A new integrated method for characterizing surface energy heterogeneity from a single adsorption isotherm

Article Abstract:

An integrated strategy from a single adsorption isotherm is presented to characterize surface energy heterogeneity of fine particles. The strategy constructs a correspondence between derived adsorption energy distributions (AEDs) and different patches of real surface, so it will be more effective to understand surface heterogeneity by using the adsorption probe method.

Absorption

---

Approximate analytical expressions for the electrokinetic flow of a general electrolyte solution in a planar slit comprising dissimilar surfaces

Article Abstract:

The electrokinetic equations are solved analytically for the case of a general electrolyte solution flow through a planar slit comprising two planar, parallel surfaces, which can have different charged conditions. Electrokinetic phenomena are the flow of an electrolyte solution in a microchannel, which is influenced by electroosmotic flow.

Chemical reaction, Rate of, Chemical kinetics, Electrolytes, Chemical properties

---

Similar abstracts:

• Abstracts: Laser-light-scattering study of internal motions of polymer chains grafted on spherical latex particles. Observation of kinetic and structural scalings during slow coalescence of nanobubbles in an aqueous solution
• Abstracts: Mesophase transitions surface functionalization, and growth mechanism of semiconducting 6PTTP6 films from solution
• Abstracts: Gauche-trans conformational changes in ethyl formate chemisorbed on Ni(111): coverage-dependent RAIRS spectra
• Abstracts: Chemoselective alkane oxidation by superoxo-vanadium(V) in vanadosilicate molecular sieves. Role of hydrophobicity on structure of polymer-metal complexes
• Abstracts: Effect of nanocomposite synthesis on the combustion performance of a ternary thermite. Surface synthesis of zinc oxide nanoparticles on silica spheres: preparation and characterization

This website is not affiliated with document authors or copyright owners. This page is provided for informational purposes only. Unintentional errors are possible.