The Formula of Dependence of Mechanical Characteristics of Materials on Crystalline Phase Composition in the Matrix

Z. Kovziridze
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引用次数: 1

Abstract

Objective: For materials science and generally, for long-term operation of work-pieces in industry the significant role is attributed to dependence of macro-mechanical properties of consolidated body on crystalline phase composition, its dimensions, form, distribution in matrix and the form factor. While working in responsible fields of technology of ceramics and ceramic composites the above referred properties are attributed extremely great role with the view of durability and endurance at the terms of heavy mechanical loads. For description of the resistance of any concrete type work-piece, the crystalline phase plays the greatest role in mechanical strength or deformation of any material. It plays the important role in correlative explanation of materials mechanics and matrix properties. In our case, in the process of destruction of ceramic materials and composites, which will give us exhaustive response to the role of macro- and micro-mechanical properties of materials, the role of a macro- and micro-structural component, that is, of crystalline phase in the process of transition of stable state of materials into meta-stable state is extremely big. Our study aims to develop a formula of dependence of macro-mechanical properties of ceramic and ceramic composites on crystalline phase, the most powerful component of their structure, which will enable theorists and practitioners to select and develop technologies and technological processes correctly. Method: On the basis of the study of micro- and macro-mechanical properties of ceramics and ceramic composites and the morphology of crystalline phase and the analysis of the study we determined and created parameters of the formula. Results: The formula covers macro-mechanical properties, that is when the work-piece is thoroughly destructed: mechanic at bending at three and four-point load, mechanic at contraction; among morphological characteristics: composition of crystalline phase and their spreading in matrix, their sizes, form factor; correlative dependence of the above listed properties. Absolutely new definition of a factor of spreading of crystalline phase in matrix is offered. Conclusion: The created formula is of consolidated nature and it can be used in technology of any ceramic material and ceramic composites. The formula will help practitioners to plan correctly and fulfill accurately all positions of technology of production of work-pieces, to carry out the most responsible thermal treatment process of technology of manufacture of work-pieces; to determine correlation between mechanical and matrix properties of materials.
材料力学特性与基体中晶相组成的关系公式
目的:固结体的宏观力学性能对晶体相组成、尺寸、形状、在基体中的分布和形状因子的依赖,对材料科学和工业中工件的长期运行起着重要的作用。在陶瓷和陶瓷复合材料技术领域工作时,上述提到的性能在重型机械载荷下的耐久性和耐久性方面发挥了极其重要的作用。对于任何混凝土类型工件的抗力的描述,结晶相在任何材料的机械强度或变形中起着最大的作用。它在材料力学和基体性能的相关解释中起着重要作用。在我们的案例中,在陶瓷材料和复合材料的破坏过程中,这将给我们详尽的响应材料的宏观和微观力学性能的作用,宏观和微观结构成分,即晶体相在材料的稳定状态向亚稳定状态转变过程中的作用是非常大的。我们的研究旨在建立陶瓷和陶瓷复合材料宏观力学性能与其结构中最重要的组成部分结晶相的依赖关系公式,这将使理论家和实践者正确选择和开发技术和工艺过程。方法:在研究陶瓷及陶瓷复合材料微观和宏观力学性能及晶相形貌的基础上,通过对研究结果的分析,确定并制定了配方参数。结果:该公式涵盖了工件彻底破坏时的宏观力学性能:三点和四点载荷下的弯曲力学、收缩力学;形貌特征包括:晶相的组成及其在基体中的分布、尺寸、形状因子;上述属性的相关依赖关系。对基体中晶相扩散因子给出了全新的定义。结论:该配方具有固结性,可用于任何陶瓷材料和陶瓷复合材料的工艺。该公式有助于从业者正确规划和准确完成工件生产工艺的各个环节,实施最负责任的工件制造工艺热处理工艺;确定材料的力学性能和基体性能之间的相关性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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