{"title":"玻璃炉温度场的研究","authors":"A. Zhuchenko, Oleksii Sytnikov","doi":"10.20535/2617-9741.2.2022.260343","DOIUrl":null,"url":null,"abstract":"The pricing policy of the fuel and energy market is constantly growing. The urgency of research is to adjust the optimization of fuel consumption in the glass furnace to obtain the maximum economic effect of production. \nUsing the developed mathematical model of the glass furnace, the analysis was carried out: temperature modes of the furnace, temperature fields of glass and masonry. The temperature distribution in the sections of the glass furnace is performed by means of simulation modeling. \nThe object of research consists of glass mass, gas space, masonry and divided into conditional sections (zones), according to the installation of temperature measuring instruments. In cross sections, the main ones are those that correspond to the position of the burners. In sections on the layers of glass mass, the starting point of the measurement is the surface of the glass mass, and the final bottom of the furnace. The longitudinal sections show the melting behavior of the charge pieces to the state of homogeneity - the transition of glass mass from the loading point of the charge to full melting. The dynamics of glass mass temperature change in the depth of the glass mass layer is the heating curve, the lower the layer considered - the lower the temperature due to the distance from the burners, but within one layer the temperature increases the closer the section to the point. Glass furnace refers to reversible - switching burners to the left or right group. Accordingly, the reverse switching takes place according to a given algorithm, which consists in adjusting the operating time of the group of burners depending on the temperature of the glass mass. The temperature distribution in the glass mass according to the temperature field at a depth of 0.1 m from the upper level of the glass mass is lower by 5-6% from the data of technological regulations. To do this, increased fuel consumption on the burners of the left group, made it possible to optimize fuel consumption. The study of the temperature field of the vault masonry made it possible to avoid problems with overheating and possible collapse of the masonry. Heating of the masonry within the permissible limits from a temperature of 10000C at the edges of the vault and 13800C in the central zone. The cross-section shows the loading channel of the charge, which borders the gas space, so the charge at the entrance to the cooking zone of the furnace receives additional heating and reduces fuel consumption in the first zone for heating the charge. The temperature distribution in the surface layer of the glass mass contains inhomogeneity in the first zone, to achieve uniformity increases fuel consumption on the first pair of burners, which optimizes the consumption of other pairs of burners and prevents excessive gas consumption. The overlap of two thirds of the corresponding plane when leaving the burner of the first section is increased from the required by 5%. In the second section, due to underheating of the selected plane, the value of fuel consumption increased by 12%. The temperature distribution is the lowest in the loading zone, the highest - after the third zone to the fifth (in the cave point). If the composition of the charge is changed (the action of uncontrolled perturbation), and the gas flow through the burners remains unchanged, it is impossible to achieve the value of temperature fields in accordance with the technological regulations. \nA scientific novelty is the study of cross-sections of glass mass in different planes, made it possible to analyze the temperature fields of glass mass at points where it is technologically impossible to organize measurements.","PeriodicalId":20682,"journal":{"name":"Proceedings of the NTUU “Igor Sikorsky KPI”. Series: Chemical engineering, ecology and resource saving","volume":null,"pages":null},"PeriodicalIF":0.0000,"publicationDate":"2022-06-30","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Investigation of temperature fields of a glass furnace\",\"authors\":\"A. 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引用次数: 0

摘要

燃料和能源市场定价政策不断完善。研究的当务之急是调整优化玻璃炉的燃料消耗,以获得最大的生产经济效果。利用建立的玻璃窑炉数学模型,对窑炉的温度模式、玻璃和砌体的温度场进行了分析。采用仿真建模的方法,对玻璃炉各截面的温度分布进行了分析。研究对象由玻璃质量、气体空间、砌体组成,并根据温度测量仪器的安装情况划分为条件截面(区)。在横截面上,主要的是那些与燃烧器位置相对应的。在玻璃质量层的截面上,测量的起点是玻璃质量的表面,最后是炉底。纵剖面显示了装药块向均匀状态的熔化行为——玻璃质量从装药点到完全熔化的转变。玻璃质量层深度的玻璃质量温度变化的动态是加热曲线,考虑的层越低-由于与燃烧器的距离,温度越低,但在一层内,温度越接近该点。玻璃炉是指可逆开关燃烧器向左或向右组。因此,根据给定的算法进行反向切换,该算法包括根据玻璃质量的温度调整一组燃烧器的操作时间。根据工艺规程数据,在距离玻璃质量上层0.1 m深度处的温度场,玻璃质量中的温度分布降低了5-6%。为了做到这一点,增加了左组燃烧器的燃油消耗,使得优化燃油消耗成为可能。通过对拱顶砌体温度场的研究,可以避免拱顶砌体过热和倒塌的问题。在允许范围内对砖石进行加热,拱顶边缘温度为10000C,中央区域温度为13800C。横截面显示了炉料的装载通道,该通道与气体空间接壤,因此炉膛烹饪区入口的炉料得到额外的加热,并减少了第一区域用于加热炉料的燃料消耗。玻璃质量面层的温度分布在第一区域含有不均匀性,为了达到均匀性,增加了第一对燃烧器的燃料消耗,从而优化了其他对燃烧器的消耗,防止了过度的燃气消耗。离开第一段燃烧器时对应平面三分之二的重叠比要求增加5%。在第二段中,由于所选飞机的过热,油耗值增加了12%。温度分布在加载区最低,在第三区至第五区(洞穴点)之后最高。如果改变了装药的组成(不受控制的摄动的作用),而通过燃烧器的气体流量保持不变,则不可能达到符合工艺规定的温度场值。科学上的一个新奇之处是对玻璃质量在不同平面上的横截面的研究,这使得在技术上不可能组织测量的点上分析玻璃质量的温度场成为可能。
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Investigation of temperature fields of a glass furnace
The pricing policy of the fuel and energy market is constantly growing. The urgency of research is to adjust the optimization of fuel consumption in the glass furnace to obtain the maximum economic effect of production. Using the developed mathematical model of the glass furnace, the analysis was carried out: temperature modes of the furnace, temperature fields of glass and masonry. The temperature distribution in the sections of the glass furnace is performed by means of simulation modeling. The object of research consists of glass mass, gas space, masonry and divided into conditional sections (zones), according to the installation of temperature measuring instruments. In cross sections, the main ones are those that correspond to the position of the burners. In sections on the layers of glass mass, the starting point of the measurement is the surface of the glass mass, and the final bottom of the furnace. The longitudinal sections show the melting behavior of the charge pieces to the state of homogeneity - the transition of glass mass from the loading point of the charge to full melting. The dynamics of glass mass temperature change in the depth of the glass mass layer is the heating curve, the lower the layer considered - the lower the temperature due to the distance from the burners, but within one layer the temperature increases the closer the section to the point. Glass furnace refers to reversible - switching burners to the left or right group. Accordingly, the reverse switching takes place according to a given algorithm, which consists in adjusting the operating time of the group of burners depending on the temperature of the glass mass. The temperature distribution in the glass mass according to the temperature field at a depth of 0.1 m from the upper level of the glass mass is lower by 5-6% from the data of technological regulations. To do this, increased fuel consumption on the burners of the left group, made it possible to optimize fuel consumption. The study of the temperature field of the vault masonry made it possible to avoid problems with overheating and possible collapse of the masonry. Heating of the masonry within the permissible limits from a temperature of 10000C at the edges of the vault and 13800C in the central zone. The cross-section shows the loading channel of the charge, which borders the gas space, so the charge at the entrance to the cooking zone of the furnace receives additional heating and reduces fuel consumption in the first zone for heating the charge. The temperature distribution in the surface layer of the glass mass contains inhomogeneity in the first zone, to achieve uniformity increases fuel consumption on the first pair of burners, which optimizes the consumption of other pairs of burners and prevents excessive gas consumption. The overlap of two thirds of the corresponding plane when leaving the burner of the first section is increased from the required by 5%. In the second section, due to underheating of the selected plane, the value of fuel consumption increased by 12%. The temperature distribution is the lowest in the loading zone, the highest - after the third zone to the fifth (in the cave point). If the composition of the charge is changed (the action of uncontrolled perturbation), and the gas flow through the burners remains unchanged, it is impossible to achieve the value of temperature fields in accordance with the technological regulations. A scientific novelty is the study of cross-sections of glass mass in different planes, made it possible to analyze the temperature fields of glass mass at points where it is technologically impossible to organize measurements.
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