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Fig. 3.24 Global configuration probabilities at t=10 computed for rule R126. The probability for the zero state, P a = 0) =. 121, is not shown. Fig. 3.24 Global configuration probabilities at t=10 computed for rule R126. The probability for the zero state, P a = 0) =. 121, is not shown.
To calculate the most probable configuration, we start with equation (10.15) and take the logarithm of both sides to get... [Pg.514]

The molecular models upon which the theoretical intensity curves of Fig. 4 are based have. been chosen to distinguish between the three most probable configurations of fluorine nitrate. The... [Pg.638]

Figure 4. Probability of different trajectory events versus the Cla-C-Clb angle 0, which is evaluated at the first inner turning point (ITP) for complex formation and at the central barrier for the trajectories which attain this configuration ( ), association probability (o), probability of attaining the central barrier. fre = 0.5 kcal/mol and nc-cib = 6. Trot = 0 K in (a) and 300 K in (b) (from ref. 38). Figure 4. Probability of different trajectory events versus the Cla-C-Clb angle 0, which is evaluated at the first inner turning point (ITP) for complex formation and at the central barrier for the trajectories which attain this configuration ( ), association probability (o), probability of attaining the central barrier. fre = 0.5 kcal/mol and nc-cib = 6. Trot = 0 K in (a) and 300 K in (b) (from ref. 38).
Assuming that after their previous swap the two walks were sufficiently long to be in the asymptotic regime, this means that transient behavior has elapsed and the system has relaxed to equilibrium for the respective parameters. Then, the joint configurational probability density just before the current swap is simply... [Pg.287]

A more detailed discussion of the subtleties in formulating correct acceptance criteria can be found in [1], For the purpose of this chapter, we will focus on ensembles in general rather than acceptance criteria specifically, with the understanding that once the configurational probabilities are fixed the criteria follow directly. With this in mind, we will sometimes present the microstate probability scheme without discussing the associated acceptance criteria. [Pg.354]

The probable configuration of isosucrose was systematically discussed by Georg,who thought that the yield was much greater when the beta anomer, rather than the equilibrium mixture or the alpha anomer, of 2,3,4,6-tetraacetyl-D-glucose was used in the condensation. Analogy with tetraacetyl-D-fructopyranosyl chloride, which yielded the acetylated... [Pg.29]

Figure 13. Schematic showing the probable configuration of atomic steps surrounding the (001) terrace at a saddle point of a 2-D grating on Si(OOl). Note that if the surrounding steps are mono-atomic they are all of the same type and will prefer to be all of the low energy type(SA) if the saddle point moves up or down by one step unit the surrounding steps will all be of the high energy type. This is believed to be the basic reason for the preference in type of saddle point terrace. Figure 13. Schematic showing the probable configuration of atomic steps surrounding the (001) terrace at a saddle point of a 2-D grating on Si(OOl). Note that if the surrounding steps are mono-atomic they are all of the same type and will prefer to be all of the low energy type(SA) if the saddle point moves up or down by one step unit the surrounding steps will all be of the high energy type. This is believed to be the basic reason for the preference in type of saddle point terrace.
Li is an atomic configuration of the site i, with probability p Li) in the GWF and po Li) in the HWF respectively, whereas L is a configuration of the remaining sites of the lattice. Note that this prescription does not change the phase of the wave function as the eigenvalues of the operators Ti are real. The correlations are local, and the configuration probabilities for different sites are independent. [Pg.512]

Imagine the liquid to be divided into microscopic cells as shown in Fig. 22. The volume of a cell must be chosen carefully to have a particular, special value, described later. A cell is small enough so that occasionally it may be empty. At other times one or many molecules may occupy the cell. Consider all possible configurations of all the molecules in all the cells. The most probable configuration will exist for a large mass for a long time. In this respect the most probable distribution is a description of the steady-state condition. The problem is to calculate the most likely distribution. Once this is known, the rate of formation of any density in a cell can be calculated. [Pg.40]

W2 is then proportional to the probability of electron 1 being found at position x1 and electron 2 at xz. The significant points to be noted are (1) that if = x2 the wave function vanishes so that the configuration has zero probability and (2) that there are two equivalent most probable configurations in which the electrons are in different halves of the wire. These two configurations differ only in the numbering of the electrons and are otherwise indistinguishable. [Pg.183]

Ignoring the excluded volume interaction we deal with independent chains. It thus is sufficient to consider a single chain system. The spatial dimension is found to play an important role in the theory, and we therefore work with general dimension d. Wo write the configurational probability for a noninteracting Gaussian chain as... [Pg.21]

High spin iron(II) complexes are obtained with weak or medium strength ligands. The electron relaxation times are rather short (r = 10 12 s) as the electron configuration probably is as shown in Fig. 5.22 and the excited levels are close in energy for the same reasons as in the case of low spin iron(III). Consistently, the NMRD profile of Fe(OH2) +, obtained from Mohr salt ((NH4)2Fe(S04)2 6H2O), reported in Fig. 5.23, does not exhibit any dispersion below 50 MHz of proton Larmor frequency. [Pg.160]


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Configurational probability

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