2.3. Hlajenje kupolke Tehnološka sh

2.3。冷却冲天<br><br>方案冷却冲天号 AS2 03CUP第三万五千九百五十七<br><br>冲天炉被简化所述水冷气缸具有两个同心壁，冷却水排出多余的热量（约2.5 MW），并保护内壁防止过热之间。水进入炉，其中的最高温度，并在上端排出的底部。在冲天炉的内部处于支气管1500的区域中的温度 - 1700 st.C. 此温度取决于添加的氧和podpiha的量和类型的焦炭。因此，冲天炉的内壁是与温度应力非常载货。它遵循了伤害冲天的钢壁和冷却水进入kupolko的进入一个持续的风险。因此，有必要为特别细心和炉的操作过程中，以避免任何冷却水不足的。<br>每个炉子被清除时，有必要检查冲天炉的内壁的状况。

Andreas Vesalius, born on 31 December 1514 to a medical family in Brussels. His great-grandfather, grandfather and father were all court doctors, and his family had a large collection of books on medicine. Visari loved to read these books as a child, from which he was inspired by many and set out his ambition to be a doctor. He taught at the University of Padua in Italy, proficient in the works of the ancient Roman medical scientist Guerron, but he was not bound by book knowledge, think that it is necessary to personally dissect and observe the human body structure, created a rare theoretical link to the actual vivid teaching situation, by the students respect and love. Visari's main contribution was the publication of Human Tectonics in 1543, which summed up the achievements of anatomy at the time, and Copernicus's The theory of celestial operation was published the same year. Like Nicola Copernicus, Visari was persecuted by the Church in defence of scientific truth. But the anatomy he established opened the way for the discovery of blood circulation and became a monument to his memory.

2.3条。穹顶冷却<br>穹顶冷却技术方案编号：AS2 03CUP 35957。<br>圆顶是一个简化的水冷圆柱体，有两个同心的壁，两个壁之间流动的冷却水排出多余的热量（约2.5兆瓦），并保护内壁不受热。水进入炉子的下部，那里也有最高的温度，然后从上部流出。圆顶内部是1500-1700个圣C.通风口上方区域的温度。该温度取决于添加的氧气量、填充物和焦炭类型。因此，圆顶的内壁充满了温度张力。这会导致圆顶的钢壁不断受损，冷却水进入圆顶。因此，在窑运行过程中应特别注意避免冷却水的短缺。<br>每次炉子坏了，都要控制圆顶的内壁。<br>