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Temperature composite

VALIK calculates vapor-liquid vaporization equilibrium ratios, K(I), for each component in a mixture of N components (N 20) at specified liquid composition, vapor composition, temperature, and pressure. [Pg.290]

Once the flowsheet structure has been defined, a simulation of the process can be carried out. A simulation is a mathematical model of the process which attempts to predict how the process would behave if it was constructed (see Fig. 1.1b). Having created a model of the process, we assume the flow rates, compositions, temperatures, and pressures of the feeds. The simulation model then predicts the flow rates, compositions, temperatures, and pressures of the products. It also allows the individual items of equipment in the process to be sized and predicts how much raw material is being used, how much energy is being consumed, etc. The performance of the design can then be evaluated. [Pg.1]

Biological infonnation is also concerned witli tire analysis of biological messages and tlieir import. The fundamental premise of tire protein-folding problem section C2.14.2.2 is tliat tire full tliree-dimensional arrangement of tire protein molecule can be predicted, given only tire amino acid sequence, together witli tire solvent composition, temperature and pressure. One test of tire validity of tliis premise is to compare tire infonnation content of tire sequence witli tire infonnation contained in tire stmcture [169]. The fonner can be obtained from Shannon s fonnula ... [Pg.2844]

Fluid Chemical composition Temperature range, °C Min Max Viscosity, mPa-s(= cP) Vapor pressure, kPA Pour point, °C Flash point, °C Fire point, °C ait/ °C... [Pg.503]

Analysis of a method of maximizing the usefiilness of smaH pilot units in achieving similitude is described in Reference 67. The pilot unit should be designed to produce fully developed large bubbles or slugs as rapidly as possible above the inlet. UsuaHy, the basic reaction conditions of feed composition, temperature, pressure, and catalyst activity are kept constant. Constant catalyst activity usuaHy requires use of the same particle size distribution and therefore constant minimum fluidization velocity which is usuaHy much less than the superficial gas velocity. Mass transport from the bubble by diffusion may be less than by convective exchange between the bubble and the surrounding emulsion phase. [Pg.518]

To analy2e premixed turbulent flames theoretically, two processes should be considered (/) the effects of combustion on the turbulence, and (2) the effects of turbulence on the average chemical reaction rates. In a turbulent flame, the peak time-averaged reaction rate can be orders of magnitude smaller than the corresponding rates in a laminar flame. The reason for this is the existence of turbulence-induced fluctuations in composition, temperature, density, and heat release rate within the flame, which are caused by large eddy stmctures and wrinkled laminar flame fronts. [Pg.518]

Composition, temperature, and flow rate of the electrolyte are of great importance to the quafity of the cathode deposit, and changes in any one of these parameters can have a serious effect. Storage and circulation of the electrolyte are also significant. The total volume of electrolyte in a modem tank house is typically 6000 m for a copper production level of ca 500 t/d. [Pg.202]

The stationary phase is selected to provide the maximum selectivity. Where possible, the retention factor is adjusted (by varying the mobile phase composition, temperature, or pressure) to an optimum value that generally falls between 2 and 10. Resolution is adversely affected when k 2, while product dilution and separation time... [Pg.1539]

Main fuel injector. This unit is designed to deliver a fuel-air mixture to the catalyst that is uniform in composition, temperature, and velocity. A multi-venturi tube (MVT) fuel injection system was developed by GE specifically for this purpose. It consists of 93 individual venturi tubes arrayed across the flow path, with four fuel injection orifices at the throat of each venturi. [Pg.407]

A block flow diagram is used to show the major process equipment and interconnecting process flow lines and flow rates, stream composition, temperatures, and pressures when necessary for clarity. The block flow diagram is a simplified diagram. [Pg.229]

A common starting point is that the process engineer is given a brief from which to determine a crystallization plant design viz. some specification of the product and process (e.g. mean particle size, production rate) and characteristics of the feed solution (e.g. composition, temperature etc.). Figure 9.1. [Pg.261]

Uncertainties in physical wocleling -Inappropriate model selection Incorrect or inadequate physical basis for model Inadequate validation Inaccurate model parameters Uncertainties in physical model data -Input data (composition, temperature, pressure)... [Pg.524]

The sensitive dependence of the electrical and magnetic properties of spinel-type compounds on composition, temperature, and detailed cation arrangement has proved a powerful incentive for the extensive study of these compounds in connection with the solid-state electronics industry. Perhaps the best-known examples are the ferrites, including the extraordinary compound magnetite Fc304 (p. 1080) which has an inverse spinel structure (Fe )t[Fe Fe ]o04. [Pg.249]

It is essential to calculate, predict or experimentally determine vapor-liquid equilibrium data in order to adequately perform distillation calculations. These data need to relate composition, temperature, and system pressure. [Pg.1]

M = mean solair temperature (°C) (solair temperature is a composite temperature taking into account outside dry bulb temperature and solar radiation),... [Pg.443]

Most of the controlled corrosion studies on beryllium have been carried out in the USA in simulated reactor coolants. The latter have usually been water, aerated and de-aerated, containing small amounts of hydrogen peroxide and at temperatures up to 300-350°C. Many variables have been examined, covering surface condition, chemical composition, temperature, pH, galvanic effects and mechanical stress . [Pg.834]

A number of authors have reported studies of the oxidation of low-alloy steel in steam. The general observations indicate strong similarities with oxidation in air, the kinetics being typically parabolic and the scales typically comprising FcjO, Fej04, FeO and spinel phases, dependent upon alloy composition, temperature and oxygen partial pressure of the environment... [Pg.985]

Laboratory tests, although often necessarily conducted under conditions that are not met in service, nevertheless have a number of advantages over the other types of tests. Because conditions can be controlled at will it is possible to identify the separate effects of a number of factors on the corrosion behaviour. These factors include the type and condition of the metal surface, the environmental composition, temperature and pressure, movement of the specimen relative to the environment, time of exposure and so on. Laboratory tests, at least in principle, also enable comparisons to be made under identical conditions of the relative corrosion behaviour of... [Pg.977]

In many cases, and particularly in aqueous solution, the most important controlling factors will be solution composition, temperature, aeration and velocity. [Pg.993]

The nature of the environment, i.e. composition, temperature, pressure, velocity, etc. [Pg.1249]

Select metal or alloy (or non-metallic material) for the particular environmental conditions prevailing (composition, temperature, velocity, etc.) taking into account mechanical and physical properties, availability, method of fabrication and overall cost of structure. Decide whether or not an expensive corrosion-resistant alloy is more economical than a cheaper metal that requires protection and periodic maintenance. [Pg.1457]


See other pages where Temperature composite is mentioned: [Pg.348]    [Pg.9]    [Pg.1957]    [Pg.256]    [Pg.189]    [Pg.385]    [Pg.65]    [Pg.436]    [Pg.482]    [Pg.414]    [Pg.146]    [Pg.228]    [Pg.229]    [Pg.1428]    [Pg.2554]    [Pg.38]    [Pg.27]    [Pg.30]    [Pg.385]    [Pg.133]    [Pg.188]    [Pg.196]    [Pg.302]    [Pg.459]    [Pg.64]    [Pg.74]    [Pg.1365]    [Pg.1014]    [Pg.1132]   
See also in sourсe #XX -- [ Pg.26 , Pg.34 ]




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2- 2 composite Curie temperature

Acid temperature compositions

Acid temperature control composition

Blocking temperature isotopic composition

Boiling temperature-composition relationships

Boiling temperature-composition relationships with

Carbon dioxide temperature/composition diagram

Carbon-black composite positive temperature coefficient

Cascade temperature/composition

Catalytic cracking reactors temperature and composition profiles

Composite curves minimum temperature approach

Composite dispersed materials Temperature effect

Composite heat deflection temperature

Composite materials high-temperature cofired

Composite maximum operating temperature

Composite plating temperature factor

Composite polymer electrolytes temperature

Composite properties melting temperature

Composite service temperature

Composite temperature resistance

Composition and Temperature Dependence

Composition equilibrium oxygen pressure, temperature

Composition temperature

Composition temperature, pressure and

Compositional dependence of glass transition temperature

Compositional factors, glass transition temperature

Compositions and temperatures

Continuous fiber reinforced glass composites high temperature

Continuous fiber reinforced glass composites high temperature properties

Copolymer, composition glass transition temperatures

Copolymer, composition melting temperature

Copper aluminum temperature-composition

Departure Functions with Temperature, Molar Volume and Composition as the Independent Variables

Dependence of Vapor Fugacity on Temperature, Pressure, and Composition

Destabilization of High Desorption Temperature Hydrides by (Nano)Compositing

Driving Forces for Transformation Temperature and Composition

Effect of Composition and Temperature on Optimal Salinity

Equilibrium Compositions as Functions of Pressure and Temperature

Ethanol temperature-composition

Fatty acids composition, temperature

Fiber reinforced glass composites high temperature

Fiber reinforced glass matrix composites high temperature properties

Free-Energy Composition and Temperature Diagrams

Fuel compositions separation temperatures

Gas composition control target temperature

Glass transition temperature composition

Glass transition temperature compositional variation

Glass-ceramic matrix composites high temperature

High Temperature Performance of Polymer Composites, First Edition. Yu Bai and Thomas Keller

High temperature applications glass composites

High temperature class compositions

High temperature class compositions which contain ammonium perchlorate

High temperature composites

High-Temperature Melt-Infiltrated Composites

Hydrogen pressure-composition-temperature

Ideal solution temperature-composition

Installing Temperature and Composition Controllers

Isotopic water composition temperature effect

Level, pressure, temperature and composition control

Material States of FRP Composites under Elevated and High Temperatures

MoSi2-base composites high temperature

Operating temperature catalyst composition affects

Oxygen/nitrogen mixtures temperature-composition diagrams

Palladium composite membranes temperature

Pinch analysis by temperature interval method and grand composite curve

Poly melting temperature-composition relationships

Poly temperature-composition phase diagram

Polymer composition, temperature control

Polymeric composites above glass transition temperature

Polymeric composites temperature/pressure dependence

Pressure temperature-composition phase

Pressure-Composition-Temperature (PCT) Properties

Pressure-composition-temperature

Pressure-composition-temperature curve

Pressure-volume-temperature composites

Proton Conductivity as a Function of Composition and Temperature

Reactive Melt Infiltration of Carbon Fiber Reinforced Ceramic Composites for Ultra-High Temperature Applications

Rivers, chemical composition temperature

Surface Temperature of Composite Decking and Railing Systems

Temperature - Composition Sections

Temperature Dependence of the Azeotropic Composition

Temperature Dependence of the Equilibrium Compositions

Temperature and Composition Control

Temperature and Composition Controllers

Temperature composition behavior

Temperature composition diagrams

Temperature effects composite plating

Temperature gas composition

Temperature on Compositional Ripening

Temperature shift, fatty acid composition

Temperature solution composition and

Temperature-Composition Diagrams for Methane Water

Temperature-composition phase

Temperature-composition phase diagram polymer solution

Temperature-composition phase diagrams

Temperature-composition phase diagrams experimental

Temperature-composition phase diagrams liquid-vapor

Temperature-composition phase diagrams solid-liquid

Temperature-composition phase diagrams solid-liquid with compounds

Temperature-rising elution fractionation , composition

The Combined Effect of Temperature and Solvent Composition on Solute Retention

The Dependence of Miscibility on Blend Composition and Temperature

The Neutral Atmosphere Composition and Temperature

The response of aerospace composites to temperature and humidity

Ultra high temperature ceramics carbon matrix composite

Vapor temperature-composition phase

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