玻璃窑炉再生器的一体化运行

Yu. A. Selikhov, K. Gorbunov
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摘要

本文所述材料涉及玻璃工业,即用于冷却玻璃熔窑蓄热器顶部的设备,可用于新建或改造现有的蓄热器。当工业玻璃熔窑的耐火材料被破坏时,熔池壁厚会急剧下降,导致熔池壁外表面温度显著升高,热损失随之增加。熔融盆壁耐火砌体的最大破坏发生在熔融玻璃的镜面水平处。沿着泳池的高度和周长有不均匀的磨损。砌体的破坏速度取决于所用耐火材料的稳定性、玻璃熔化的温度状态和单元的设计特征。本文的技术任务是:提高玻璃炉蓄热顶耐火砌体的使用寿命;利用蓄热屋顶外砌体表面的热量,对蓄热屋顶外表面进行水冷却,改进蓄热屋顶的冷却系统;节省锅炉设备加热等量冷却剂所消耗的燃料。拟议的屋顶外表面回热器的冷却可以:减少屋顶的外表面的温度水平的30°C,同时充分利用屋顶外表面回热器的热,没有被使用过,例如,获取热水供热系统,这使得它可以节省燃料成本,这是必要的操作锅炉设备加热相同数量的冷却剂;采用特殊设计的平板集热器,保证蓄热器顶板整个平面温度场分布更加均匀,从而减缓蓄热器顶板耐火衬里的破坏过程。安装在管道中的热电偶使得可以监测集热器中冷却剂温度的变化,并且在集热器表面温度升高的情况下,自动化增加了管道中冷却剂的流量。集热器设有压力阀,当集热器内冷却液温度高于100℃时,冷却液在集热器内沸腾,压力阀使集热器内压力均衡。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
INTEGRATION OF OPERATION OF REGENERATORS OF GLASS FURNACES
The material of the article relates to the glass industry, namely to equipment for cooling the roof of regenerators of glass melting furnaces and can be used in the construction of new or reconstruction of existing regenerators. When the refractories of industrial glass melting furnaces are destroyed, an intensive decrease in the wall thickness of the melting basin occurs, which leads to a significant increase in the temperature of the outer surface of the walls and, accordingly, an increase in heat losses. The maximum destruction of the refractory masonry of the walls of the melting basin is observed at the level of the mirror of the melted glass. There is uneven wear along the height and perimeter of the pool. The rate of destruction of the masonry is determined by the stability of the used refractories, the temperature regime of glass melting, and the design features of the units. The technical task of the article is: to increase the service life of the refractory masonry of the glass furnace regenerator roof; utilization of the heat of the outer masonry surface of the regenerator roof, as well as improvement of its cooling system by using water cooling of the outer surface of the regenerator roof; saving fuel consumed to heat the same amount of coolant in boiler equipment. The proposed cooling of the outer surface of the regenerator roof makes it possible to: reduce the temperature of the outer surface of the roof to the level of 30 °C and at the same time make the most of the heat of the outer surface of the regenerator roof, which has not been used before, for example, to obtain hot water from a heat supply system, and this makes it possible to save fuel costs, which are necessary for the operation of boiler equipment to heat the same amount of coolant; to ensure a more uniform distribution of temperature fields over the entire plane of the regenerator roof by using flat collectors of a special design, which, in turn, makes it possible to slow down the process of destruction of the refractory lining of the regenerator roof. The thermocouples installed in the pipelines make it possible to monitor the change in the temperature of the coolant in the collectors, and in the event of an increase in the surface temperature of the collectors, the automation increases the flow of the coolant in the pipelines. The collectors are equipped with pressure valves, when the temperature of the coolant in the collector is above 100 °C, it can boil in the collector and then the pressure valve equalizes the pressure in the collector.
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