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Equations (4.5) to (4.7) can now be solved to give expressions for the vapor- and liquid-phase compositions leaving the separator ... [Pg.107]

There is now a simple explicit expression for the vapor rate in a single column in terms of the feed to the column. In order to use this expression to screen column sequences, the vapor rate in each column must be calculated according to Eq. (5.8), assuming a sharp separation in each column, and the individual vapor rates summed. [Pg.137]

Expression for the Minimum Number of 1-2 Shell-and-Tube Heat Exchangers for a... [Pg.433]

Equation (F.7) may be split stream-wise to obtain an expression for the modified h value h of either stream in the match ... [Pg.449]

For petroleum fractions, there is a problem of coherence between the expression for liquid enthalpy and that of an ideal gas. When the reduced temperature is greater than 0.8, the liquid enthalpy is calculated starting with the enthalpy of the ideal gas. On the contrary, when the reduced temperature is less than 0.8, it is preferable to calculate the enthalpy of the ideal gas starting with the enthalpy of the liquid (... [Pg.141]

In the expression for heating value, it is useful to define the physical state of the motor fuel for conventional motor fuels such as gasoline, diesei fuel, and jet fuels, the liquid state is chosen most often as the reference. Nevertheless, if the material is already in its vapor state before entering the combustion system because of mechanical action like atomization or thermal effects such as preheating by exhaust gases, an increase of usefui energy resufts that is not previously taken into consideration. [Pg.184]

For a rough estimation of the optimum excitation frequency for a given test object, one can use the well known expression for the skin penetration depth S ... [Pg.255]

For each frequency 100 points were taken along a line running from the surface of the conductor into a depth of 30 mm in that region below the coil, where the maximum eddy currents are located (dashed vertical lines in the sketch). These data are fitted by appropriate polynomials to obtain an analytical expression for s (to, z) in the frequency and depth interval mentioned above. [Pg.256]

Most of the situations encountered in capillarity involve figures of revolution, and for these it is possible to write down explicit expressions for and R2 by choosing plane 1 so that it passes through the axis of revolution. As shown in Fig. II-7n, R then swings in the plane of the paper, i.e., it is the curvature of the profile at the point in question. R is therefore given simply by the expression from analytical geometry for the curvature of a line... [Pg.7]

If the surface is to be in mechanical equilibrium, the two work terms as given must be equal, and on equating them and substituting in the expressions for dx and dy, the final result obtained is... [Pg.8]

The method is a very old one, remarks on it having been made by Tate in 1864 (33), and a simple expression for the weight W of a drop is given by what... [Pg.19]

Application of the exact continuum analysis of dispersion forces requires significant calculations and the knowledge of the frequency spectmm of the material dielectric response over wavelengths X = 2irc/j/ around 10-10 nm. Because of these complications, it is common to assume that a primary absorption peak at one frequency in the ultraviolet, j/uv. dominates the dielectric spectrum of most materials. This leads to an expression for the dielectric response... [Pg.235]

Derive the expression for the electric field around a point dipole, Eq. VI-5, by treating the dipole as two charges separated by a distance d, then moving to distances X d. [Pg.250]

The full equation for I is obtained by substituting into Eq. IX-8 the expression for AGmax and the gas kinetic expression for Z ... [Pg.331]

Both the kinetics and the equilibrium aspects of ion exchange involve more than purely surface chemical considerations. Thus, the formal expression for the exchange... [Pg.417]

Derive from Eq. XU-24 an expression for the maximum work of adhesion involving only and 7c. Calculate this maximum work for 7c = 22 dyn/cm and 0 = 0.030, as well as 7/. for this case, and the contact angle. [Pg.459]

These concluding chapters deal with various aspects of a very important type of situation, namely, that in which some adsorbate species is distributed between a solid phase and a gaseous one. From the phenomenological point of view, one observes, on mechanically separating the solid and gas phases, that there is a certain distribution of the adsorbate between them. This may be expressed, for example, as ria, the moles adsorbed per gram of solid versus the pressure P. The distribution, in general, is temperature dependent, so the complete empirical description would be in terms of an adsorption function ria = f(P, T). [Pg.571]

The two expressions for bo may be brought into formal identity as follows. On adsorption, the three degrees of translational freedom can be supposed to appear as two degrees of translational motion within the confines of a two-... [Pg.608]

The expressions for and g now have the same appearance as those for H and G in a bulk system. [Pg.643]

One serious issue is the detemihiation of the exchange energy per particle, e, or the corresponding exchange potential, V The exact expression for either of these quantities is miknown, save for special cases. If one... [Pg.95]

This expression for the conductivity is consistent with experimental trends. [Pg.128]

If the long-range mteraction between a pair of molecules is treated by quantum mechanical perturbation theory, then the electrostatic interactions considered in section Al.5.2.3 arise in first order, whereas induction and dispersion effects appear in second order. The multipole expansion of the induction energy in its fill generality [7, 28] is quite complex. Here we consider only explicit expressions for individual temis in the... [Pg.190]

The Chapman-Enskog solution of the Boltzmaim equation [112] leads to the following expressions for the transport coefficients. The viscosity of a pure, monatomic gas can be written as... [Pg.203]


See other pages where Expressions for is mentioned: [Pg.31]    [Pg.31]    [Pg.83]    [Pg.136]    [Pg.226]    [Pg.154]    [Pg.142]    [Pg.253]    [Pg.257]    [Pg.663]    [Pg.665]    [Pg.7]    [Pg.67]    [Pg.69]    [Pg.377]    [Pg.382]    [Pg.634]    [Pg.656]    [Pg.714]    [Pg.727]    [Pg.741]    [Pg.12]    [Pg.63]    [Pg.96]    [Pg.119]    [Pg.165]    [Pg.189]   
See also in sourсe #XX -- [ Pg.334 ]

See also in sourсe #XX -- [ Pg.131 ]




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A general expression for the dielectric reorganization energy

A — Molecular Expression for the Stress Tensor

Alcohols reaction with HBr, kinetic expression for

Algebraic expressions for

Algebraic expressions for CFP of lNvLS shells

Algebraic expressions for CFP of the fN(uiU2)vLS shell

Algebraic expressions for some specific CFP

Alternative Expression for

Alternative Expression for a Wavefunction Satisfying Blochs Function

An Expression for the Diffusion Potential

An expression for the rate of electrode reactions

Analytical Expressions for (T)

Analytical expression for

Antibodies used for Tumor Diagnosis on Paraffin Sections and Expression Pattern

Approximate Analytic Expressions for Moderate Potentials

Approximate Kinetic Expressions for Electrocatalytic Reactions on Heterogeneous Surfaces

B — Equivalent Expressions for Rubber Elasticity

Basic expression for

Chemical-Inducible and Developmental Promoters for Temporal or Spatial Gene Expression

Computational tools, for expression analysis

Constant expression for heterogeneous

Creating Inclusion for Oneself Knowing, Accepting, and Expressing Ones Whole Self at Work

Derivation of expression for

Efficiency expression for

Electric field gradient expressions for transition metal elements

Energy Expression for the Metal Cluster

Energy expressions for

Equilibrium Expressions for Various Types of Reactions

Equilibrium constant expressions for

Equilibrium expression for heterogeneous

Equilibrium expression for heterogeneous equilibria

Equilibrium expressions for

Evaluation of Parameter Consistency in Rate Expressions for Ideal Surfaces

Exact Expression for Cylindrical Channel EO Flow

Excess Gibbs energy empirical expressions for

Excess Gibbs energy local-composition expressions for

Expansion Expressions for si and

Explicit Cartesian expressions for the complex solid harmonics

Explicit Cartesian expressions for the real solid harmonics

Explicit Expression for the Excess Free Energy

Explicit Expression for the Excess Volume

Explicit Expressions for Electric and Magnetic Properties

Explicit Expressions for the Excess Functions

Explicit expression for the conductance and comparison with experiment

Explicit expressions for structure factor least-squares

Explicit expressions for the deviations from IG, SI, and DI behavior

Expressing Equilibrium Constants for Chemical Reactions

Expression Systems for Molecular Farming

Expression for (sac)

Expression for Finding Centroid of Final Product Node in Synthesis Tree

Expression for MP2 energy

Expression for the stress tensor

Expression of Genes Encoded for Functional Proteins

Expression of the Electron Transfer Rate for a Non-adiabatic Process

Expressions for <cos

Expressions for Aging of Fractal Systems

Expressions for Heat Capacity

Expressions for the Energy and its Derivatives

Expressions for the Rate Constant

Expressions for the potential

Final expression for the thermal conductivity

Final expressions for the mesoscale acceleration models

Flory-Huggins Expressions for Thermodynamic Functions

Flux expressions for TCA cycle reaction network

Formal expression for the second virial coefficient

Function Expressions for Rate Coefficients

Gene Expression Analyses for Tailoring and Optimizing Drug Treatment

General Expression for Pure Polymers and Mixtures

General Expression for the Interaction Energy

General Expressions for Heat and Work

General Expressions for the Transition Probability

General expression for

General expression for the Fourier coefficients

General expression for the interfacial tension

General expression for the rate

General expressions for the partition function

Guidelines for Choosing a Heterologous Expression System

Kinetic Theory Expression for the Rate Kernel

Kinetic expression for

Kinetic expressions derived for chain-type reactions

Kinetic expressions derived for diffusion limited reactions

Kinetic expressions derived for interface advance reactions

Kinetic rate expression for

Mechanical expressions for the grand potential

Metrics for Expressing Enantiomer Composition of POPs

Microscopic expression for the stress tensor

Microscopic expression for the time correlation function

Model for Gene Expression Profiling

Molecular expression for birefringence

Molecular expression for the shear stress

More Complete Expressions for the Classical Nucleation Rate

Perturbation theory expression for

Platforms for Gene Expression Imaging

Plots for Michaelis-Menten Expression

Point expression for

Proteins expression system for

Quantum Mechanical Expression for the Magnetic Moment

Quantum Mechanical Expression for the Magnetizability

Quantum Mechanical Expression for the NMR Parameters

Quantum Mechanical Expression for the Rotational g Tensor

Quantum Mechanical Expression for the Spin Rotation Tensor

Quantum Mechanical Expressions for Electric Moments

Quantum Mechanical Expressions for Polarizabilities

RNA preparation, gene expression materials for

Rate Expression for Radical Chain Polymerization

Rate expression, for electron transfer

Rate expressions for bimolecular surface reactions

Rate expressions for mass transfer

Re-Expressed Equation of Change for Kinetic Energy

Set of governing dimensionless expressions for the reactive flash

Simple expressions for energies

Statistical Mechanical Expressions for the Solvation Thermodynamic Quantities

Strategies for Gene Expression Imaging

Sum-over-States Expression for Diamagnetic Terms

TESTING THE DATA FOR CONSISTENCY WITH COMPLICATED RATE EXPRESSIONS

TRNAVAL-Ribozyme Expression of the Gene for CBP

Tandon-Weng expressions for

Tests for the Comparison of Columns and Their Expressiveness

The Expression for K(T)

The GeneSwitch (Inovio Biomedical) System for Ligand-Dependent Transgene Expression

The General Expression for a Binary System

The Rate-Process Expression for Equivalent Conductivity

The Use of Cell-Free Protein Expression for NMR Analysis

The general rate law expression for reactions with several reactants

Theoretical Expressions for Widths and Level Shifts

Theoretical expressions for widths

Thermodynamical expressions for closed systems

Thermodynamical expressions for open systems

Tools for Expression Analysis

Transition State Theory Expression for a Rate Constant

Units for Expressing Enzyme Activity

Validity of the WKB Tunneling Probability Expression for Proton Transfer

Virial expression for the bulk pressure

Writing Equilibrium Expressions for Chemical Reactions

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