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Valley curved

Figure 2. For the Henon-Heiles potential with X=80 (equation (2) upper broken curve, ridge profile (6=0, 2tt/3 4tt/3) lower broken curve, valley bottom profile (6=Tr/3, ir, 5tt/3)), adiabatic potential curves (p) (equation 12) and corresponding nonadiabatic coupling matrix elements Pj j (p) (equation (13)) as a function of radial coordinate p for and A2 symmetry. Positions of levels indicated by continuous segments for those identified as quasiperiodic [3l] and by dotted segments for those not identified as quasiperiodic. Figure 2. For the Henon-Heiles potential with X=80 (equation (2) upper broken curve, ridge profile (6=0, 2tt/3 4tt/3) lower broken curve, valley bottom profile (6=Tr/3, ir, 5tt/3)), adiabatic potential curves (p) (equation 12) and corresponding nonadiabatic coupling matrix elements Pj j (p) (equation (13)) as a function of radial coordinate p for and A2 symmetry. Positions of levels indicated by continuous segments for those identified as quasiperiodic [3l] and by dotted segments for those not identified as quasiperiodic.
That is the usual way the simplest branching takes place Somewhere at the slope in a BP a valley continues as a cirque, and two pitchfork like curved valleys deviate from this valley, more or less perpendicular to the left and to the right. [Pg.154]

An arch dam, on the other hand, relies on its shape to withstand the pressure of the water behind it. The arch curves back upstream and the force exerted by the water is transferred through the dam into the river valley walls and to the river floor. They are normally constructed in deep gorges where the geological foundations are veiy sound. The United States s Hoover Dam is an example of a concrete arch dam. [Pg.648]

Equation (57) can be used to calculate the Cmax and Cmin values on the plasma concentration plateau by substituting values for t that correspond to the peaks and valleys in the Cp versus t curve. Thus, if t = tmax (the time of the peak), Eq. (57) gives Cmax ... [Pg.99]

FIGURE 13 UNNORMALIZED TRIAL CURVE FROM CONTOUR PLOT VALLEY (F <0.005, O k = 1.25/min, V. = 0.7 [Pg.254]

Figure 8.21 shows model functions both for ideal and realistic cases. The dotted curve demonstrates the case of the ideal and infinitely extended ID lattice. Flere every time the ghost is displaced by an integer multiple of the lattice constant (x/L = 1, 2, 3,...), the correlation returns to the ideal value 1. For the ID lattice not only x0, but also the valley depths... [Pg.160]

The case of low distortion is shown in the dashed-dotted-dotted curve from Fig. 8.21. The first minimum still reaches the ideal valley depth. Therefore it is still possible to determine the linear composition of the material from Eq. (8.68). [Pg.161]

Once I found myself on a hill with a crowd of people. The view looked out over a curved plain. It was the interior of a cylindrical space colony miles wide with vast sweeps of windows alternating with farmlands and towns scattered along the floors of the valleys. I knew somehow that in the particular future I was seeing, hundreds of millions of people lived in such cylindrical worlds. The teeming worlds that populate the galaxy in the... [Pg.158]

Fig. 4.2. Valley of nuclear stability and nuclear binding energy. Top Beyond Z = 20, the distribution of stable isotopes curves downwards in the (N, Z) plane, showing that stable nuclei grow richer in neutrons as their atomic numberincreases. Bottom The binding energy per nucleon, A / A, is a measure of how robust a nuclear species is in the face of attempts to break it up. This curve reaches a peak around iron. Fig. 4.2. Valley of nuclear stability and nuclear binding energy. Top Beyond Z = 20, the distribution of stable isotopes curves downwards in the (N, Z) plane, showing that stable nuclei grow richer in neutrons as their atomic numberincreases. Bottom The binding energy per nucleon, A / A, is a measure of how robust a nuclear species is in the face of attempts to break it up. This curve reaches a peak around iron.
The surface viscosity effect on terminal velocity results in a calculated drag curve that is closer to the one for rigid spheres (K5). The deep dip exhibited by the drag curve for drops in pure liquid fields is replaced by a smooth transition without a deep valley. The damping of internal circulation reduces the rate of mass transfer. Even a few parts per million of the surfactant are sometimes sufficient to cause a very radical change. [Pg.83]

Effect of Dust Storm Episodes on the Average Weekly Aerosol Concentrations. The total and fine gravimetric mass averaged over all sites for each week, is depicted in Figure 6. The error bars for the Owens Valley curves represent the standard deviation of the mean. The errors on the Mono Lake curve represent the sampling system error of 15%. The mean weekly values do not include the three dust storm episodes sampled separately, but do include several additional dust storms. Table I lists all the dust storms reported by the sampler operators. [Pg.333]

Figure 13. Definition of exciton chirality. Summation of the two Cotton effects (broken lines) separated by Davydov splitting A). gives the curves shown in solid lines. Adapted from N. Harada, K. Nakanishi. Circular Dichroic Spectroscopy - Exciton Coupling in Organic Stereochemistry, University Science Books. Mill Valley, California. 1983... Figure 13. Definition of exciton chirality. Summation of the two Cotton effects (broken lines) separated by Davydov splitting A). gives the curves shown in solid lines. Adapted from N. Harada, K. Nakanishi. Circular Dichroic Spectroscopy - Exciton Coupling in Organic Stereochemistry, University Science Books. Mill Valley, California. 1983...
The presence of well-defined peaks and valleys in I-V curves indicates that LEED is indeed not a purely two-dimensional surface diffraction technique. There is a finite penetration and diffraction takes place in the first 3 to 5 atomic layers. The depth of penetration affects peak widths markedly the shallower the penetration, the broader is the diffraction peak. By simulating such I-V curves numerically with the help of a suitable theory, it is often possible to determine the relative positions of surface atoms (including therefore bond lengths and bond angles) " it may also be possible to indicate roughly the thermal vibration state of surface atoms l However, a chemical identification of the surface atoms is not possible with LEED. [Pg.26]

Let any smooth curve C be defined that leads asymptotically from the reaction to the product valley with curvature of only one sign. Coordinates may be defined by the perpendicular distance of a point from this curve (x) and the distance of the projection along the line (s). In these coordinates the classical kinetic energy for internal motion of the particles is... [Pg.102]

Figure 1.8—Resolution factor. Simulation of chromatographic peaks using two identical Gaussian curves side by side, and the visual aspect of a separation corresponding to the R values indicated on the diagrams. At R = 1.5, it is said that the peaks are baseline resolved the valley between the peaks does not exceed 2%. Figure 1.8—Resolution factor. Simulation of chromatographic peaks using two identical Gaussian curves side by side, and the visual aspect of a separation corresponding to the R values indicated on the diagrams. At R = 1.5, it is said that the peaks are baseline resolved the valley between the peaks does not exceed 2%.
Was this your answer Neither, because iron is at the very bottom of the energy-valley curve of Figure 4.29. If you fuse two iron nuclei, the product lies somewhere to the right of iron on the curve, which means the product has a higher mass per nucleon. If you split an iron nucleus, the products lie... [Pg.132]

Again t is defined apart from terms of order unity, i.e., terms without the Arrhenius factor. Within this margin it may be identified with the first-passage time from any point inside the valley to some curve surrounding the entire crater. The mean first-passage time t(x, y) starting from the point x, y obeys... [Pg.342]


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Valleys

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