The structure and technique feature of cyclonic-static micro bubble flotation column are described.
介绍了旋流-静态微泡浮选柱的结构与技术特点。
The micro bubble generator not only has simple structure, but also can effectively prevent the blockage of the micropores.
不仅结构简单，还能有效防止微孔的堵塞。
Objective to observe the bio-effects on VEC-304 treated with low-frequency ultrasound and micro bubble agent, and to offer the clinic application theory basis of ultrasound.
目的：研究低频超声联合微泡剂对血管内皮细胞VEC- 304的作用，为超声治疗的临床应用提供实验依据。
Cyclonic static micro bubble flotation column was used in the test on two Henan molybdenum ores of different types, and good separation performances were achieved in both cases.
使用旋流-静态微泡浮选柱对河南两种不同类型的的钼矿石进行了试验，均取得了满意的分选指标。
Meanwhile, the ultrasonic radiation force method is used to get the higher adhering efficiency for the targeted micro-bubble contrast agent, which will improve the imaging quality.
同时采用超声辐射力法以增加靶向性微泡造影剂在血管壁上的黏附效率，改善成像的性能。
The industrial application of cyclonic static micro-bubble flotation column in the cationic reverse flotation of magnetite ore is its first successful case for the reverse flotation of iron ore.
旋流-静态微泡浮选柱在磁铁矿阳离子反浮选中的工业应用，是国内首次将浮选柱成功应用于铁矿反浮选。
Targeted micro-bubble contrast agent can reach a specific target via intravenous injection, and improve the resolution of local tissues under the action of low power ultrasound imaging.
其中靶向微泡对比剂经静脉注射可到达特定靶区，低功率超声作用下可提高局部组织显影的分辨率。
Therefore, the flotation tests were carried out by adopting the flotation machine and the cyclonic-static micro-bubble flotation column separately.
为此，分别采用浮选机和旋流-静态微泡浮选柱对该矿泥进行了单独浮选试验。
The flow field surrounding the revolving object, pressure and resistance distribution on its wall were calculated in order to design a micro-bubble reducing resistance scheme for the revolving object.
通过数值计算方法，模拟回转体在水下的航行，分析回转体周围流场、压强及其壁面上阻力的分布，并根据计算结果为该回转体设计了有效的微气泡减阻方案。
The flow field surrounding the revolving object, pressure and resistance distribution on its wall were calculated in order to design a micro-bubble reducing resistance scheme for the revolving object.
通过数值计算方法，模拟回转体在水下的航行，分析回转体周围流场、压强及其壁面上阻力的分布，并根据计算结果为该回转体设计了有效的微气泡减阻方案。
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