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Materials functionalization

Alkali metals Na+ and Mg Cause steric hindrance in the carbon matrix 38 [Pg.166]

Silver AgN03, AgC2H302 Ag nanoclusters behaving as spacers within the carbon matrix 35 [Pg.166]

Nickel Nickel nano-particles A strong chemisorption of the H2 on the nickel particles 6 [Pg.166]

Silica nano-particle Si02 Show molecular sieving properties 43 [Pg.166]

Zeolite Provide transport pathways for specifics gasses 40, 42 [Pg.166]


In block copolymers [8, 30], long segments of different homopolymers are covalently bonded to each otlier. A large part of syntliesized compounds are di-block copolymers, which consist only of two blocks, one of monomers A and one of monomers B. Tri- and multi-block assemblies of two types of homopolymer segments can be prepared. Systems witli tliree types of blocks are also of interest, since in ternary systems the mechanical properties and tire material functionality may be tuned separately. [Pg.2526]

The most commonly used scale inhibitors are low molecular weight acrylate polymers and organophosphoms compounds (phosphonates). Both classes of materials function as threshold inhibitors however, the polymeric materials are more effective dispersants. Selection of a scale control agent depends on the precipitating species and its degree of supersaturation. The most effective scale control programs use both a precipitation inhibitor and a dispersant. In some cases this can be achieved with a single component (eg, polymers used to inhibit calcium phosphate at near neutral pH). [Pg.271]

Material Function Typical dosage, ppm Ratio of cation to material Oil emulsification Kaolin dispersing CaCO growth inhibition... [Pg.150]

The reader should be exposed to both micromechanics and macromechanics in order to function effectively in either material design or structurai design. The main thrust of this book is in iine with structurai design and analysis requirements. Thus, the point of our addressing micromechanics is to better understand how and why composite materials function. [Pg.185]

Draw material function function molecules at break (CTs) (r) (kJ/ long life... [Pg.850]

Today the successful application of TOF-SIMS in chemistry and material sciences covers all kinds of organic and inorganic materials—functionalized surfaces as well as mono-molecular or multilayer coatings with lateral structures down to the 50 nm range. TOF-SIMS is here applied in the... [Pg.33]

These flow features are of importance in a great number of technical processes, especially for high process velocities when extremely high shear rates can be observed. For polymeric systems this can lead to a so-called non-Newtonian behaviour, i.e. the rheological material functions become dependent on the shear or elongational rate. [Pg.7]

Deviation from laminar shear flow [88,89],by calculating the material functions r =f( y),x12=f( Y),x11-x22=f( y),is assumed to be of a laminar type and this assumption is applied to Newtonian as well as viscoelastic fluids. Deviations from laminar flow conditions are often described as turbulent, as flow irregularities or flow instabilities. However, deviation from laminar flow conditions in cone-and-plate geometries have been observed and analysed for Newtonian and viscoelastic liquids in numerous investigations [90-95]. Theories have been derived for predicting the onset of the deviation of laminar flow between a cone and plate for Newtonian liquids [91-93] and in experiments reasonable agreements were found [95]. [Pg.36]

As a result, we find for sols that the divergence of the above zero shear viscosity rj0 and of two other linear viscoelastic material functions, first normal stress coefficient and equilibrium compliance 7°, depends on the divergence... [Pg.177]

The critical gel equation is expected to predict material functions in any small-strain viscoelastic experiment. The definition of small varies from material to material. Venkataraman and Winter [71] explored the strain limit for crosslinking polydimethylsiloxanes and found an upper shear strain of about 2, beyond which the gel started to rupture. For percolating suspensions and physical gels which form a stiff skeleton structure, this strain limit would be orders of magnitude smaller. [Pg.195]

For positive exponent values, the symbol m with m > 0 is used. The spectrum has the same format as in Eq. 8-1, H X) = H0(X/X0)m, however, the positive exponent results in a completely different behavior. One important difference is that the upper limit of the spectrum, 2U, has to be finite in order to avoid divergence of the linear viscoelastic material functions. This prevents the use of approximate solutions of the above type, Eqs. 8-2 to 8-4. [Pg.224]

The law of the minimum is easy to understand on a cellular, molecular, and atomic level and is applicable to all organisms. Organisms cannot grow by producing partial cells and to produce a whole cell they must have all the constituents in the correct proportion, ft is not possible to have a functioning cell that does not have a complete cell membrane, complete genetic material, functional mitochondria, and all the other parts of a functioning cell. [Pg.23]

The surface properties of CNTs are paramount for their hybridization with other components. The formation of large bundles due to van der Waals interactions between hydrophobic CNT walls further limits the accessibility of individual tubes. Functionalization of CNTs can enhance their dispersion in aqueous solvent mixtures and provide a means for tailoring the interfacial interactions in hybrid and composite materials. Functionalization techniques can be divided in covalent and non-covalent routes, which will be described in greater detail in Chapter 3. [Pg.18]

Fortunately, if injuries to the liver and kidney are not too severe, these effects disappear after exposure stops. This is because both organs can repair damaged cells and replace dead cells and associated materials. Function usually returns to normal within a few days or weeks after exposure. [Pg.14]

Single base" smokeless powder, developed mainly in the United States, uses only nitrocellulose. "Double base" smokeless powder, developed in Europe, is a blend of nitrocellulose and nitroglycerine. "Cordite," a British development, consists of 65% NC, 30% NG, and 5% mineral jelly. The mineral jelly (a hydrocarbon material) functions as a coolant and produces substantial amounts of CO 2, CO, and H 2O gas to improve the propellant characteristics. "Triple base" smokeless powder, containing nitroguanidine as a third component with nitroglycerine and nitrocellulose is also manufactured. [Pg.80]

The construction of solar energy conversion systems requires the combination of molecularly designed functional materials. Functional polymers play deciding roles for this purpose. [Pg.44]

Similar behavior of a certain physical property common to different material systems can only be visualized by dimensionless representation of the material function of that property (here the viscosity l). It is furthermore desirable to formulate this function as uniformly as possible. This can be achieved by the standard representation (6,11) of the material function in which a standardized transformation of the material function /i(7) is defined in such a way that the expression produced meets the requirement... [Pg.24]


See other pages where Materials functionalization is mentioned: [Pg.266]    [Pg.307]    [Pg.128]    [Pg.951]    [Pg.182]    [Pg.1002]    [Pg.79]    [Pg.198]    [Pg.35]    [Pg.220]    [Pg.166]    [Pg.166]    [Pg.174]    [Pg.190]    [Pg.193]    [Pg.197]    [Pg.213]    [Pg.224]    [Pg.259]    [Pg.803]    [Pg.372]    [Pg.191]    [Pg.931]    [Pg.102]    [Pg.304]    [Pg.306]    [Pg.315]    [Pg.233]    [Pg.241]    [Pg.105]    [Pg.160]    [Pg.24]   


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A. Akelah, Functionalized Polymeric Materials in Agriculture and the Food Industry

Acrylic functional materials

Active functional material

Ammonium functionalized materials

Applications functional materials

Applications, molecular electronics functional materials

Based Ionic Liquid Functional Materials and Their Application to Electroanalytical Chemistry

Basic Principles of Functional Materials

Boltzmann superposition principle material functions

Bulk materials synthesis functionalization

Carbon molecular sieve material functionalization

Chiral pool starting materials, functionalization

Conjugated polymers functional materials

Covalent Bonding of Functional Coatings on Conductive Materials the Electrochemical Approach

Density functional theory carbon-based materials

Design Procedure for Plastics Parts Function, Material, Geometry, Test

Dimensionless representation of material functions

Dynamic mechanical material functions

Dynamic mechanical material functions, conversion

Examples of Functional Materials

Examples of Functional Materials with Different Defect Structures

Extensional material function

Function Gradient Materials

Functional Electronic Materials

Functional Magnetic Materials Based on Metal Formate Frameworks

Functional Materials via Multiple Noncovalent Interactions

Functional Properties of Phase Change Materials from Atomistic Simulations

Functional Supports and Materials

Functional assays materials

Functional barrier estimating the time it takes for styrene to travel through a material

Functional gradient material

Functional magnetic materials

Functional magnetic materials metal formate frameworks

Functional magnetic materials metal ions

Functional materials

Functional materials

Functional materials, alignment

Functional materials/devices

Functional medical textile materials

Functional organic materials

Functional polyorganosiloxane porous materials

Functional properties, ceramic materials

Functional waveguides, optically nonlinear organic materials

Functionality and Applications of Nanostrucutured Materials

Functionalization of marine materials for drug delivery systems

Functionalized Endohedral Metallofullerene Materials

Functionalized carbon materials

Functionalized carbon materials solid acids

Functionalized magnetic material

Functionalized materials

Functionalized materials

Functionalized mesoporous ordered materials

Functionally graded material

Functionally graded materials applications

Functionally graded materials design procedure

Functionally graded materials fabrication

Functionally gradient materials

Functionally-graded materials mechanical properties

Functions of Interfacial Materials

Green chemistry materials and function

High-work-function material

Highly Conductive Plastics - Custom-formulated Functional Materials for Injection Mouldable Electronic Applications

Humic materials functional groups

Hybrid materials, structure-directed function

Hydrosilylation functional material synthesis

Increased Functionality Through Material Engineering

Interfacial materials functions

Ionic Liquids in Material Synthesis Functional Nanoparticles and Other Inorganic Nanostructures

Lamellar functional materials

Linear viscoelasticity elastic material functions

Linear viscoelasticity material functions

Material Functions for Oscillatory Shear Flow

Material Functions for Steady-State Elongational Flow

Material Functions for Steady-State Shear Flow

Material displacement functions

Material displacement functions vectors

Material function

Material function

Material function dimensionless representation

Material function reference invariant representation

Material function, rheology

Material functionalization additives

Material functions general elastic solid

Material imparting special functions

Material kernel function

Material reduction integrated functions

Material state statistical distribution functions

Materials for Functional Layers

Materials with Functionally Graded Properties

Nanohybrids, functional materials

Nanoscale Functional Materials

Nanostructured carbon materials functionalization

Nanotechnology nanoscale functional materials

Objective function material

Organic functionalization of mesoporous silica materials

Organic radical magnetic materials functionality

Organosilica mesoporous materials with double functionality

Overview of Battery Functions and Materials

Oxidation Tools in the Synthesis of Catalysts and Related Functional Materials

Passive functional material

Polymeric Materials with Ionic Functional Groups and Their Protein Adsorptive Behavior

Polymeric materials, functionalization

Printing of Functional and Structural Materials

Properties and Applications of Sol-Gel Materials Functionalized Porous Amorphous Solids (Monoliths)

Protein-based materials aqueous environment function

Reference-invariant Representation of a Material Function

Representation of the Material Function

Rheological Material Functions,

Rubber materials dynamic functions

Selective and low-E functional coatings for membrane materials

Self-Assembled Functional Materials

Self-healing and recovery of functionality in materials

Shear material functions

Shear-Free Flow Material Functions

SiAION based functionally graded materials

Small Strain Material Functions

Spray functionally gradient materials

Stimuli-responsive materials functions

Strain energy function isotropic materials

Sulfonic Acid Functionalization of Ordered Mesoporous Materials and Periodic Organosilicas

Supramolecular Hybrid Materials—Integrating Functionality with Sensing

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

Surface Functionalization of Mesoporous materials

Surface Functionalizing of Carbon-Based Gas-Sensing Materials

Surface-functionalized material

The Description of Stress and Material Functions

Useful Relations for Material Functions

Viscoelasticity elastic material functions

Viscoelasticity material functions

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