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Electro-mobility

Testing DNA Population for Ligand Binding by Electro Mobility Gel-Shift Assay... [Pg.403]

The polymer battery has the advantage of using an electrode for a large area. The wide range of uses of polymer battery from portable electric devices to the electro-mobiles is expected to contribute to the rechargeable battery market. The polymer battery is creating a new market of the secondary battery for information-processing equipment such as the personal data assistant. [Pg.426]

Capillary electrophoresis has also been applied for lanthanide analysis. In this technique, the electro-mobility of ions in an electrolyte buffer under the influence of an applied electric field determines relative separation of the ions. Complexing anions are required for electrophoretic separation of lanthanide ions, as the differences in mobihty of the trivalent aquo ions are insufficient for differentiation of individual members of the series. Vogt and Conradi (1994) summarize the mobility of an ion in an electric field in terms of the relative concentrations of complexed ions in solution ... [Pg.326]

Digital product and process development systems have become indispensable for the permanent advancement and new development of products fiom the product program of BMW. Coming from the development of aircraft engines, motorcycles and racecars, the current product program of the brands BMW, Mini and Rolls Royce is presently enhanced massively in direction of electro mobility and mobility services (Fig. 19.1). [Pg.556]

The next developments in the field of electro mobility surely wiU consider the question of safety when using the battery, the stability of the battery (e.g., no unintentionally battery discharge), reducing the price as weU as the mass of the battery, quick loading of the batteries. Some car makers already have been facing the issue of cars burning due to battery malfunction. This calls for appropriate software, research on battery technology as well as concepts which associate power suppliers with car makers and companies, which conduct advanced research into car IT. [Pg.800]

HyER (2012) Hydrogen Fuel Cells and Electro-mobility in European Regions, http //www.hy-ramp.eu (last accessed 20 January 2012). [Pg.1209]

Electroosmotic flow in a capillary also makes it possible to analyze both cations and anions in the same sample. The only requirement is that the electroosmotic flow downstream is of a greater magnitude than electrophoresis of the oppositely charged ions upstream. Electro osmosis is the preferred method of generating flow in the capillary, because the variation in the flow profile occurs within a fraction of Kr from the wall (49). When electro osmosis is used for sample injection, differing amounts of analyte can be found between the sample in the capillary and the uninjected sample, because of different electrophoretic mobilities of analytes (50). Two other methods of generating flow are with gravity or with a pump. [Pg.183]

The molecular simulations also showed that electro-osmosis is also observed in aqueous electrolyte solutions, as long as the external electric field is reversed periodically to prevent the ions from accumulating near the membrane. An example of this is shown in Fig. 10, which shows the effect of an electric field on a 4.67 mole percent aqueous LiCl solution at 25°C. It is quite clear that the mobility of the solvent molecules increases as a result of... [Pg.793]

Electro-conductivity of molten salts is a kinetic property that depends on the nature of the mobile ions and ionic interactions. The interaction that leads to the formation of complex ions has a varying influence on the electroconductivity of the melts, depending on the nature of the initial components. When the initial components are purely ionic, forming of complexes leads to a decrease in conductivity, whereas associated initial compounds result in an increase in conductivity compared to the behavior of an ideal system. Since electro-conductivity is never an additive property, the calculation of the conductivity for an ideal system is performed using the well-known equation proposed by Markov and Shumina (Markov s Equation) [315]. [Pg.149]

The scheme of the interaction mechanism (Equation 88) testifies to an electro-affinity of MeFe" ions. In addition, MeFe" ions have a lower negative charge, smaller size and higher mobility compared to MeF6X(n+1> ions. The above arguments lead to the assumption that the reduction to metal form of niobium or tantalum from melts, both by electrolysis [368] and by alkali metals, most probably occurs due to interaction with MeF6 ions. The kinetics of the reduction processes are defined by flowing equilibriums between hexa-and heptacoordinated complexes. [Pg.194]

An LCD is a ubiquitous electronic display. Now, it is widely distributed among human daily life, like mobile phones, TV, and personal computers. The LCD has, however, a drawback, i.e., slower response than a plasma display or an electroluminescene display. Recently we have first succeeded in combination of a nanoparticle technology with the LCD technology, which realized fast response of the LCD [45,235,236]. Thus we have found a phenomenon, i.e., a frequency modulation of the LCD doped with metallic nanoparticles. Since the frequency modulation, or electro-optic property depends on the kind of metals, we have prepared AgPd bimetallic nanoparticles protected with a typical liquid crystal molecule, 4-cyano-4 -pentylbiphenyl (5CB) to investigate the electro-optic property [45,235,236]. [Pg.71]

Besides using pure and non-electro-active solvents and chemicals (see Mobile Phase in Chapter 4) for the mobile phase to reduce background current the relationship between working electrode potential and background current must be determined before you can select the optimum working electrode potential for analysis of the substance. [Pg.17]


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See also in sourсe #XX -- [ Pg.88 , Pg.91 , Pg.98 ]




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Electro carrier mobilities

Electro-osmosis mobility

Electro-osmotic mobility

Electrophoretic mobility and electro-osmotic flow

Mobility, electro-osmotic electrophoretic

Mobility, electro-osmotic ionic

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