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Shape lining

Quantification of overlapping S5nnmetrical bell-shaped lines 30... [Pg.1]

Quantification of overlapping symmetrical bell-shaped lines... [Pg.30]

Figure 1.1a shows the Gaussian function. The Lorentzian shape is similar to the Gaussian, but falls off more slowly. The Doppler shift of radiation from an emitting molecule is proportional to its velocity component in the direction of observation. The one-dimensional distribution of speeds in a gas is a Gaussian function. (See any physical-chemistry text.) Hence when Doppler broadening is dominant, we get a Gaussian-shaped line. [Pg.322]

Figure 7.23 Bode plot of open-loop gain of OA (lines A and B), with gain-frequency shaping (lines G and H), cell attenuation (line C), and the product of H and C (line E). See the text for details. Figure 7.23 Bode plot of open-loop gain of OA (lines A and B), with gain-frequency shaping (lines G and H), cell attenuation (line C), and the product of H and C (line E). See the text for details.
FIGURE 13.13 The characteristic shapes (lines 1 and 3) of the time dependence of the concentration of a reactant during a second-order reaction. The lower gray lines (2 and 4) are the curves for first-order reactions with the same initial rates. Note how the concentrations for second-order reactions fall away much less rapidly at longer times than those for first-order reactions do. [Pg.761]

A 62-year-old man with diabetes was given metformin 750 mg bd and his blood glucose concentration fell from 22 to 15 mmol/1 within 4 days. The dose of metformin was increased to 850 mg bd and the blood glucose concentration fell to 8.7 mmol/1 over the next week. Within 2 days of starting therapy his vision became blurred. Slit lamp examination 2 weeks later showed cracked shaped lines on the lens. The cracks resolved spontaneously by 3 months. [Pg.371]

This is graphically represented by a broken volcano-shaped line (Fig. 20). The coordinates of the peaks of these curves are E0 = u/2, q = s/2. From the peaks straight lines extend at an angle of 45° to the axis of abscissae. Each reaction has its particular volcano-like curve, and each catalyst (as well as the group of atoms A, B, C, and D) its secant E, for example, EG, Fig. 20. It is found that the activation energy... [Pg.122]

Students will express movement and ideas through the use of nonobjective shapes, lines, and colors in paintings. [Pg.131]

FIG. 25.—ESR spectra of irradiated starch (20 kGy).103 Line AA, initial shape line BB, final shape after 95 days. [Pg.285]

Bessemerising.—For this purpose basic converters are used. These are cylindrical in shape, lined with magnesite bricks, and measure 30 feet in length and 10 feet in diameter. A stack rises from the centre to enable the gases to escape, and the necessary air-blast is supplied through 44 tuyeres at the rate of 6500 cubic feet per minute, and under a pressure of 10-5 lb. [Pg.85]

Derive an expression in terms of T2 for the width at half-height of a Gaussian-shaped line. [Pg.47]

Logistic function generally yields a sigmoidally shaped line similar to that defined by drug dose-response relationships in biological systems. It is defined by y = (1 + e-(a + bx))-1. [Pg.374]

The chemical reaction between a solid and a reactive fluid is of interest in many areas of chemical engineering. The kinetics of the phenomenon is dependent on two factors, namely, the diffusion rate of the reactants toward the solid/fluid interface and the heterogenous reaction rate at the interface. Reactions can also take place within particles, which have accessible porosity. The behavior will depend on the relative importance of the reaction outside and inside the particle. Fractal analysis has been applied to several cases of dissolution and etching in such natural occurring caves, petroleum reservoirs, corrosion, and fractures. In these cases fractal theory has found usefulness for quantifying the shape (line or surface) with only a few parameters the fractal dimension and the cutoffs. There have been some attempts to use a fractal dimension for reactivity as a global parameter. Finally, fractal concepts have been used to aid in the interpretation of experimental results, if patterns quantitatively similar to DLA are obtained. [Pg.1055]

A FIGURE 6-4 Principal types of epithelium. The apical and basolateral surfaces of epithelial cells exhibit distinctive characteristics, (a) Simple columnar epithelia consist of elongated cells, including mucus-secreting cells (in the lining of the stomach and cervical tract) and absorptive cells (in the lining of the small intestine), (b) Simple squamous epithelia, composed of thin cells, line the blood vessels (endothelial cells/endothelium) and many body cavities, (c) Transitional epithelia, composed of several layers of cells with different shapes, line certain cavities subject to expansion and contraction (e.g., the urinary bladder). [Pg.202]

With regard to the described situation we have studied the ability to guide a spiral wave along an arbitrarily shaped line detector. Fig. 9.6(b) shows the successful shift of the spiral wave from point B to A avoiding its... [Pg.259]


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Absorption line shape

Absorption-like line shape

Analysis of line shapes

Analysis of the G(t) Line Shape

Asymmetric line shape

Axially symmetric chemical-shift tensor, powder line shape

Beutler-Fano line shape

Brake lining shape

Carboxylic acid line shapes

Carboxylic acid line shapes acids

Chemical-shift anisotropy line-shape effects

Chemical-shift anisotropy solids, line-shape effects

Chromophore line shapes

Classical diatom line shapes

Classical line shape

Complete line shape analysis

Core level photoemission line shapes

Coupling frequency calculations, vibrational line shapes

Depolarized line shapes

Depth profiling line shape

Diffusion line-shape analysis

Doppler line shape

Dynamic NMR line shape analysis

Dynamic NMR line shapes

Dynamic line shapes

Dysonian line-shape

EPR line shape

Exchange Processes studied by Line-Shape Modification Experiments

Excitation Fano line shape

Fano line shape

Fourier transform, vibrational line shapes

Free-induction decay line shape for

Frequency distributions, vibrational line shapes

Gaussian line shape

Graphitic line shape

Hydrogen bonding carboxylic acid line shapes

Hydrogen bonding line shape

Hydrogen bonds vibrational line shapes

Infrared spectroscopy vibrational line shapes

Instrument line shape

Instrument line shape functions

Instrument line shape method

Instrument line shape model

Instrumental line shape

Line Shapes and Widths

Line intensities and shapes

Line narrowing direct observation, shape

Line shape

Line shape Gaussian function

Line shape Lorentzian function

Line shape Voigt profile

Line shape absorption mode

Line shape analysis

Line shape analysis magnetic parameters

Line shape analysis, polymer

Line shape analysis, polymer dynamics

Line shape diffuse

Line shape distortions

Line shape empirical

Line shape equation

Line shape equation 298 INDEX

Line shape function

Line shape function Voigt

Line shape function emission

Line shape function for radiative

Line shape function for radiative transitions

Line shape function homogeneous

Line shape function inhomogeneous

Line shape function nucleus

Line shape half-width

Line shape measurements

Line shape numerical precision

Line shape phase-twisted

Line shape spectral density

Line shape symmetry

Line shape test spectra

Line shape virial expansion

Line shape, 66 high resolution

Line shape, Lorentzian, absorption

Line shapes of diatomic systems

Line shapes ring inversion

Line shapes, dynamical

Line shapes, dynamical analysis

Line shapes, short relaxation

Line shapes, temperature-dependent

Line-Shape Modifications Involving Chemical Shift Averaging

Line-shape analysis, solid sample

Line-shape factor

Line-shape studies

Line-shape studies Gaussian

Line-shape studies Lorentzian

Line-shape, in NMR

Line-shaped structures

Lined cavities shaped charges

Lorentz line shape

Lorentzian line shape

Lorentzian line shape liquids

Lorenzian line shape

Luminescence line shapes

Metal-lined shaped charge

Microscopic line-shape analysis

Microwave magnetic resonance, line shape

Mossbauer line shape

NMR line shape analysis

Natural line shape

Neutron line shape

Non-Lorentzian line-shape

Nuclear magnetic resonance line shapes

Nuclear magnetic resonance line shapes development

Nuclear magnetic resonance spectroscopy line shape

Optical line shape

Other approaches to line shape

Pake line-shape

Penetration of Steel by Lined Shaped Charge

Polarized line shapes

Powder line shape

Powder pattern line shape

Pulse echo experiments, vibrational line shapes

Puzzling Line Shapes

Quadrupolar line shapes

Radiative line shape

Raman line shapes

Relaxation modulus in linear region line-shape analysis

Resonance line shapes

Resonant absorption and Lorentzian line shapes

Single quantum, line shape

Solvent-induced line shapes

Spectral line shape

Spectroscopic line shapes

Spectrum distribution line shape function

Spin-lattice relaxation line-shape analysis

Super-Lorentzian line shapes

Surface line shapes

The Line Shape Function for Radiative Transitions

The Line Shape for Thin Absorbers

Transition dipole calculations, vibrational line shapes

Tunneling Transport The Line Shape of Conductance Peaks

Van Vleck-Weisskopf line shape

Vibrational line shape theory

Virial expansion of line shape

Voigt line shape

Water chemistry vibrational line shapes

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