Under different liquid viscosity co

在不同的液体粘度条件下，炉渣起泡的动态演化总是沿着局部起泡I→整体起泡→局部起泡II进行，同时随着表观气体速度的增加泡沫结构逐渐从球形泡沫转变为非球形泡沫。 。然而，它们在各种类型的炉渣发泡之间的临界表观气体速度降低了。<br>那有什么不同 比较动态演变，可以观察到伪衰减现象，尽管不断注入气体，但随着时间的推移，液位随时间下降，直至达到最大值。随着液体粘度的增加，“泡沫假衰变”现象由于初始时间的累积气泡数的增加和停留时间的延长而加剧。我认为，就像人口老龄化一样，在这种情况下，大多数泡沫即将破裂。<br>粘度的另一影响是对泡沫的结构。

在不同的液体粘度条件下，熔渣发泡的动态演化总是随着局部发泡II→局部发泡→局部发泡II而进一步演变，同时泡沫结构随着表面气速的增加，逐渐从球形泡沫转变为非球形泡沫。然而，它们在各类渣泡之间临界表面气体速度下降。<br>那么，有什么不同呢？与动态演化相比，观察到了伪衰变现象，导致随后的液位下降，尽管不断注入气体，但其最大值仍为最大值。随着液体粘度的增加，"泡沫伪衰变"现象随着居住时间延长而加剧，初始时期积累的气泡数量增加。在我看来，它就像人口老龄化，在这种情况下，大多数泡沫即将破裂。<br>粘度的另一个影响是泡沫的结构。

Under different liquid viscosity conditions, the dynamic evolution of slag foaming always evolved in turn along Partial Foaming I→Entire Foaming→Partial Foaming II, simultaneously the foam structure gradually transformed from the spherical foam to non-spherical foam with the increase of superficial gas velocity. However, their critical superficial gas velocity between the various types of slag foaming decreased.Then, What’s the different? Compared the dynamic evolution, the pseudo-decaying phenomenon was observed, resulting in a subsequent decline of the liquid level with time following its a maximum value despite injecting gas constantly. As the liquid viscosity increased, the "Foam pseudo-decay" phenomenon exacerbated due to escalating number of accumulated bubbles of initial period with the prolongation of residence time. In my view, it just like the aging population, at this situation Most bubbles are about to burst. Another effect of viscosity is on the structure of the foam.<br>