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Probability integral

DyM] Dym, H. and H. McKean, Fourier Series and Integrals (Probability and Matbematical Statistics, Vol. 14) Academic Press, San Diego, 1972. [Pg.380]

Integration of the dsDNA into the host DNA can occur at many places. The mechanism of integration probably resembles that used by phage A, (Fig. 27-27) and accounts for the duplication of host sequences at the two ends of the integrated virus. A virally encoded integrase catalyzes the process (see also Chapter 27, Section D,3).715 717 It is the integrated virus that is transcribed to form new (+) viral RNA strands. [Pg.1651]

Figure 3.27 Control results with broader first pulse. Yield ratios of Li(2p) (solid curve) and Li(3p) (dashed curve) as a function of x = Ad for the integrated probability P = dE Pq(E) with wavelengths A, = 803.9 nm and X2 = 1028 nm and pulse widths Alt0 = 60cm1 and A2(B = 100cm. Superposition state consists of v = 14, J — 21 and J — 23, and v = 15, J = 21 and J — 22 levels. (From Fig 8, Ref. [95].)... Figure 3.27 Control results with broader first pulse. Yield ratios of Li(2p) (solid curve) and Li(3p) (dashed curve) as a function of x = Ad for the integrated probability P = dE Pq(E) with wavelengths A, = 803.9 nm and X2 = 1028 nm and pulse widths Alt0 = 60cm1 and A2(B = 100cm. Superposition state consists of v = 14, J — 21 and J — 23, and v = 15, J = 21 and J — 22 levels. (From Fig 8, Ref. [95].)...
Fig. 4. Distributions of integral probabilities of electron excitations to the energy ranges of [5n, 5(n + 1)] eV in fl decay of (a) LiT, (b) LiOT, (c) CH3T, (d) C2H3T, (e) C2H5T, (f) C3H7T, (g) NH2-C2HT, and (h) NH2-C2H4T in the SCF approximation. Fig. 4. Distributions of integral probabilities of electron excitations to the energy ranges of [5n, 5(n + 1)] eV in fl decay of (a) LiT, (b) LiOT, (c) CH3T, (d) C2H3T, (e) C2H5T, (f) C3H7T, (g) NH2-C2HT, and (h) NH2-C2H4T in the SCF approximation.
Fig. 10. Distribution of integral probabilities of electron excitations to the energy ranges... Fig. 10. Distribution of integral probabilities of electron excitations to the energy ranges...
The normal probability function as expressed by Eq. (14) is useful in theoretical treatments of random errors. For example, the normal probability distribution function is used to establish the probability Hthat an error is less than a certain magnitude 8, or conversely to establish the limiting width of the range, —8 to 8, within which the integrated probability P, given by... [Pg.45]

The integrated probability P for a normal error distribution i.e., the statistical probability that the error lies between the specified limits. The value of P is given by the shaded area (a) standard deviation error limits, (T, (6) 95 percent confidence limits, 1.96cr. [Pg.46]

Caution is required when using tables from some sources, since for those tables the integration of Eq. (28) is from to frather than from to t. If we designate the corresponding integrated probability as P, then... [Pg.50]

The probability that A or A - j arrives at the detector has to be integrated over all internal energies. The ratio V of the integrated probabilities ... [Pg.28]

The starting point for this task is an expression of the fact that the integrated probability is conserved. As already discussed, this implies that the time derivative of P should be given by the gradient of the flux xP, that is. [Pg.288]

If N is the total number of particles then NP(x) is the particles number density. The conservation of the integrated probability, that is, f d. -P(x, t) = 1 is a statement that the total number of particles is conserved In the process under discussion particles are neither destroyed nor created, only move in position space. [Pg.289]

For specificity we take xi > xq. Because the question involves the first time of the particle arrival to x, we may impose absorbing boundary conditions at this point, that is, 7 (xi, Z) = 0 for all t. Given this boundary condition, the integrated probability to make this first arrival at xi between times 0 and t is equal to the probability to remain in the interval (—oo,xi) at time t, that is. [Pg.294]

Utility of the present type of equation of state for tabulating thermodynamic properties has been demonstrated in major NBS publications on methane, ethane, and propane. For readers accustomed to BWR-type equations, with their attendant difficulties, the programming of the present equation, including numerical integrations, probably is no more complicated, and may be logically much simpler. [Pg.360]

A surface can be characterized by many, many parameters. In fact it is easier to define a new parameter than to come with a thorough analysis of the usefulness of the already existing parameters. Parameters are defined in many ISO standards (see references). They can be separated in 2-D and 3-D parameters, and further separation is possible in amplitude parameters, spacing parameters, hybrid parameters, parameters derived from integrated probability density curves, and topological parameters. [Pg.1200]

The integrated probability density curve of the ordinates is also known as the... [Pg.1201]

To establish a numerical calculus module is indispensable, due to the requisites of the calculus procedures, such as numerical integrations, probability distributions and regression analysis. It is, therefore, in a permanent contact with the other DSS modules, except with the cadastre module described in previous section, with which develops a lower intensity contact. It can be defined hke a supplement to the software, but it has strong influence on the performance of other modules, what emphasize its importance and the necessity to define it as a module of this DSS. [Pg.94]

Does the integrated probability density between r = 0 and r = Oq increase, decrease, or stay the same as the nuclear charge increases ... [Pg.132]

Let us now analyze the reason for the system-size dependence of FHn) from Equation 1.7. As the theoretical analysis shown above can calculate F ri) from F n) itself, it is possible to find out the kinetic spinodal limit for a given system size where F(n) is implied to be known. F ri) is limited by the inclusion of integral probability of all smaller clusters present in the system. Therefore, as the system size is increased, the probability of a particular size of the largest cluster will involve a larger number of small cluster probability integral. As a result, the precritical minimum of F n) will move toward a larger value, and the free energy barrier A.FHn ) will decrease. [Pg.8]

The function p(AG ) is the density of states for which the reaction coordinate is the same for DA to D A and the energy change in the reaction AE) is zero. Its pre-exponential factor, AnAksT) ", normalizes the integrated probability of finding a given value of AE, which is a Gaussian function of AE (Eq. 4.56). The density of states has dimensions of reciprocal energy. [Pg.252]

Fig. 6.5 Wavefunctirais and transition dipole magnitudes for an anharmonic vibrational mode. (A) Relative amplitudes of wavefunctions 0-3 of an oscillator with the Morse potential illustrated in Fig. 2.1 (curves 0,7,2 and i, respectively). Wavefimction 13 is shown in (B), and 14 in (C). The abscissa is the relative departure of the vibrational coordinate (r) fixnn its equilibrium value (ro). The curves are normalized to the same integrated probabilities (squares of the wavefimction amplitudes) in the range 0 < (r — r )/r < 11.5, and are scaled relative to the peak of wavefimction 0. This normalization considers only part of wavefimctitm 14, which is at the dissociation energy and continues indefinitely off scale to the right. (D) The relative magnitudes of the transition dipoles ((Xm Xo)) for excitati Fig. 6.5 Wavefunctirais and transition dipole magnitudes for an anharmonic vibrational mode. (A) Relative amplitudes of wavefunctions 0-3 of an oscillator with the Morse potential illustrated in Fig. 2.1 (curves 0,7,2 and i, respectively). Wavefimction 13 is shown in (B), and 14 in (C). The abscissa is the relative departure of the vibrational coordinate (r) fixnn its equilibrium value (ro). The curves are normalized to the same integrated probabilities (squares of the wavefimction amplitudes) in the range 0 < (r — r )/r < 11.5, and are scaled relative to the peak of wavefimction 0. This normalization considers only part of wavefimctitm 14, which is at the dissociation energy and continues indefinitely off scale to the right. (D) The relative magnitudes of the transition dipoles ((Xm Xo)) for excitati<m from the lowest level (n = 0) to each of the other levels below the dissociation limit. Most molecular vibrational potentials are more harmonic than the potential used for this illustrati(m...
Detailed probabilities Pc o. b, b), Pc co(b, b), dco b) are assumed to be calculated on the base of dynanrical modek, while average integral probabilities of adsorption, direct nonreactive and reactive desorption - on the base of thermodynamical and phenomenological approaches together with experimental data. For example, the eulsorption probability may be presented as a sum of the probabilities related to reactive (r) and nonreactive (n) adsorption channek... [Pg.119]

The integral, which can be obtained from tables of error functions, has the value of 0 to 1/2 for x = 0 to oo and similarly for x 0 to — oo. This merely shows that whatever one has lost from one side of the boundary will have been gained on the other side. The plot of concentration gradient against x (obtained from refractive index changes) gives an integral probability density curve... [Pg.266]

The integral represents a summation of infinitesimal probabilities over the entire space, and therefore cannot be infinite - actually, there are ways of ensuring that its value be equal to 1, as an integral probability should (the normalization of the... [Pg.54]

The last thing to do is to normalize the wave functions so once again we set the integrated probability to 1. [Pg.245]


See other pages where Probability integral is mentioned: [Pg.1065]    [Pg.643]    [Pg.417]    [Pg.31]    [Pg.676]    [Pg.507]    [Pg.125]    [Pg.437]    [Pg.70]    [Pg.44]    [Pg.299]    [Pg.1065]    [Pg.167]    [Pg.387]    [Pg.387]    [Pg.457]    [Pg.870]    [Pg.531]    [Pg.589]    [Pg.140]    [Pg.141]    [Pg.409]    [Pg.2269]    [Pg.324]   
See also in sourсe #XX -- [ Pg.516 , Pg.531 , Pg.532 , Pg.621 , Pg.622 ]




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