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首页> 外文期刊>Journal of Achievements in Materials and Manufacturing Engineering >Situational model of technological operations for secondary metallurgy
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Situational model of technological operations for secondary metallurgy

机译:二次冶金技术运营的情境模型

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摘要

Purpose: The aim of this study was development of a computer situational model of heat and power processes and transport operations for secondary steelmaking (SSM) to evaluate the effectiveness of the proposed SSM energy regimes and minimization the consumption of energy resources.Design/methodology/approach: For the solution of the tasks were used next methods: analytical and statistical methods of mathematical modeling; method of dynamic programming for the development of technological recommendations for energy modes on LF; Harel state charts to evaluate the effectiveness of the applied models.Findings: In order to provide rational energy regimes for SSM, it is necessary to introduce a new controlled parameter - the optimum time to start heating the melt at the ladle furnace unit (LF), which is determined by solving the dynamic programming task. The melt heating start time must be selected in such a way as to ensure that all the necessary technological operations are performed during metal processing in the LF, taking into account schedule constraints, and that the heating of the metal must be carried out with the maximum energy efficiency.Research limitations/implications: The main objective of the present study was to apply the mathematical modeling methods to ensure rational energy regimes of SSM.Practical implications: The developed situational model of technological operations for SSM will allow finding reserves to increase the productivity and quality of the process, and to evaluate the effectiveness of new technological solutions.Originality/value: To ensure an energy-efficient treatment of steel in LF, it is necessary: the time for starting the heating of the metal is chosen such that the energy efficiency of the LF, which depends on the thickness of the slag layer, is maximum at each stage; increase the power that is supplied to the heating of the melt by switching the voltage taps of the transformer as the thickness of the slag cover increases.
机译:目的:本研究的目的是开发一种电脑情境模型的热电和电力工艺和二级炼金的运输操作,以评估所提出的SSM能源制度的有效性,并最大限度地减少能源资源的消费.Design/Methodology/方法:用于解决任务的解决方案下一个方法:数学建模的分析和统计方法; LF能源模式技术推荐动态规划方法; Harel状态图以评估所应用的模型的有效性.Findings:为了为SSM提供合理的能源制度,有必要引入新的受控参数 - 开始在钢包炉单元(LF)上加热熔体的最佳时间,通过解决动态编程任务来确定。必须以这种方式选择熔融加热开始时间,以确保在LF中的金属加工期间进行所有必要的技术操作,考虑到调度约束,并且必须使用最大值进行金属的加热能量效率。研究限制/影响:本研究的主要目的是应用数学建模方法,以确保SSM的理性能源制度。实践意义:SSM的技术运营的发达情境模型将允许找到储备来提高生产率和过程的质量,并评估新技术解决方案的有效性。人类/价值:为了确保LF中的钢的节能处理,是必要的:选择开始加热金属的时间,使得LF的能量效率取决于渣层的厚度,在每个阶段最大;随着炉渣盖的厚度增加,通过切换变压器的电压水龙头来增加供应到熔体加热的功率。

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