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Beats

The tempo of some popular musical styles. This represents only a rongh gnide each style covers a range of possible tempos. [Pg.59]

Measures are typically separated by lines in a score. The ruler at the top of the timeline in AQD divides time into measures and thousandths of a second. [Pg.59]

The time signature of a piece of music is completely unrelated to the speed of the music (tempo) and is a relatively unimportant concept in ACID. However, it is important in more traditional compositional techniques and occasionally affects ACID, especially at the loop level. [Pg.60]

ACID projects do not really have a time signature, although the Grid bar divides a project up into beats and measures. Loops, on the other hand, are almost always recorded in some time signature, which affects how a loop plays and how it mixes with other loops that may have been recorded in different time signatures. See Chapter 9 for more information on nsing and changing the way beats are measured in loops. [Pg.60]

Notice that the grid marks do not necessarily line up with the Ruler (as illustrated by setting the Grid Spacing to Triplets), which divides the project into measures with four beats subdivided into thousands of a second 1.3.937. [Pg.61]


As already mentioned, electronically resonant, two-pulse impulsive Raman scattering (RISRS) has recently been perfonned on a number of dyes [124]. The main difference between resonant and nom-esonant ISRS is that the beats occur in the absorption of tlie probe rather than the spectral redistribution of the probe pulse energy [124]. These beats are out of phase with respect to the beats that occur in nonresonant ISRS (cosinelike rather tlian sinelike). RISRS has also been shown to have the phase of oscillation depend on the detuning from electronic resonance and it has been shown to be sensitive to the vibrational dynamics in both the ground and excited electronic states [122. 124]. [Pg.1211]

Leonhardt R, Holzapfel W, Zinth W and Kaiser W 1987 Terahertz quantum beats in molecular liquids Chem. Phys. Lett. 133 373-7... [Pg.1230]

Okamoto H and Yoshihara K 1991 Femtosecond time-resolved coherent Raman scattering from p-carotene in solution. Ultrahigh frequency (11 THz) beating phenomenon and sub-picosecond vibrational relaxation Chem. Phys. Lett. 177 568-71... [Pg.1230]

Walmsiey I A, Wise F W and Tang C L 1989 On the difference between quantum beats in impulsive stimulated Raman scattering and resonance Raman scattering Chem. Phys. Lett. 154 315-20... [Pg.1230]

The low MW power levels conuuonly employed in TREPR spectroscopy do not require any precautions to avoid detector overload and, therefore, the fiill time development of the transient magnetization is obtained undiminished by any MW detection deadtime. (3) Standard CW EPR equipment can be used for TREPR requiring only moderate efforts to adapt the MW detection part of the spectrometer for the observation of the transient response to a pulsed light excitation with high time resolution. (4) TREPR spectroscopy proved to be a suitable teclmique for observing a variety of spin coherence phenomena, such as transient nutations [16], quantum beats [17] and nuclear modulations [18], that have been usefi.il to interpret EPR data on light-mduced spm-correlated radical pairs. [Pg.1566]

Kothe G, Weber S, BittI R, Ohmes E, Thurnauer M and Norris J 1991 Transient EPR of light-induced radical pairs in plant photosystem I observation of quantum beats Chem. Rhys. Lett. 186 474-80... [Pg.1588]

Weber S, Ohmes E, Thurnauer M C, Norris J R and Kothe G 1995 Light-generated nuclear quantum beats a signature of photosynthesis Proc. Natl Acad. Sc/. USA 92 7789-93... [Pg.1588]

BittI R, van der Est A, Kamlowski A, Lubitz W and Stehlik D 1994 Time-resolved EPR of the radical pair bacterial reaction centers. Observation of transient nutations, quantum beats and... [Pg.1621]

The transition probabilities obtained due to the above two modified beat-ments of single-surface calculations need to be compared with those riansition probabilities obtained by two surface calculations that confirms the validity of these former heatments. [Pg.46]

These new wave functions are eigenfunctions of the z component of the angular momentum iij = —with eigenvalues = +2,0, —2 in units of h. Thus, Eqs. (D.l 1)-(D.13) represent states in which the vibrational angular momentum of the nuclei about the molecular axis has a definite value. When beating the vibrations as harmonic, there is no reason to prefer them to any other linear combinations that can be obtained from the original basis functions in... [Pg.621]

Quantum chemical descriptors such as atomic charges, HOMO and LUMO energies, HOMO and LUMO orbital energy differences, atom-atom polarizabilities, super-delocalizabilities, molecular polarizabilities, dipole moments, and energies sucb as the beat of formation, ionization potential, electron affinity, and energy of protonation are applicable in QSAR/QSPR studies. A review is given by Karelson et al. [45]. [Pg.427]

Heats of reaction Heats of reaction can be obtained as differences between the beats of formation of the products and those of the starting materials of a reaction. In EROS, heats of reaction arc calculated on the basis of an additivity scheme as presented in Section 7.1. With such an evaluation, reactions under thermodynamic control can be selected preferentially (Figure 10.3-10). [Pg.552]

All m oleciilar orbitals are com biiiations of the same set of atom ic orbitals they differ only by their LCAO expansion coefficients. HyperC hem computes these coefficients, C p. and the molecular orbital energies by requiring that the ground-state electronic energy beat a minimum. That is, any change in the computed coefficients can only increase the energy. [Pg.43]

The beat method of drying, if time permits, is to place the crystals in a desiccator containing an appropriate substance (usually anhydrous calcium chloride, silica gel, or concentrated sulphuric acid) to absorb the solvent. More eflicient and more rapid drying is obtained with the aid of a vacuum desiccator (see Section 11,38 and Fig. 77, 38, 1). [Pg.132]

MO-Valeric acid is converted by phosphorus and bromine into a-bromo-tso-valeryl bromide the latter upon beating with urea gives bromural ... [Pg.999]

For the aqueous solution Place 16mL of cool distilled water into your bubbler setup. The "expected, not theoretical, yield of Methylamine from this amount of reactants is 7 grams. I have used a plastic aquarium aerator tube as the bubbler with excellent results. Sure beats using an inverted funnel. [Pg.264]

Using MRI as a substitute for X ray tomography IS only the first of what are many medical applica tions More he on the horizon If for example the rate of data acquisition could be increased then it would become possible to make the leap from the equivalent of still photographs to motion pictures One could watch the inside of the body as it works— see the heart beat see the lungs expand and con tract—rather than merely examine the structure of an organ... [Pg.546]

In summary, we see that the first two sources of deviation can be dealt with quantitatively, while the last two are dispatched by joining them in compensation for one another. (If you can t beat em, join em ) By convention, the coil dimensions under 0 conditions are given the subscript 0, so we write... [Pg.61]


See other pages where Beats is mentioned: [Pg.18]    [Pg.128]    [Pg.138]    [Pg.200]    [Pg.200]    [Pg.200]    [Pg.201]    [Pg.425]    [Pg.124]    [Pg.805]    [Pg.1210]    [Pg.1236]    [Pg.1253]    [Pg.3052]    [Pg.130]    [Pg.244]    [Pg.88]    [Pg.137]    [Pg.458]    [Pg.173]    [Pg.173]    [Pg.225]    [Pg.50]    [Pg.199]    [Pg.252]    [Pg.394]    [Pg.323]    [Pg.524]    [Pg.109]    [Pg.109]    [Pg.109]    [Pg.362]   
See also in sourсe #XX -- [ Pg.78 , Pg.133 , Pg.134 ]

See also in sourсe #XX -- [ Pg.52 ]

See also in sourсe #XX -- [ Pg.59 ]




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Adsorption beats

Angular Beatings

Anthracene vibrational quantum beats

Anticrossing, Quantum-Beat, and Double-Resonance Experiments

Atrial ectopic beats

Atrial premature beats

Beat frequency

Beat frequency/pattern

Beat length

Beat modulation

Beat pattern

Beat period

Beat phenomenon

Beat resonance

Beat resonance ground state

Beat signal

Beat spectroscopy

Beat structure

Beating

Beating = optical mixing

Beating Leukaemia

Beating experiment

Beating frequency

Beating of Chemical Pulps

Beating pattern

Beats alignment

Beats in laser-interrogated dichroism

Beats magnetic

Beats rotational

Biirgi, Hans-Beat

Ciliary beat frequence

Ciliary beat frequency

Controlling Structure The World of Heat and Beat

Decay quantum beats

Dynamical beats

Ectopic beats

Electron beats

End on Beat

Escape beats

Forward scattering, quantum-beats

Gallium Beating Heart

Gold beating

Heat and beat

Heterodyne beating

Heterodyne-beat method

Homodyne beating

Junctional premature beats

Klarsfeld, Beate

Laser light beating spectroscopy

Light beats

Light-beating spectroscopy

Molecular Quantum-Beat Spectroscopy

Molecular quantum beats

Photon beat experiments

Premature beats

Pulping operations beating

Quantum Beats in the Singlet Probability

Quantum beat Stark

Quantum beat Zeeman

Quantum beat experiment

Quantum beat exponential decay

Quantum beat fluorescence intensity

Quantum beat frequency, rotational level

Quantum beat hyperfine

Quantum beat many level

Quantum beat modulation depth

Quantum beat phase

Quantum beat polarization

Quantum beat population

Quantum beat pump/probe

Quantum beat recurrences

Quantum beat spectral distribution

Quantum beat spectroscopy

Quantum beat-modulated fluorescence decay

Quantum beats

Quantum beats and level crossing

Quantum beats ground state

Quantum beats in forward scattering

Quantum beats magnetic

Quantum-beat effect

Quantum-beat laser

Quantum-beat pattern

Refining processes beating

Rotational quantum beats

Scenes beats

Screw beat

Self-beat method

Self-beat spectroscopy

Self-beat techniques

Self-beating

Sinus beat

Slow-beat

System beating

The Structures of Elemental Sulfur Beat Meyer

Time-resolved effects, quantum beats

Valve beat

Ventricular premature beats

Vibrational quantum beats

Vibrational quantum beats phases

Wave beat

Wiggle-beat method

Zeeman effect quantum beat

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