The nickel electrolyte of low concentration cobalt and solution of richness cobalt can be obtained by purifying nickel electrolyte by solvent extraction with P507.
采用P 507溶剂萃取深度净化镍电解液，得到符合镍电解工艺要求的低钴电解液和富钴溶液。
The measured results revealed the various adsorption behaviors of cation and anion exchange membranes, and showed membrane area resistance dependence upon electrolyte solution concentration.
在此基础上揭示阳离子交换膜、阴离子交换膜对离子的不同吸附特性，以及膜面电阻对电解质溶液浓度依存特性。
Based on the electrochemical theory and the theory of adsorption in electrolyte solution, a dynamic model is established, which contains the electrolyte concentration, applied voltage and temperature.
基于电化学理论和电解质溶液中的吸附理论，建立了包含电解液浓度、氧化电压和温度在内的实验参数动力学模型。
The effect of concentration of electrolyte in desorbing solution on phosphate desorption was related to the medium pH and the PZC value of solid phase.
电解质浓度影响吸附态磷的解吸主要与表面电位的变化有关。
Moreover, the dynamic adsorption behavior of H2D was related to the aging time, solution concentration, electric of H2D, the type and concentration of electrolyte, and temperature.
H2D分子在表面的动态吸附行为与平衡时间、溶液浓度、H2D分子自身的电性、电解质浓度和种类以及温度有关。
When an electrolyte solution flowing through between the first electrode and the second electrode has concentration changes, the color of the electrochromic material correspondingly changes.
当流经该第一电极与该第二电极之间的电解质溶液的浓度变化时，则该电致变色材料的颜色随之变化。
When an electrolyte solution flowing through between the first electrode and the second electrode has concentration changes, the color of the electrochromic material correspondingly changes.
当流经该第一电极与该第二电极之间的电解质溶液的浓度变化时，则该电致变色材料的颜色随之变化。
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