Statistical Model of The Postcombustion Subprocess in an Oven of Multiple Hearth Furnace

Deynier Montero Góngora
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Abstract

were achieved through experimental identification, for mean square fit values between 0.72 and 6.1. Also defined as input variables: the air flow to hearths four and six, and as output variables: the temperature corresponding to these hearths. Montero [4], obtained dynamic mathematical models, with adjustment between 62 and 72%, which characterize the reduction furnaces of the company in question; where they were selected as input variables: the flow of ore fed to the furnace; Air flow to hearths four and six. As output variables: temperature of these hearths and concentration of residual carbon monoxide. To design an effective control strategy for the post-combustion subprocess, it is necessary to know the behavior of the variables in different situations and to obtain a process model. The objective of the work is to obtain a statistical model that represents the behavior of the post-combustion thread. Abstract Complex multivariable processes are generated in multi-hearth furnaces, and their modeling contains a high index of uncertainty. The main variables that characterize the post-combustion subprocess were identified and data were taken that comprise a period of three months of operation of the installation, to which a regression analysis was carried out step by step backwards. This analysis allowed us to determine that the linear correlation coefficient for hearth temperature four was 0.79 and 0.65 for hearth temperature six, in addition to identifying the independent variables that most influence these process output variables.
多底炉炉内燃烧后子过程的统计模型
均通过实验鉴定得到,拟合值均在0.72 ~ 6.1之间。也定义为输入变量:4号炉和6号炉的气流,输出变量:与这些炉相对应的温度。Montero[4]获得了动态数学模型,调整范围在62 - 72%之间,描述了该公司还原炉的特征;其中它们被选为输入变量:喂入熔炉的矿石流量;空气流向4号和6号壁炉。作为输出变量:这些炉膛的温度和残余一氧化碳的浓度。为了设计有效的燃烧后子过程控制策略,需要了解各变量在不同情况下的行为,并建立过程模型。这项工作的目的是获得一个统计模型,代表燃烧后螺纹的行为。摘要在多炉底炉中产生复杂的多变量过程,其建模具有很高的不确定性。确定了表征燃烧后子过程的主要变量,并收集了包括装置运行三个月的数据,对这些数据进行了一步一步的回归分析。该分析使我们能够确定,除了确定最影响这些过程输出变量的自变量外,炉膛温度4的线性相关系数为0.79,炉膛温度6的线性相关系数为0.65。
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