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As the title suggests: What is the relationship among the height-to-diameter ratio, carbon layer height, and gasification intensity of a gas stove after its diameter is increased?
Reply to 1# Yan Qiusheng: To achieve high-intensity production, it is necessary to improve the gasification efficiency. Therefore, it is necessary to increase the effective carbon layer and boost the heat storage capacity of the carbon layer, while simultaneously raising the height-to-diameter ratio of the gas furnace.
Why is there an option to set replies as visible? Why isn’t learning* supported?! ! !
Reply to 3#: We specialize in burners; there is no requirement to set hidden replies – it was the original poster on the second floor who set that up. Here is the response from the second floor: to achieve high-volume production, it is necessary to improve gasification efficiency. Therefore, it is necessary to increase the effective carbon layer and boost the heat storage capacity of the carbon layer, while simultaneously raising the height-to-diameter ratio of the gas furnace. &
As the height-to-diameter ratio increases, the gasification strength increases; as the carbon layer height increases, the gasification strength increases
In response to the comment on floor 5: Increasing the diameter of the gas generator furnace raises its height-to-diameter ratio, which in turn improves the furnace’s gas production capacity. However, this does not mean that the gasification intensity increases; to boost the gasification intensity, it is necessary to increase the blowing intensity, the steam pressure used for gas production, and the distribution of the cycle time (referring to fixed-bed gas generators). Only by reducing the blowing time required to raise the furnace temperature and increasing the effective gas production time can the gas production intensity be improved.
Study*study*. . . ,。 . . . Thanks for sharing