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Surfacing function

Step 9 - using updated values of the free surface function the location of the free surfaces are identified and the positions of each phase in the current flow domain are marked accordingly. [Pg.146]

Eig. 1. Schematics of (a) acid-cataly2ed and (b) base-cataly2ed siHca gels showing the differences in microstmcture and surface functional groups. [Pg.1]

Surface properties are generally considered to be controlled by the outermost 0.5—1.0 nm at a polymer film (344). A logical solution, therefore, is to use self-assembled monolayers (SAMs) as model polymer surfaces. To understand fully the breadth of surface interactions, a portfoHo of chemical functionahties is needed. SAMs are especially suited for the studies of interfacial phenomena owing to the fine control of surface functional group concentration. [Pg.544]

Adsorption and Surface Chemical Grafting. As with siHca and many other siHcate minerals, the surface of asbestos fibers exhibit a significant chemical reactivity. In particular, the highly polar surface of chrysotile fibers promotes adsorption (physi- or chemisorption) of various types of organic or inorganic substances (22). Moreover, specific chemical reactions can be performed with the surface functional groups (OH groups from bmcite or exposed siHca). [Pg.351]

Determination of surface functional groups, e.g., —OH, —C - C—, and >C = O, and identificadon of adsorbed molecules comes principally from comparison with vibrational spectra (infixed and Raman) of known molecules and compounds. Quick qualitative analysis is possible, e.g., stretching modes involving H appear for v(C—H) at 3000 cm and for v(0—H) at 3400 cm L In addition, the vibrational energy indicates the chemical state of the atoms involved, e.g., v(C=C) " 1500 cmT and v(C=0) " 1800 cm"L Further details concerning the structure of adsorbates... [Pg.448]

The results obtained demonstrate competition between the entropy favouring binding at bumps and the potential most likely to favour binding at dips of the surface. For a range of pairwise-additive, power-law interactions, it was found that the effect of the potential dominates, but in the (non-additive) limit of a surface of much higher dielectric constant than in solution the entropy effects win. Thus, the preferential binding of the polymer to the protuberances of a metallic surface was predicted [22]. Besides, this theory indirectly assumes the occupation of bumps by the weakly attracted neutral macromolecules capable of covalent interaction with surface functions. [Pg.140]

This process is probably accompanied by fixation at surface functional groups as well as crosslinking reactions. The simplicity of this approach makes it quite promising for a more general application. [Pg.55]

FIGURE 7.18 Synthetic strategy of direct surface functionalization. [Pg.214]

Our discovery that epoxides can initiate carbocationic polymerization led to the effective direct functionalization of PIBs with hydroxyl groups. Figure 7.18 shows our novel method of direct surface functionalization of SDIBSs using 4-(l,2-oxirane-isopropyl)-styrene, a new inimer. [Pg.214]

Foreman, E.A. and Fhiskas, J.E. Direct surface functionalization of novel biomaterials, Polym. Prepr., 47, 45, 2006. [Pg.219]

Dimethylaminoethyl Methacrylate. Successive Surface Functionalization with Heparin ... [Pg.221]

Broadening of the optimal pH range for reactive dye biosorption by chemical modification of surface functional groups of Corynebacterium glutamicum biomass... [Pg.161]

We have already referred to the Mo/Ru/S Chevrel phases and related catalysts which have long been under investigation for their oxygen reduction properties. Reeve et al. [19] evaluated the methanol tolerance, along with oxygen reduction activity, of a range of transition metal sulfide electrocatalysts, in a liquid-feed solid-polymer-electrolyte DMFC. The catalysts were prepared in high surface area by direct synthesis onto various surface-functionalized carbon blacks. The intrinsic... [Pg.319]

Several mechanisms have been proposed to explain the activation of carbon surfaces. These have Included the removal of surface contaminants that hinder electron transfer, an Increase In surface area due to ralcro-roughenlng or bulld-up of a thin porous layer, and an Increase In the concentrations of surface functional groups that mediate electron transfer. Electrode deactivation has been correlated with an unintentional Introduction of surface contaminants (15). Improved electrode responses have been observed to follow treatments which Increase the concentration of carbon-oxygen functional groups on the surface (7-8,16). In some cases, the latter were correlated with the presence of electrochemical surface waves (16-17). However, none of the above reports discuss other possible mechanisms of activation which could be responsible for the effects observed. [Pg.583]

The surface waves were simulated assuming the presence of two different functionalities, each undergoing a reversible two electron redox reaction. It was assumed that these surface functionalities were qulnones In Nernstlan equilibrium with the electrode potential before each DPV pulse. It was also assumed that the current during... [Pg.587]

G.Meyer3-, Surface-functionalization ofmicrostructuresbyanodicspark deposition,m Proceedingsofthe 6th International Conference on Microreaction Technology, IMRET6, 11-14March 2002,pp.l86-191, AIChE Pub. No. 164, NewOrleans( 2002). [Pg.369]

In conclusion, the method proposed herein allows high loading of Pd irrespectively of the support surface functionality. [Pg.296]


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See also in sourсe #XX -- [ Pg.115 ]




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Activated carbon surface functional groups

Activated carbons oxygen surface functionalities

Adsorption from Solution and Effects of Surface Functionalities

Adsorption onto Functionalized Surfaces

Alloy surface Green function

Aluminum surface, work function

An Introduction to Potential Functions and Surfaces—Bond Stretches

Between Metal Atoms and Functional Groups at Polymer Surfaces

Biomolecule Surface-functionalized Vesicles

Carbon black surface chemical functions

Carbon nanotube-reinforced composites surface functionalization

Carbon nanotubes surface functionalization

Carbon surface functionality

Cell-surface carbohydrates, functions

Characterization surface functional groups

Charcoal surface functionality

Chemical Interactions to the Adhesion Between Evaporated Metals and Functional Croups of Different Types at Polymer Surfaces

Chemical surface functionalization

Coal, surface functional groups

Composite structure functionalization surface modification

Composites surface functionality

Correlation functions surfaces

Density functional theory potential energy surfaces

Density functional theory single-crystal surfaces

Density functional theory surface diffusion

Density functional theory surface segregation

Effects of Surface Functionalities on Adsorption

Effects of Surface Functionalities on Gas Adsorption

Electrospun surface functionalization

Enantioselectivity as a function of the bond strength in intermediate surface complex

Ferrocene-functionalized polymer surface-initiated

Filler surface functional groups

Function surface

Function surface

Functional Properties of Bio-Inspired Surfaces

Functional Surface Properties by Plasma-Based Processes

Functional evaluation by devices measuring surface characteristics

Functional groups on carbon surface

Functional groups, mineral surfaces

Functional groups, silica surfaces

Functional metal surfaces with

Functional polymers, porous silica particle surfaces

Functional surface analysis

Functional surfaces

Functionality of surface

Functionalization methods surface reactions

Functionalization of Polymer Surfaces to Increase Fibronectin Adhesion

Functionalization of Silicone Rubber Surfaces towards Biomedical Applications

Functionalization of Surface by Plasma Treatment

Functionalized sensor surface

Functionalized surface functionalization

Functionalizing surfaces with polymer brushes

Functions and Surface Harmonics

Functions of Cell Surface Heparan Sulfate Proteoglycans

Green function substrate surface

Greens function, surface

Indicator function surface

Ionic strength, surface area function

Iron surface functional groups

Jellium Surfaces Electron Spillout, Surface Dipole, and Work Function

Latex particles physical surface functionalization

Latex particles surface functionalization

Latex particles surface functionalization copolymerization

Latex particles surface functionalization hydrophobic surfaces

Latex particles surface functionalization polymerization

Latex particles surface functionalization seeded emulsion copolymerization

Lipases surface functionalization

Local hyperspherical surface functions

Membrane surface, functionalization

Mesoporous surface functionalization

Metal Centers as Termination Groups (Surface Functionalization)

Metal nanoparticles surface functionalization

Metal surface work function

Nanoparticle Surface Functionalization

Nitrogen-containing surface functional groups

Optically functional surfaces

Organic functionalization of semiconductor surface

Partition function, potential energy surfaces

Partition function, potential energy surfaces rate constants

Periodic surfaces scattering function

Plasma surface functionalization

Plasma-treated polymer surfaces functional groups

Polymer surface functional groups

Polymeric surface-functionalized

Porosity surface functional groups

Porous polymer stationary phases surface functionalized

Porous silicon surface modification functionalization

Potential energy surfaces density functions

Potentials, Surface Potential Differences, and the Thermionic Work Function

Protein chips surface functionalization

Proteins, functional properties surface activity

Quadratic function Surface fitting)

Residual function surface complexation calculations

Role of surface functionality

Selection Rules and Intensities for Surface-harmonic Wave Functions

Self-assembled Monolayers as Tailored Functional Surfaces in Two and Three Dimensions

Semiempirical wave functions surfaces

Silanol functions surface density

Silanol surface, amino-functional

Silica based nanoparticles surface functionalization

Silicon substrates, surface functionalization

Silicon substrates, surface functionalization silanization

Silicon surface functionalization

Supports surface functionality

Surface Bio functionalization

Surface Chemical Functionalization of Sol-Gel Materials and Ceramics for MOF Technology

Surface Functional Groups in Soil Clays

Surface Functionalization of Mesoporous materials

Surface Functionalization of Nanodiamond

Surface Functionalization of Nanoparticles

Surface Functionalizing of Carbon-Based Gas-Sensing Materials

Surface Green’s function

Surface Oxidation of Carbon Nanofibers Prior to Functionalization

Surface acidic functional

Surface acidic functional groups

Surface active agents functionalized

Surface area as a function

Surface as functions

Surface characteristic functions

Surface charge as a function

Surface chemical properties functionalities

Surface chemistry oxygen-containing functional groups

Surface condensers final condenser, function

Surface condensers function

Surface coordination functional groups

Surface density functions

Surface effects work function

Surface function, control using chemical

Surface functional group Lewis acid site

Surface functional group orangic

Surface functional group oxide

Surface functional groups

Surface functional groups 732 INDEX

Surface functional groups Boehm method

Surface functional groups adsorption isotherms, effects

Surface functional groups analyses

Surface functional groups infrared spectroscopy

Surface functional groups interfacial chemistry

Surface functional groups oxygen complexes

Surface functionalities, control methods

Surface functionality

Surface functionality

Surface functionality, description

Surface functionalization

Surface functionalization characterization

Surface functionalization control

Surface functionalization convergent-growth approach

Surface functionalization dipole moments

Surface functionalization for protein arrays

Surface functionalization nanoparticles

Surface functionalization of CNTs

Surface functionalization of microgels

Surface functionalization, of silicon

Surface functionalized

Surface functionalized ionosilicas

Surface functionalized polyethylene

Surface functionalized porous polymers

Surface functionalizing

Surface imprinting functionalization

Surface inhibition function

Surface modification and functionalization

Surface modification functionalization

Surface modifiers functional organic acids

Surface oxygen functional groups

Surface plasmon resonance functional properties

Surface potential work function

Surface reactions, functional

Surface reactive functionalities

Surface segregation functionality

Surface sensitivity function

Surface speciation as a function

Surface states dielectric function

Surface tension from direct correlation function

Surface visualization, density functional

Surface water control functions

Surface-active functional groups

Surface-functionalized material

Surface-functionalized nanostructured gold

Surface-functionalized polymeric micelles

Surface-harmonic wave functions

Surfaces chemical functionalities

Surfaces wave functions

The Particle Surface as a Carrier of Functional Groups

Thermodynamics of Gibbs dividing interface and surface excess functions

Thiol functional groups, surface

Use of Graded Rubber Latexes with Surface Functionality in Thermosets

Using polynomial functions to characterize the bo surface

Work function of surface

Work function surface

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