Structural and Mechanical Properties of TiN-TiC-TiO System:First Principle Study

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理论物理通讯 ›› 2017, Vol. 68 ›› Issue (05) : 678-686.

Ali Reza Farhadizadeh¹, Ahmad Ali Amadeh¹, Hamidreza Ghomi²

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Structural and Mechanical Properties of TiN-TiC-TiO System:First Principle Study

Ali Reza Farhadizadeh¹, Ahmad Ali Amadeh¹, Hamidreza Ghomi²

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摘要

Mechanical and structural properties of ternary system of TiN-TiO-TiC are investigated using first principle methods. 70 different compositions of Ti₁₀₀(NOC)₁₀₀ with cubic structure are examined in order to illustrate the trend of properties variations. The geometry of compounds is optimized, and then, their chemical stability is assessed. Afterward, shear, bulk and young moduli, Cauchy pressure, Zener ratio, hardness and H³/E² ratio are computed based on elastic constants. Graphical ternary diagram is used to represent the trend of such properties when the content of nitrogen, oxygen and carbon varies. The results show that incorporation of oxygen into the system decreases the hardness and H³/E² ratio while subsequently ductility increases due to positive Cauchy pressure. It is revealed that the maximum H³/E² ratio occurs when both nitrogen and carbon with a little amount of oxygen are incorporated. Ti₁₀₀N₃₀C₇₀ owns the highest hardness and H³/E² ratio equal to 39.5 and 0.2 GPa, respectively. In addition, the G/B of this compound, which is about 0.9, shows it is brittle. It is also observed that the solid solutions have better mechanical properties with respect to titanium nitride and titanium carbide. The obtained results could be used to enhance monolayer coatings as well as to design multilayers with specific mechanical properties.

Abstract

导出引用

Ali Reza Farhadizadeh, Ahmad Ali Amadeh, Hamidreza Ghomi. Structural and Mechanical Properties of TiN-TiC-TiO System:First Principle Study[J]. 理论物理通讯, 2017, 68(05): 678-686

Ali Reza Farhadizadeh, Ahmad Ali Amadeh, Hamidreza Ghomi. Structural and Mechanical Properties of TiN-TiC-TiO System:First Principle Study[J]. Communications in Theoretical Physics, 2017, 68(05): 678-686

中图分类号： 62.20.Dc 62.20.-x 17.15.Mb

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基金

The authors would like to acknowledge the financial support of University of Tehran Science and Technology Park for this research under Grant No. 94061