. Two-layer Al2O3 + (0,2 HfN + 0,8 ZrN) coated Sandvik Koromant plate microhardness changes slightly (due to the fact that almost always nanostructures implemented) with the grain growth 33,7…63,8 nm, Hμ = 16.08…17.14 GPa. It is proved that modulus of elasticity increases with the grain size growth. It is shown that at the effectiveness and efficiency assessing of the coated hard alloys at the K19195 hardened materials and G10450 steel processing it is necessary to take into account the coating grain size at that to the smaller grain size is generally (but not always) corresponds to more effective processing (the maximum removable material volume for the durability period) and its working capacity. It is established that using 0.18 HfN + 0.82 ZrN coated Sandvik Koromant company solid alloy, MS221 and K40 for G10450 steel effective processing is effective and operable. It is shown that effective processing for 45 steel it is recommended to use hard alloy of the Sandvik Koromant company with 0.18 HfN + 0,82 ZrN coating and MS221hard alloy, which is both effective and serviceable. It was found that 0.18 HfN + 0.82 ZrN coated K40 hard alloy and MS221 plate with the same coating have greater efficiency for the K19195 hardened steel processing.
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Kostyuk, G. (2019). Prediction of the Microhardness Characteristics, the Removable Material Volume for the Durability Period, Cutting Tools Durability and Processing Productivity Depending on the Grain Size of the Coating or Cutting Tool Base Material. In: Gapiński, B., Szostak, M., Ivanov, V. (eds) Advances in Manufacturing II. MANUFACTURING 2019. Lecture Notes in Mechanical Engineering. Springer, Cham. https://doi.org/10.1007/978-3-030-16943-5_27
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