搅拌强度

  • 网络agitation intensity
搅拌强度搅拌强度
  1. 综述了乳液聚合过程中搅拌强度对乳胶粒径、聚合反应速率、乳液稳定性的影响及搅拌器形式的影响。

    The influence of agitation intensity and agitator types on size of latex particle , polymerization rate , and latex stability during emulsion polymerization is reviewed .

  2. 影响丝状微生物形态的主要因素有搅拌强度、溶氧浓度和稀释率等。

    Meanwhile , some factors which influence on the morphology of filamentous microorganisms , such as agitation intensity , dissolved oxygen concentration and dilution rate , were also discussed here .

  3. 而复合材料中纳米SiC颗粒和纳米Al2O3颗粒含量随着搅拌强度的提高而提高。

    But the content of nano-sized SiC , Al2O3 particles in composites increased with the increasing agitating rate . 3 .

  4. SiO2溶胶的浓度、pH、温度、电解质、聚沉剂和搅拌强度是影响矿浆固液分离性能的主要因素。

    Colloidal SiO2 concentration , pH , temperature , electrolyte , precipitant and agitation condition are the main factors affecting separation performance .

  5. 存在一个搅拌强度值使微米SiC颗粒和微米Al2O3颗粒在复合材料中的含量达到最大。

    There existed an agitating rate , which obtained a maximum content of particle respectively for micro-sized SiC and Al2O3 particles in composites .

  6. 从种子浆液老化时间、种子浆液的pH值、制备种子浆液搅拌强度等方面,论述了种子的性质对超细氢氧化铝产品性能的影响;

    This article discusses the effect of the seed character on the ultra-fine aluminium hydroxide such as the aging time , pH value and the agitation rate in seed serosity preparation .

  7. 在合成高表观密度PVC树脂时,调节适当的搅拌强度、采用中途加料工艺、加入抗静电剂等措施,也可改善PVC树脂的颗粒特性,提高表观密度。

    To prepare high bulk PVC , other methods such as adjusting agitation , adding suspending agents in the process of polymerization and adding anti-static agent were used .

  8. XRD(X射线衍射分析)和SEM(扫描电镜分析)证实提高搅拌强度可以使银的结晶趋于无定型化,并使银结晶粒度减小。

    XRD in conjunction with SEM indicated that the silver crystallization is prone to amorphous and the grain size of silver is reduced when the intensity of stirring was improved .

  9. 此外,还分析了搅拌强度、加料方式、反应物浓度、陈化时间等因素对Ni(OH)2性能的影响。

    In addition , the agitation strength , the concentration of the raw material , the aging time , the charging method of raw material and some other factors were also studied .

  10. 考察了浸出温度、浸出剂的初始浓度、中浸渣初始粒度、搅拌强度及金属离子浓度对Zn浸出速率的影响。

    The effects of reaction temperature , concentration of reagents , the size of residue granule , agitation rate and concentration of metal ions on the leaching process were studied .

  11. 试验中确定了混凝气浮工艺的各种最佳参数,包括:混凝剂种类、剂量、pH、处理时间、搅拌强度、气压以及回流比。

    Various kinds of best parameters of air flotation is found , including : coagulant kind , dosage , pH , deal with time of , mixing intensity , atmospheric pressure and backset current than .

  12. 对于通常的AlSi类合金的半固态加工坯料,在足够的搅拌强度下,熔体冷却速度控制在0.5~3.0℃/s可得到较好的组织。

    In the production of semi solid billets of conventional Al Si alloys , suitable microstructure can be obtained under enough stirring intensity when the cooling rate is controlled within 0.5 ~ 3.0 ℃ / s.

  13. 采用电沉积法制备出TiO2/Ni纳米复合涂层,考察了搅拌强度对TiO2质量分数的影响,分析了复合涂层的抗高温氧化性能和摩擦学性能。

    TiO_2 / Ni nano-composite coatings were electrodeposited successfully . The effects of the stirring speed on TiO_2 content of the coatings were studied . The high temperature oxidation resistance and tribological properties of the coatings were analyzed .

  14. 通过控制结晶法,在一定的搅拌强度、一定的Co2+浓度、一定的pH值和惰性气体保护的条件下合成出高纯度和高结晶度的β-Co(OH)2的片晶细粉。

    Form cobalt hydroxides were synthesized through a controlled crystallization process under the certain mixing intensity , Co 2 + concentration , pH value and the protect of the inert gas and the products was fine platelet powder with high purity and high crystallinity .

  15. 方法采用羧甲基壳聚糖对活性红染料溶液和毛巾厂的印染废水进行混凝处理,通过研究pH值、投加量、沉降时间和搅拌强度对脱色效果的影响,确定适宜的操作条件;

    This study is devoted to the effects of pH , amount of addition , mixing time and setting time on the decolorization of the effluent by using carboxymethyl chitin to coagulate the reactive red dye solution and the printing and dyeing wastewater from printing and dyeing mills .

  16. 指出了PVC生产中应用分散剂时的一般规律,并探讨了不同搅拌强度、转化率和充N2压力下分散剂的不同应用对聚合体系的作用情况。

    General rules for the application of dispersant agent in the production of PVC resin are indicated , and the application effect of the dispersant agent on polymerization system under different agitation strength , conversion and N 2 pressure are discussed .

  17. 实验中采用正交试验分析研究进水时间与反应时间比值(Tf/Tr)、搅拌强度、间歇搅拌方式三种工艺条件对COD去除效率的影响程度,并对三种工艺条件进行了优化研究。

    Three fundamental technological factors affecting anaerobic pretreatment of coking wastewater in the ASBR , such as the ratio of fill time and reaction time ( Tf / Tr ), the strength of mixing and the pattern of the intermittent mixing were evaluated through the orthogonal test .

  18. 具体研究了温度、搅拌强度、结晶母液初始浓度、氨水流加速率等操作条件对酸性条件下7-ADCA聚结的影响。

    The effect of operation conditions , for instance temperature , agitation speed , concentration of solution , adding rate of ammonia , on agglomeration were studied .

  19. 转炉熔池搅拌强度的模拟条件分析

    Analysis of the Simulated Condition for Converter Bath Stirring Strength Test

  20. 顶吹转炉熔池搅拌强度的模型实验研究

    Modelling Experimental Investigation of Bath Stirring Strength in Top-blown Converter

  21. 搅拌强度对白炭黑结构的影响

    Effect of stirring intensity on the structure of white carbon

  22. 锰浆脱硫中搅拌强度对脱硫反应影响研究

    Influence of Agitation Rate on Desulfuration Reaction of Pyrolusite Pulp

  23. 搅拌强度对石灰石溶解活性的影响不明显。

    Agitation has little influence on the limestone dissolution .

  24. 电磁搅拌强度的增加对去除钢水中的氧化物夹杂有利。

    More oxide inclusions are removed when the intensity of M-EMS is increased .

  25. 搅拌强度主要是影响到聚合过程的凝胶率。

    The stirring intensity mainly influences the coagulum content of the polymerization process .

  26. 并通过四因素的正交试验法找出了最佳混凝搅拌强度、混凝沉淀时间。

    The optimal stirring speed and settlement time are confirmed by four-factor orthogonal tests .

  27. 气&液分散搅拌强度探讨

    Explore the Agitation Intensity of Vapor-Liquid Dispersion

  28. 同时搅拌强度的增加在一定范围内可以有效降低煤浆的黏度。

    Increasing the stirring strength in the preparation can also reduce the viscosity to a degree .

  29. 硫酸钙结晶形态研究及湿法磷酸生产中搅拌强度对硫酸钙晶形的影响

    Study on crystal shape of calcium sulfate and the effect of stirring intensity in WPA production

  30. 搅拌强度提高,堆积密度和平均粒径增大。

    When the stirring strength is enhanced , the tap density and the average particle size increase .