Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Mobile solutions

Mitzi, D. B. Milliron, D. J. Copel, M. Murray, C. Kosbar, L. 2005. High mobility solution-deposited chalcogenide films for flexible applications. IEEE VLSI-TSA International Symp. on VLSI Technol. (April), pp. 41—44. [Pg.30]

A mass balance on the total solute concentration, C, including both adsorbed and mobile solute for element n yields the following relationship ... [Pg.587]

In a hood, 4.1 moles of the sodium salt of a carboxylic acid is dissolved in just enough of the anhydrous free acid to make a mobile solution. Then 1 mole of the ketazine is added and, with stirring at 10°-20°C, one equivalent of chlorine is slowly passed through the solution. Sodium chloride precipitates rapidly during this addition. Stirring is continued for hr at 20°C after the addition has been completed. Then the reaction mixture is poured into 5-8 volumes of an ice-water mixture and the product is extracted with ether. The product is separated from the solvent either by distillation or by crystallization. [Pg.415]

A tentative reservation exists about this work. As reported, in a communication, it as yet gives no explanation for the unexpected solubility of poly(r t-butyl isocyanide) in chloroform, nor does it describe a safeguard against the mutual solubility, i.e. plasticization, of polyisocyanides, which is a possibility between the non-crosslinked, otherwise insoluble support medium and the mobile solute. Yet, the rotation data is compelling. [Pg.123]

Another system obeying Fick s law is one involving the diffusion of small interstitial solute atoms (component 1) among the interstices of a host crystal in the presence of an interstitial-atom concentration gradient. The large solvent atoms (component 2) essentially remain in their substitutional sites and diffuse much more slowly than do the highly mobile solute atoms, which diffuse by the interstitial diffusion mechanism (described in Section 8.1.4). The solvent atoms may therefore be considered to be immobile. The system is isothermal, the diffusion is not network constrained, and a local C-frame coordinate system can be employed as in Section 3.1.3. Equation 2.21 then reduces to... [Pg.52]

De Jonge, H. and G. Rothenberg. 2005. New device and method for flux-proportional sampling of mobile solutes in soil and groundwater. Environ. Sci. Technol. 39 274-282. [Pg.64]

Park SK, Jackson TN, Anthony JE, Mourey DA. (2007) High mobility solution processed 6,13-bis(triisopropyl-silylethynyl) pentacene organic thin film transistors. Appl Phys Lett 91 063514. [Pg.316]

Regardless of the mechanism, the results most clearly illustrate that a alone does not provide an adequate mechanism to explain the role of moisture in governing food stability. Model systems are perfect for studying the complexities of reactant mobility as a determinant for reaction rate. What is lacking is a study that examines multiple aspects of mobility in correlation to the rate of a chemical reaction. Changes in moisture content and affect matrix plasticity and thus mobility, solute solvency, rotational mobility, and translational mobility. Each of these aspects of mobility may or may not each have an effect on reaction rate, depending on the reaction and the chemical constituents within the system. [Pg.361]

For mobile solutes, flux averaged concentrations are defined as the ratio of solute flux to soil liquid flux through a given area, i.e. [Pg.71]

The fourth avenue of research is even more conjectural. Here we see the cellulase-cellulose system as a physico-chemical model of flux. It depicts the transition between the structure and the structureless, between the reserve solids and the mobile solutes. Such transitions exist throughout nature. [Pg.12]

In geologic conditions nonpolar, hydrophobic substances under consideration, depending on pressure and temperature are capable of changing their phase state and can be gaseous, liquid or even solid. In gas state they form underground gas whose composition is dominated by such components as CH, more rarely and very rarely CO. Liquid nonpolar substances are mobile solutions (crude oil, oil products, residual oil, etc.,) whose composition is dominated by complex non-volatile organic compounds, namely, liquid alkanes (from pentane to heptadecane), almost all naphthenes, numerous aromatic hydrocarbons (benzene, toluene, isopropyl benzene, etc.), which in pure form may have melting temperature below 0 °C. [Pg.305]

The element passing from rock into any mobile solution is associated with processes of desorption, solution and substitution, with the formation of compounds capable of remaining in solution and migrating with... [Pg.422]

Selective Residual Dipolar Couplings by H Multiple-Quantum NMR Spectroscopy. Multiple-quantum MQ NMR spectroscopy is well established for structural studies of liquids and highly mobile solutes in liquid crystals (1,26). [Pg.5248]

The company has six major types of product Desktop Solutions, Mobile Solutions, Consumer and Multimedia, Server, Storage Security Solutions, Software, and Smartphones and Tablets. Products are segmented as trend products, mainstream products, and commodity. The product segmentation is one of the key drivers for supply chain management. The company s distribution strategy also depends upon product distribution strategies pursued by suppliers. [Pg.260]

For most electrophoretic separations of small ions, the smallest analysis time occurs when the analyte ions move in the same direction as the electroosmotic flow. Thus, for cation separations, the walls of the capillary are untreated and the electroosmotic flow and the cation movement are toward the cathode. For the separation of anions, on the other hand, the electroosmotic flow is usually reversed by treating the walls of the capillary with an alkyl ammonium salt, such as cetyl Irimethylammonium bromide. The positively charged ammonium ions become attached to the silica surface, yielding a positively charged, immobile surface layer. This, in turn, creates a negatively charged, mobile solution layer, which is attracted toward the anode, reversing the electroosmotic flow. [Pg.973]


See other pages where Mobile solutions is mentioned: [Pg.366]    [Pg.645]    [Pg.240]    [Pg.591]    [Pg.385]    [Pg.134]    [Pg.241]    [Pg.538]    [Pg.153]    [Pg.236]    [Pg.37]    [Pg.2391]    [Pg.478]    [Pg.3467]    [Pg.324]    [Pg.217]    [Pg.215]    [Pg.2]    [Pg.3]    [Pg.92]    [Pg.130]    [Pg.33]    [Pg.875]    [Pg.324]    [Pg.422]    [Pg.141]    [Pg.318]    [Pg.366]    [Pg.645]    [Pg.363]    [Pg.373]    [Pg.516]    [Pg.175]    [Pg.221]    [Pg.12]   
See also in sourсe #XX -- [ Pg.175 ]




SEARCH



Electron mobility with solutes

Ionic mobilities, concentrated solutions

Ionic mobility, electrolyte solutions

Microgels solution mobility

Mobility control by polymer solutions

Molecular mobility amorphous aqueous solutions

Segmental mobility, solution-based polymer

Solute Segregation and Grain Boundary Mobility

Solute mobility

Solutes and high field mobility

Solution properties of mobility control

The Mobility of Ions in Solution

© 2024 chempedia.info