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Inertial

Inertial collectors. In inertial collectors, an object is placed in the path of the gas. An example is shown in Fig. 11.1. While the gas passes around the shutters, particles with sufficiently high inertia impinge on them and are removed from the stream. Only particles in excess of 50/um can reasonably be removed. Like gravity settlers, inertial collectors are widely used as prefilters. [Pg.302]

Figure 11.1 An inertial collector. (Reproduced with permission from Stenhouse, "Pollution Control, in Teja, Chemical Engineering and the Environment, Blackwell Scientific Publications, Oxford, UK, 1981.)... Figure 11.1 An inertial collector. (Reproduced with permission from Stenhouse, "Pollution Control, in Teja, Chemical Engineering and the Environment, Blackwell Scientific Publications, Oxford, UK, 1981.)...
There are other important properties tliat can be measured from microwave and radiofrequency spectra of complexes. In particular, tire dipole moments and nuclear quadmpole coupling constants of complexes may contain useful infonnation on tire stmcture or potential energy surface. This is most easily seen in tire case of tire dipole moment. The dipole moment of tire complex is a vector, which may have components along all tire principal inertial axes. [Pg.2442]

Early studies showed tliat tire rates of ET are limited by solvation rates for certain barrierless electron transfer reactions. However, more recent studies showed tliat electron-transfer rates can far exceed tire rates of diffusional solvation, which indicate critical roles for intramolecular (high frequency) vibrational mode couplings and inertial solvation. The interiDlay between inter- and intramolecular degrees of freedom is particularly significant in tire Marcus inverted regime [45] (figure C3.2.12)). [Pg.2986]

We further note that the Langevin equation (which will not be discussed in detail here) is an intermediate between the Newton s equations and the Brownian dynamics. It includes in addition to an inertial part also a friction and a random force term ... [Pg.265]

Geometric Integrators for Rigid Body Simulation 355 where I = diag(/i,/2,/a) is the (diagonalized) inertial tensor,... [Pg.355]

Prior to solvation, the solute is oriented according to its inertial axes such that the box size needed to accommodate it is minimized (minimizing the number of water molecules). The principal inertial axis is oriented along the viewer s Z axis, for example. Then water molecules are eliminated if any of the three atoms are closer to a solute atom than the contact distance you specify. [Pg.202]

Figure 5.1 Principal inertial axes of (a) hydrogen cyanide, (b) methyl iodide, (c) benzene, (d) methane, (e) sulphur hexafluoride, (f) formaldehyde, (g) s-lraws-acrolein and (h) pyrazine... Figure 5.1 Principal inertial axes of (a) hydrogen cyanide, (b) methyl iodide, (c) benzene, (d) methane, (e) sulphur hexafluoride, (f) formaldehyde, (g) s-lraws-acrolein and (h) pyrazine...
Dipole moments of asymmetric rotors or, strictly, their components along the various inertial axes, may be determined using the Stark effect. [Pg.117]

An improvement on the rg structure is the substitution structure, or structure. This is obtained using the so-called Kraitchman equations, which give the coordinates of an atom, which has been isotopically substituted, in relation to the principal inertial axes of the molecule before substitution. The substitution structure is also approximate but is nearer to the equilibrium structure than is the zero-point structure. [Pg.133]

In a molecule such as the asymmetric rotor formaldehyde, shown in Figure 5.1(f), the a, b and c inertial axes, of lowest, medium and highest moments of inertia, respectively, are defined by symmetry, the a axis being the C2 axis, the b axis being in the yz plane and the c axis being perpendicular to the yz plane. Vibrational transition moments are confined to the a, b or c axis and the rotational selection mles are characteristic. We call them... [Pg.181]

Diffuorobenzene is a prolate asymmetric rotor and, because the y axis is the b inertial axis, type B rotational selection mles apply. In Figure 7.44(b) is a computer simulation of the... [Pg.283]

Mechanisms of Filter Retention. In general, filtrative processes operate via three mechanisms inertial impaction, diffusional interception, and direct interception (2). Whereas these mechanisms operate concomitantly, the relative importance and role of each may vary. [Pg.139]

Inertial impaction involves the removal of contaminants smaller than the pore size. Particles are impacted on the filter through inertia. In practice, because the differential densities of the particles and the fluids are very small, inertial impaction plays a relatively small role in Hquid filtration, but can play a major role in gas filtration. [Pg.139]

Includes cyclonic, dynamic, filtration, inertial impaction (wetted targets, packed towers, turbulent targets), spray chambers, and venturi. [Pg.386]

Other Centrifugal Collectors. Cyclones and modified centrifugal collectors are often used to remove entrained Hquids from a gas stream. Cyclones for this purpose have been described (167—169). The rotary stream dust separator (170,171), a newer dry centrifugal collector with improved collection efficiency on particles down to 1—2 pm, is considered more expensive and hence has been found less attractive than cyclones unless improved collection in the 2—10-pm particle range is a necessity. A number of inertial centrifugal force devices as well as some others termed dynamic collectors have been described in the Hterature (170). [Pg.397]

Chaiacteiistics of tfie pads vaiy slighdy witfi mesh density, but void space is typically 97—99% of total volume. Collection is by inertial impaction and direct impingement thus efficiency will be low at low superficial velocities (usually below 2.3 m/s) and for fine particles. The desireable operating velocity is given... [Pg.407]

Scmbbers make use of a combination of the particulate coUection mechanisms Hsted in Table 5. It is difficult to classify scmbbers predominantly by any one mechanism but for some systems, inertial impaction and direct interception predominate. Semrau (153,262,268) proposed a contacting power principle for correlation of dust-scmbber efficiency the efficiency of coUection is proportional to power expended and more energy is required to capture finer particles. This principle is appHcable only when inertial impaction and direct interception are the mechanisms employed. Eurthermore, the correlation is not general because different parameters are obtained for differing emissions coUected by different devices. However, in many wet scmbber situations for constant particle-size distribution, Semrau s power law principle, roughly appHes ... [Pg.407]

Schmidt number = p D flow-line separation number = D j inertial separation number = U /U /... [Pg.413]


See other pages where Inertial is mentioned: [Pg.301]    [Pg.119]    [Pg.122]    [Pg.852]    [Pg.859]    [Pg.2466]    [Pg.2603]    [Pg.25]    [Pg.351]    [Pg.352]    [Pg.352]    [Pg.355]    [Pg.359]    [Pg.202]    [Pg.632]    [Pg.202]    [Pg.92]    [Pg.103]    [Pg.186]    [Pg.377]    [Pg.378]    [Pg.442]    [Pg.391]    [Pg.392]    [Pg.394]    [Pg.402]    [Pg.404]    [Pg.407]    [Pg.408]    [Pg.413]   
See also in sourсe #XX -- [ Pg.326 ]

See also in sourсe #XX -- [ Pg.326 ]

See also in sourсe #XX -- [ Pg.14 , Pg.183 , Pg.248 , Pg.307 ]

See also in sourсe #XX -- [ Pg.201 , Pg.202 , Pg.204 , Pg.212 , Pg.213 , Pg.215 , Pg.217 , Pg.218 ]




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Aerosol inertial deposition

Air data inertial reference units

Brownian motion inertial effects

Coagulation inertial

Coefficients inertial

Confinement systems, inertial

Contact inertial plane

Coordinates, atomic inertial

Crack inertial

Damping inertial

Debye relaxation inertial effects

Deposition inertial ranges

Dielectric inertial

Dielectric relaxation (continued inertial effects

Director inertial term

Dispersion Relation in the Inertial Regime

Distribution of inertial particles in flows

Drag force inertial corrections

Dynamic inertial profilometers

Energy Requirements for Inertial-Impaction Efficiency

Energy spectrum inertial range

Fabric filters inertial impaction

Filtration mechanism inertial impaction

Fluid inertial term

Fokker-Planck equation inertial effects

Fractional rotational diffusion inertial effects

Fusion, inertially confined

Inertial Deposition of Particles on the Obstacles

Inertial Dewetting

Inertial Frames and Newtonian Mechanics

Inertial Lift

Inertial Mechanism of Coagulation

Inertial Reference Unit

Inertial and Centrifugal Separation

Inertial and Non-Newtonian Corrections to the Force on a Body

Inertial axes

Inertial body frame

Inertial capture

Inertial centrifugal effect

Inertial centrifugal separators

Inertial collector

Inertial component

Inertial confinement

Inertial confinement fusion

Inertial confinement reactors

Inertial confinment fusion

Inertial constant

Inertial defects

Inertial devices

Inertial effect of ions

Inertial effects

Inertial effects derivatives

Inertial effects dielectric relaxation

Inertial effects linear and symmetrical top molecules

Inertial effects periodic potentials

Inertial error

Inertial filters

Inertial flow

Inertial force

Inertial force, macroscopic

Inertial forces, Reynolds number

Inertial frame of reference

Inertial frames

Inertial frames Mach principle

Inertial frames constant light speed

Inertial frequency

Inertial frequency period

Inertial granulation

Inertial guidance system

Inertial impaction

Inertial impaction, particle size

Inertial impactors

Inertial loading

Inertial loss

Inertial loss coefficient

Inertial mass

Inertial measurement unit

Inertial migration

Inertial mode, instabilities

Inertial moment tensors

Inertial moments

Inertial momentum

Inertial motion

Inertial navigation

Inertial particle transport

Inertial particles

Inertial polarization potential

Inertial principle

Inertial problems

Inertial range

Inertial reference frame

Inertial reference systems

Inertial regime

Inertial resistance

Inertial resistance coefficient

Inertial resistance factor

Inertial response

Inertial samplers, aerosols

Inertial sampling, principle

Inertial sensor inputs

Inertial separation of particles

Inertial separators

Inertial space

Inertial subrange

Inertial subrange of turbulence

Inertial system

Inertial tensor

Inertial tensor, principal

Inertial term

Inertial-confinement nuclear

Inertial-confinement nuclear fusion

Inertial-convective sub-range

Inertial-diffusive sub-range

Integration theorem inertial effects

Lateral migration inertial effect

Membrane inertial impaction

Mist eliminator inertial impaction

Mist inertial collectors

Mixing inertial

Newtonian inertial frame

Newtons first law of motion inertial reference systems

Non-inertial approximation

Non-inertial frame of reference

Non-inertial regime

Particle inertial impaction

Plane Inertial Problems

Plane Non-inertial Contact Problems

Plane Non-inertial Crack Problems

Principal inertial axes

Principal inertial axis

Principal inertial axis system

Projected tensors inertial projection

Reorganization inertial

Sack’s parameter, dielectric relaxation, inertial equation

Separator inertial impaction

Shock-inertial apparatuses

Solvent inertial effects

Spiral Inertial Microfluidic Devices for Cell

Spiral Inertial Microfluidic Devices for Cell Separations

The Inertial Term

The Non-inertial Approximation

The inertial-convective range

Transition from the Diffusion to Inertial Ranges

Uniform flow, inertial effects

Visco-inertial regime

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