ANALYSIS OF REGRESSION MODELS OF STRENGTH AND PLASTIC PROPERTIES OF DEFORMATION-THERMALLY HARDENED REINFORCING PROFILE

M. Jaxymbetova, A. Akhmedyanov, I. Mazur
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Abstract

Numerous studies have shown that the processes of structure formation as aresult of the combined effect of plastic deformation and phase transformations onthe alloy are different from the formation of the structure during conventional heattreatment and provide a high set of mechanical properties that cannot be achievedby conventional methods of heat treatment or complex alloying.Сurrently, in the production of rod reinforcement for reinforced concretestructures, technologies of combined deformation and thermal hardening areincreasingly used. When hot rolling is combined with subsequent heat treatment,intensive and controlled cooling of hotly deformed austenite is performed directlyat the exit from the finishing stand of the rolling mill, which leads to a stronggrinding of the structure, and, consequently, provides high mechanical propertiesof the material than when cooling in air, as was the case at many existing rollingmills.Analytical review of the literature on the problem of combining hotdeformation with heat treatment shows that the efficiency of deformation and heattreatment depends on the temperature of rolling, the total degree of fragmentationand deformation, the degree of a single strain, time interval from the end of hotrolling to the beginning of accelerated cooling, duration of intensive coolingdefines the temperature smoothback, like the original steel (cast or rolled), andfinally, the chemical composition of the processed steel [1].
变形-热硬化增强型材强度与塑性性能回归模型分析
大量研究表明,合金在塑性变形和相变共同作用下的组织形成过程不同于常规热处理过程中组织的形成,并提供了常规热处理或复杂合金化方法无法实现的一套高机械性能。Сurrently,在钢筋混凝土结构棒材的生产中,越来越多地采用变形和热硬化相结合的技术。当热轧与随后的热处理相结合时,热变形奥氏体的强化和控制冷却直接在轧机的精加工架出口进行,这导致结构的强磨削,因此,比在空气中冷却时提供更高的材料机械性能,正如许多现有轧机的情况一样。对热变形与热处理相结合问题的文献分析回顾表明,变形和热处理的效率取决于轧制温度、破碎和变形的总程度、单一应变的程度、从控制结束到加速冷却开始的时间间隔、强化冷却的持续时间,这决定了温度的平滑,就像原始钢一样(铸造或轧制),最后,加工钢的化学成分[1]。
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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