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Jump function

In the simulation mns, the design parameters were chosen as d = (u,D), i.e. the kinetic parameters of breakage and the classification function were fixed. The size distribution of particles in the feed stream was constant, selecting 0 for x = xmax/2 and 0.05 for x > xmax/2, while the initial size distribution of the material in the mill was the same in each run. The largest particle size was chosen xmax = 10-3 m, and the values of the kinetic parameters were Ks = 10-4, a = 1.00, /3 = 3.00, y = 0.60,

classification function [Pg.275]

Every chord drawn to the isotherm associates a point on the unstable part with a point on the stable part. Mathematically, this association can be expressed by a function J(u) which we shall call a jump function. This function can be defined implicitly using Equation 22, but then we would have two values U2... [Pg.274]

In some instances, the precise estimation of the interaction enthalpy AH or the stoichiometry n rather than the affinity constant fCassoc is desired. Then, raising the c-value well over 1000 by an increase of the initial concentration is a beneficial option. The titration curve will then appear as a step (jump) function as in Fig. 3.4 because the titrant added in aliquots from the syringe will be totally converted to the complex in each addition until the reaction partner in the cell is consumed completely. The subsequent injections will only show the spurious heats of dilution and mixing and thus will end in parallel to the molar ratio axis. The jump... [Pg.63]

Figure Cl.5.8. Spectral jumping of a single molecule of terrylene in polyethylene at 1.5 K. The upper trace displays fluorescence excitation spectra of tire same single molecule taken over two different 20 s time intervals, showing tire same molecule absorbing at two distinctly different frequencies. The lower panel plots tire peak frequency in tire fluorescence excitation spectmm as a function of time over a 40 min trajectory. The molecule undergoes discrete jumps among four (briefly five) different resonant frequencies during tliis time period. Arrows represent scans during which tire molecule had jumped entirely outside tire 10 GHz scan window. Adapted from... Figure Cl.5.8. Spectral jumping of a single molecule of terrylene in polyethylene at 1.5 K. The upper trace displays fluorescence excitation spectra of tire same single molecule taken over two different 20 s time intervals, showing tire same molecule absorbing at two distinctly different frequencies. The lower panel plots tire peak frequency in tire fluorescence excitation spectmm as a function of time over a 40 min trajectory. The molecule undergoes discrete jumps among four (briefly five) different resonant frequencies during tliis time period. Arrows represent scans during which tire molecule had jumped entirely outside tire 10 GHz scan window. Adapted from...
Di- and trinucleotides may be used as units instead of the monomers. This convergent synthetic strategy simplifies the purification of products, since they are differentiated by a much higher jump in molecular mass and functionality from the educls than in monomer additions, and it raises the yield. We can illustrate the latter effect with an imaginary sequence of seven synthetic steps, c.g. nucleotide condensations, where the yield is 80% in each step. In a converging seven-step synthesis an octanucleotide would be obtained in 0.8 x 100 = 51% yield, compared with a 0.8 x 100 = 21% yield in a linear synthesis. [Pg.224]

Let V be some known function defined in the domain fic- If v and the boundary dflc = F U F+ U Fj are sufficiently smooth, then we can define values of v at the boundary (the exact smoothness conditions are studied in Section 1.4). In particular, having the values u p+ and u p-, we introduce the jump of v at Fc by the formula... [Pg.18]

Here [ ] is the jump of a function across the crack faces and v is the normal to the surface describing the shape of the crack. Thus, we have to find a solution to the model equations of a thermoelastic plate in a domain with nonsmooth boundary and boundary conditions of the inequality type. [Pg.198]

Let C be a bounded domain with the smooth boundary L, which has an inside smooth curve Lc without self-intersections. We denote flc = fl Tc. Let n = (ni,ri2) be a unit normal vector at L, and n = ( 1,1 2) be a unit normal vector at Lc, which defines a positive and a negative surface of the crack. We assume that there exists a closed continuation S of Lc dividing fl into two domains the domain fl with the outside normal n at S, and the domain 12+ with the outside normal —n at S (see Section 1.4). By doing so, for a smooth function w in flc, we define the traces of w at boundaries 912+ and, in particular, the traces w+ and the jump [w] = w+ — w at Lc. Let us consider the bilinear form... [Pg.234]

Here [ ] is a jump of a function at the crack faces, v is the unit normal vector to the crack shape, and 2h is the thickness of the shell. A similar extreme crack shape problem for a plate was considered in Section 2.4. [Pg.285]

A function is said to be piecewise continuous on an intei val if it has only a finite number of finite (or jump) discontinuities. A function/on 0 < f < oo is said to be of exponential growth at infinity if there exist constants M and Ot such that l/(t)l < for sufficiently large t. [Pg.462]

EXAFS data are multiplied by ( = 1, 2, or 3) to compensate for amplitude attenuation as a function of k, and are normalized to the magnitude of the edge jump. Normalized, background-subtracted EXAFS data, versus k (such as... [Pg.220]


See other pages where Jump function is mentioned: [Pg.296]    [Pg.296]    [Pg.296]    [Pg.35]    [Pg.26]    [Pg.27]    [Pg.265]    [Pg.1693]    [Pg.296]    [Pg.296]    [Pg.296]    [Pg.35]    [Pg.26]    [Pg.27]    [Pg.265]    [Pg.1693]    [Pg.2123]    [Pg.2496]    [Pg.2536]    [Pg.98]    [Pg.509]    [Pg.314]    [Pg.51]    [Pg.107]    [Pg.119]    [Pg.124]    [Pg.149]    [Pg.171]    [Pg.229]    [Pg.249]    [Pg.261]    [Pg.371]    [Pg.395]    [Pg.190]    [Pg.193]    [Pg.511]    [Pg.138]    [Pg.58]    [Pg.62]    [Pg.104]    [Pg.209]    [Pg.104]    [Pg.196]    [Pg.117]    [Pg.292]   
See also in sourсe #XX -- [ Pg.26 ]




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