1) cationic humite micro-particle
阳离子硅镁石微粒
1.
The results showed that the cationic humite micro-particle had high cationic Zeta potential and nanometer diameter.
研究阳离子硅镁石微粒的性能及其助留效果。
2) cationic microparticle
阳离子微粒
1.
The studied advances of the novel cationic microparticle retention sys tems were introduced in the paper.
介绍了新型阳离子微粒助留体系的研究情况,着重介绍了几种无机阳离子微粒和有机阳离子微粒的特点、作用机理及其与阴离子聚合物的复配情况。
2.
Layered double hydroxides consisting of layers with cationic charges may be the potential candidates of cationic microparticlesforming retention aid system with anionic polyacrylamide.
混合二元金属氢氧化物是自然界中唯一带有正电荷的粘土矿物,可望与阴离子聚丙烯酸胺组成阳离子微粒助留体系。
3.
This paper deals with the latest research in microparticle retention systems, focusing on the development in the complex system ofcationic microparticle and anionic polymer as well as the silicon ultramicrochemical technique.
论述了近两年来微粒助留体系的最新研究动态和研究成果,如阳离子微粒与阴离子聚合物复配的微粒助留系统、超微硅化学技术等。
3) titanochondrodite
粒硅镁石
4) cationic polymeric microparticles
阳离子有机微粒
1.
The application as retention and drainage aids on bleached hardwood pulp, bleached wheat straw pulp and deinked wastepaper pulp were studied with a novel cationic polymeric microparticles(CPMP) prepared in lab.
探讨了自制的阳离子有机微粒(CPMP)对漂白阔叶木浆、漂白麦草浆和脱墨废纸浆助留助滤作用的影响。
2.
A novel cationic polymeric microparticles (CPMP) was prepared, the application of which as retention and drainage aids wasstudied and compared with CPAM and APAM.
探讨了采用苯乙烯、DADMAC等为原料制备新型结构的阳离子微粒的合成条件,研究了自制的阳离子有机微粒CPMP的特性及其对漂白阔叶木浆助留助滤的作用,并与阴离子聚丙烯酰胺(APAM)、阳离子聚丙烯酰胺(CPAM)进行了比较。
5) chondsodite
粒状硅镁石
6) cationic microparticulate retention system
阳离子微粒助留体系
1.
The research progress of the cationic microparticulate retention systems was reviewed in this paper.
介绍了近年来阳离子微粒助留体系的研究进展。
补充资料：阳离子-阳离子干扰
分子式：
CAS号：
性质：火焰原子吸收光谱分析中，伴生阳离子对待测阳离子测定中信号的增强或抑制。它属于化学干扰；信号增强属于增感效应，信号被抑制属于干扰效应。如测定镁时铝存在可抑制镁的信号；测定铝时钛存在，可增强铝的信号。前者由于生成难解离的MgO·Al2O3，减少了镁的基态原子；后者是钛的亲氧能力比铝强，钛夺取了氧化铝中的氧，生成氧化钛，铝从氧化铝中释放出来。
CAS号：
性质：火焰原子吸收光谱分析中，伴生阳离子对待测阳离子测定中信号的增强或抑制。它属于化学干扰；信号增强属于增感效应，信号被抑制属于干扰效应。如测定镁时铝存在可抑制镁的信号；测定铝时钛存在，可增强铝的信号。前者由于生成难解离的MgO·Al2O3，减少了镁的基态原子；后者是钛的亲氧能力比铝强，钛夺取了氧化铝中的氧，生成氧化钛，铝从氧化铝中释放出来。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条