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Asymptotically

A simple method to achieve this is based on the fact that for any value of R there is a maximum asymptotic value for P, say, P axi which is given as Ft tends to - c and is given by ... [Pg.224]

Because the pseudo-inverse filter is chosen from the class of additive filters, the regularization can be done without taking into account the noise, (n). At the end of this procedure the noise is transformed to the output of the pseudo-inverse filter (long dashed lines on Fig. 1). The regularization criteria F(a,a) has to fulfill the next conditions (i) leading to an additive filter algorithm, (ii) having the asymptotic property a, —> a, for K,M... [Pg.122]

The comparison of curve 1 and 2 in Fig. 3 yields, that the convergence with respect to the number of projections k is not strongly influenced by noise because of the properties of the reconstruction algorithm. Nevertheless, the noise increases the asymptotic value of o(n)/0 ... [Pg.125]

The divergence factor (DF) introduced by the asymptotic expansion, accounts for the deformation of the refracted wavefront (initially spherical in the coupling medium). It ensures, under the GO approximation, the energy conservation of a ray-pencil propagating... [Pg.736]

In back-scattering, (n= - n ), and within the Bom approximation (mono-scattering), the asymptotic solution of (2) is ... [Pg.744]

This description is traditional, and some further comment is in order. The flat region of the type I isotherm has never been observed up to pressures approaching this type typically is observed in chemisorption, at pressures far below P. Types II and III approach the line asymptotically experimentally, such behavior is observed for adsorption on powdered samples, and the approach toward infinite film thickness is actually due to interparticle condensation [36] (see Section X-6B), although such behavior is expected even for adsorption on a flat surface if bulk liquid adsorbate wets the adsorbent. Types FV and V specifically refer to porous solids. There is a need to recognize at least the two additional isotherm types shown in Fig. XVII-8. These are two simple types possible for adsorption on a flat surface for the case where bulk liquid adsorbate rests on the adsorbent with a finite contact angle [37, 38]. [Pg.618]

Long-range forces are most conveniently expressed as a power series in Mr, the reciprocal of the intemiolecular distance. This series is called the multipole expansion. It is so connnon to use the multipole expansion that the electrostatic, mduction and dispersion energies are referred to as non-expanded if the expansion is not used. In early work it was noted that the multipole expansion did not converge in a conventional way and doubt was cast upon its use in the description of long-range electrostatic, induction and dispersion interactions. However, it is now established [8, 9, 10, H, 12 and 13] that the series is asymptotic in Poincare s sense. The interaction energy can be written as... [Pg.187]

Then F( ) = S(/ -t d )- 2( ), and the density of states D E) = dS/d/ . A system containing a large number of particles N, or an indefinite number of particles but with a macroscopic size volume V, normally has the number of states S, which approaches asymptotically to... [Pg.389]

In the limit k = (a/i) /i with L < all, the system should consist of dipolar dumb-bells. The asymptotic fonn of the direct correlation fiinction (defined tln-ough the Omstein-Zemike equation) for this system (in the absence of a solvent) is given by... [Pg.502]

Figure A3.3.11 The asymptotic cluster size distribution f(x) from LS analysis for Figure A3.3.11 The asymptotic cluster size distribution f(x) from LS analysis for <i= 3.
The above measurements are asymptotic , m that they involve looking at the products of reaction long after the collision has taken place. These very valuable experiments are now complemented by transition-state spectroscopy ... [Pg.874]

The above discussion represents a necessarily brief simnnary of the aspects of chemical reaction dynamics. The theoretical focus of tliis field is concerned with the development of accurate potential energy surfaces and the calculation of scattering dynamics on these surfaces. Experimentally, much effort has been devoted to developing complementary asymptotic techniques for product characterization and frequency- and time-resolved teclmiques to study transition-state spectroscopy and dynamics. It is instructive to see what can be accomplished with all of these capabilities. Of all the benclunark reactions mentioned in section A3.7.2. the reaction F + H2 —> HE + H represents the best example of how theory and experiment can converge to yield a fairly complete picture of the dynamics of a chemical reaction. Thus, the remainder of this chapter focuses on this reaction as a case study in reaction dynamics. [Pg.875]

The quantity is the Feynman path integral centroid density [43] that is understood to be expressed asymptotically as... [Pg.892]

It is usefiil to rewrite the asymptotic part of tlie wavefiinction as... [Pg.963]

The Kolm variational approximation states that for a trial waveftmction i which has the asymptotic fomi... [Pg.968]

Often in numerical calculations we detennine solutions g (R) that solve the Scln-odinger equations but do not satisfy the asymptotic boundary condition in (A3.11.65). To solve for S, we rewrite equation (A3.11.65) and its derivative with respect to R in the more general fomi ... [Pg.973]

This scheme makes it possible to propagate g from small p where g should vanish to large p where an asymptotic analysis can be performed. [Pg.977]

We have expressed P in tenns of Jacobi coordinates as this is the coordmate system in which the vibrations and translations are separable. The separation does not occur in hyperspherical coordinates except at p = oq, so it is necessary to interrelate coordinate systems to complete the calculations. There are several approaches for doing this. One way is to project the hyperspherical solution onto Jacobi s before perfonning the asymptotic analysis, i.e. [Pg.977]


See other pages where Asymptotically is mentioned: [Pg.736]    [Pg.374]    [Pg.16]    [Pg.17]    [Pg.20]    [Pg.56]    [Pg.207]    [Pg.274]    [Pg.381]    [Pg.390]    [Pg.390]    [Pg.476]    [Pg.483]    [Pg.506]    [Pg.696]    [Pg.734]    [Pg.741]    [Pg.752]    [Pg.752]    [Pg.752]    [Pg.753]    [Pg.782]    [Pg.878]    [Pg.892]    [Pg.958]    [Pg.961]    [Pg.961]    [Pg.961]    [Pg.963]    [Pg.968]    [Pg.973]    [Pg.977]    [Pg.977]   
See also in sourсe #XX -- [ Pg.62 , Pg.63 ]




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Activated complex asymptotics

Activation-energy asymptotics

Activation-energy asymptotics in ignition theory

An Introduction to Asymptotic Approximations

Analytic approximations asymptotic solutions

Analytic geometry asymptotes

Approach asymptotes

Approximation errors asymptotic solutions

Asymptote angles

Asymptote high-frequency

Asymptote horizontal

Asymptote intersection

Asymptote left-hand

Asymptote right-hand

Asymptote vertical

Asymptotes

Asymptotes

Asymptotes, Bode plots

Asymptotic

Asymptotic

Asymptotic Approximations and Expansions

Asymptotic Behavior at Low-Frequency

Asymptotic Behavior in the Transport Limited Regime

Asymptotic Behavior of Exchange-Correlation Potentials

Asymptotic Behavior of the Model Equations

Asymptotic Cases of Langmuir Photoadsorption Isotherm

Asymptotic Curie temperatur

Asymptotic Effectiveness Factors for Arbitrary Kinetics

Asymptotic Expansions and Sequences

Asymptotic Hamiltonian

Asymptotic Progress Model

Asymptotic Solution for

Asymptotic Solutions at the Moving Shock Front

Asymptotic Thickness of an Island

Asymptotic algorithms

Asymptotic algorithms critical case

Asymptotic analysis

Asymptotic analysis equilibrium approach

Asymptotic analysis for strongly temperature-dependent rates

Asymptotic analysis function

Asymptotic analysis integral time

Asymptotic analysis susceptibilities

Asymptotic analysis theories

Asymptotic approximation

Asymptotic approximation applications

Asymptotic approximation boundary layers

Asymptotic approximation boundary layers, singularly perturbed problems

Asymptotic approximation defined

Asymptotic approximation equations

Asymptotic approximation expansion

Asymptotic approximation first scale

Asymptotic approximation general examples

Asymptotic approximation initial value problem

Asymptotic approximation matching techniques

Asymptotic approximation nonlinear systems

Asymptotic approximation on Bode diagrams

Asymptotic approximation overview

Asymptotic approximation regular terms

Asymptotic approximation second scale

Asymptotic behavior

Asymptotic behavior analysis

Asymptotic behavior elasticity

Asymptotic behavior finite-size scaling

Asymptotic behavior function

Asymptotic behavior potentials

Asymptotic behavior solutions

Asymptotic behavior techniques

Asymptotic behavior, momentum density

Asymptotic behaviour

Asymptotic behaviour of the sums

Asymptotic boundary condition, incoming

Asymptotic branch

Asymptotic conditions

Asymptotic conditions applications

Asymptotic convergence

Asymptotic cooling

Asymptotic coordinates

Asymptotic corrected functionals

Asymptotic corrections

Asymptotic decay in chaotic flows

Asymptotic density model

Asymptotic dependence

Asymptotic directionality

Asymptotic directions

Asymptotic distribution, sampling

Asymptotic energies, with confined

Asymptotic enhancement factor

Asymptotic equations for angular momenta

Asymptotic exact input/output linearization

Asymptotic expansion

Asymptotic expansion coefficient

Asymptotic expansion methods

Asymptotic expansion scheme

Asymptotic expansions domain perturbation

Asymptotic expansions gauge function

Asymptotic expansions general considerations

Asymptotic expansions regular

Asymptotic expansions singular

Asymptotic expansions uniqueness

Asymptotic expression

Asymptotic flux shape

Asymptotic form

Asymptotic freedom

Asymptotic front formation in reactive ion-exchange

Asymptotic giant branch

Asymptotic giant branch grains from

Asymptotic giant branch stars

Asymptotic giant branch stars evolution

Asymptotic giant branch stars presolar grains

Asymptotic giant branch stars stellar winds

Asymptotic integration method

Asymptotic integration method selected

Asymptotic laws

Asymptotic limits

Asymptotic load

Asymptotic magnitude

Asymptotic method, defined

Asymptotic method, semi

Asymptotic methods

Asymptotic methods domain perturbation method

Asymptotic methods stretching

Asymptotic modal methods

Asymptotic normal form

Asymptotic penetration

Asymptotic phase

Asymptotic potential

Asymptotic power laws

Asymptotic probability density

Asymptotic properties derivative

Asymptotic properties of H(q)

Asymptotic properties of correlations between chain ends Fishers result

Asymptotic properties theorem

Asymptotic property

Asymptotic property equilibria

Asymptotic regime

Asymptotic regions

Asymptotic relationships

Asymptotic representation

Asymptotic scaling

Asymptotic scattering

Asymptotic scattering function

Asymptotic scattering region

Asymptotic self-similarity

Asymptotic self-similarity group

Asymptotic self-similarity nonideal systems

Asymptotic sequence

Asymptotic series

Asymptotic series, defined

Asymptotic shape

Asymptotic solution

Asymptotic solutions convergence

Asymptotic solutions matched

Asymptotic solutions order

Asymptotic solutions regular

Asymptotic state

Asymptotic stochastic models

Asymptotic theory

Asymptotic wavefunctions

Asymptotic yield stress

Asymptotical phase

Asymptotical solution

Asymptotically Brownian chain with independent links

Asymptotically Correct

Asymptotically Correct Approximation

Asymptotically autonomous system

Asymptotically corrected

Asymptotically corrected functionals

Asymptotically orbitally stable

Asymptotically orbitally stable periodic trajectory

Asymptotically scattering

Asymptotically stable

Asymptotically stable globally

Asymptotically stable solution

Asymptotics

Asymptotics

Asymptotics and Perturbations

B Asymptotic Expansions - General Considerations

Bode diagram asymptote

Boundary conditions asymptotic

Boundary layer asymptotic limit

Boundary layers asymptotic expansion

Boundary layers asymptotic solutions

Bubble asymptotic

Chains with local correlations (asymptotically Brownian)

Correction schemes asymptotic corrections

Correlation functions asymptotic behavior

Cross-section, asymptotic

Damkohler-number asymptotics

Direct correlation function asymptotic behavior

Disease progress models asymptotic

Disease progression asymptotic

Dispersivity asymptotic

Distribution functions asymptotic forms

Distribution functions, asymptotic expansion

Drag reduction asymptote, maximum

E Use of the Asymptotic Results at Intermediate Pe (or Sc)

Effectiveness factor asymptotic forms

Electron density asymptotic behavior

Exchange asymptotic behavior

Exchange potential asymptotic behavior

Exponentially asymptotically stable

Fast time scales, asymptotic solution

Formulation through asymptotic methods

Fouling asymptotic

Functional asymptotically corrected

Generalized gradient approximation asymptotic corrections

Heat transfer asymptote

Helium asymptotic expansion

Helium asymptotic giant branch

Ignition theory, activation-energy asymptotics

Improper HF Asymptotic Behaviour

Induced dipole asymptotic form

Integrals asymptotic forms

Interaction energy general asymptotic form

Intermediate asymptotics

Leading order terms, asymptotic solutions

Leungs asymptotic solutions for vapour pressure systems

Local density approximation asymptotic corrections

Low frequency asymptote

Matched Asymptotic Expansions for Coupled Equations

Matched asymptotic expansions

Matched asymptotics

Matching conditions, asymptotic solutions

Method asymptotic analogies

Method matched asymptotic expansions

Method of the asymptotic limit

Model asymptotic

Modelling asymptotic approach

Modelling asymptotic polystochastic

Modelling asymptotic stochastic models

Natural Attenuation of Asymptotic Gasoline-Range Hydrocarbons in Groundwater

Nonlinear susceptibilities asymptotics

Nonzero Asymptote

Optimized effective potential asymptotic properties

Orbitals asymptotic conditions

Partial differential equations asymptotic solutions

Phase space asymptotic

Polarization moments asymptotical

Porod asymptote

Potentials asymptotic properties

Potentials asymptotic structure

Pure integrator asymptote

Rays and asymptotic modal methods

Reaction asymptotic behaviour at long times

Reactivity asymptotic-period

Renormalization and asymptotic form of

Resonance Analysis Information from Asymptotic Wavefunctions

Root locus asymptotes

Schrodinger equation asymptotic behavior

Secular terms, asymptotic solutions

Selected asymptotic integration

Slater potential asymptotic structure

Slip velocity asymptotic

Slow time scales asymptotic solutions

Small parameters asymptotic solutions

Stability asymptotic

Stability asymptotic orbital

Static reactivity asymptotic period

Steady-state concentrations, asymptotic solutions

Stochastic Models Based on Asymptotic Polystochastic Chains

Stochastic Models Based on Asymptotic Polystochastic Processes

Superparamagnetic particles asymptotics

Surface hopping, asymptotic

Taylor expansion, asymptotic solutions

The Asymptotic Giant Branch

The Asymptotic Laws of Freely-Ascending Convective Flows

The Asymptotic Limit, Pr (or Sc)

The Method of Matched Asymptotic Expansion

The asymptotically exact equations

Time scales asymptotic solutions

Transition to Asymptotic Coordinates

Vacuum, asymptotic structure

Virial coefficients asymptotic behavior

Virk s asymptote

Virk’s maximum drag reduction asymptote

Viscosity asymptotic critical behavior

Wave equation asymptotic solution

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