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Selective design

L. Theodore and A. J. Bwomzox., Air Pollution Control Equipment—Selection, Design, Operation and Maintenance, Prentice-Hall, Englewood CHffs, N.J., 1982. [Pg.419]

Special safety constraints apply to equipment selection, design, and operation in nuclear reprocessing (269). Equipment should be reHable and capable of remote control and operation for long periods with minimal maintenance. Pulsed columns and remotely operated mixer—settlers are commonly used (270). The control of criticaHty and extensive monitoring of contamination levels must be included in the process design. [Pg.80]

E. A. D. Saunders, Heat Exchangers Selection, Design, and Construction,]ohxi Wiley Sons, Inc., New York, 1988. [Pg.501]

DeioniZa.tlon, The removal of cations and anions from water and replacement of them with hydrogen and hydroxide ions is called deionization. The completeness of the ionic removal is dependent on resin selection, design of the system, operating conditions, and the quaUty of treated water required. In general, systems become more complex as quaUty requirements increase. [Pg.386]

G-7. Stern, Air Follution, 3d ed., vols. 3-5, Academic, Orlando, FL, 1976-77. G-8. Strauss, Industtial Gas Cleaning, 2d ed., Pergamon, New York, 1975. G-9. Theodore and Biionicore, Air Follution Control Equipment Selection, Design, Operation and Maintenance, Prentice Hall, Englewood Cliffs, NJ, 1982. [Pg.1427]

Failure of vacuum Design vessel to accommodate maximum system control vacuum (full vacuum rating) resulting in possi-. , elief system bility of vessel collapse pressure alarm and interlock to inert gas supply Select/design vacuum source to limit vacuum capability ASME VIII CCPS G-23 CCPS G-39... [Pg.79]

Theodore, L., and Buonicore, A. J, "Air Pollution Control Equipment Selection, Design, Operation and Maintenance." Prentice-Hall, Englewood Cliffs, NJ, 1982,... [Pg.487]

This chapter describes the basic principles and procedures for the evaluation of overpressure potential in plant equipment, and for the selection, design and specification of appropriate pressure relieving facilities. The design of closed safety valves and flare headers is included in this chapter, but blowdown drums and flares are covered separately. To properly discuss this subject, the reader should become familiar with the following terminology. [Pg.115]

This chapter discusses some of the criteria for selecting, designing and spacing elevated, burning-pit, and multijet flares. The design of safety valve and flare headers was covered in an earlier chapter, as well as discussions concerning associated blowdown drums, water disengaging drums, etc. [Pg.246]

Chemistry and Process Selection Design Scoping Regular Operation... [Pg.123]

System (node) Selection Design Intent Guide Words Cause Identification Consequence Identificatidn Resolution Review Record... [Pg.88]

V (separator) = Separator vapor velocity evaluated for the gas or vapor at flotving conditions, ft/sec V = Vapor velocity entering unit, lbs, per minute per square foot of inlet pipe cross section Va = Maximum allowable vapor velocity across inlet face of mesh calculated by relation, ft/sec Van Actual operating superficial gas velocity, ft/sec or ft/min, for tvire mesh pad Vu = Design vapor velocity (or selected design value), ft/sec... [Pg.285]

From the selected design hole velocity and the total rapor rate corresponding, the total number of holes can be determined for a given assumed hole diameter. [Pg.195]

The selected design Fj = 17 gives the number of holes to operate at these conditions. Note that the values of 1223 and 1410 holes for the top and bottom respectively indicated operations somewhat closer to the tower maximum than to the weep point. This usually insures as good an efficiency as is obtainable for a given system. It may limit the flexibility of the tower, since there will not be enough holes to operate down to the weep point at the given design flow rates. [Pg.199]


See other pages where Selective design is mentioned: [Pg.66]    [Pg.516]    [Pg.1427]    [Pg.1580]    [Pg.2172]    [Pg.57]    [Pg.44]   
See also in sourсe #XX -- [ Pg.259 ]




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Active ingredient design/selection

Advanced Design of Catalyst Surfaces with Metal Complexes for Selective Catalysis

Anion host design shape selectivity

Cable system design and equipment selection

Chemical reaction process selection and design

Compound selection factorial design

Computational library design selection methods

Computer Database Design Selection Procedure

Criteria for the Selection and Design of Crystallizers

D. Brigante, New Composite Materials: Selection, Design, and Application

Design and Selection Criteria

Design and Selection Factors

Design concept selection

Design for Optimum Selectivity in Simultaneous Reactions

Design for model selection

Design material selection

Design methodology equipment selection

Design of Selective Layers

Design tools Selecting

Design variables selection

Designing a Therapeutic Editor Using the Wrapping Selectivity Filter

Designing, plastics selection guides

Dielectric materials, selection and design

Distribution network design selection

Drug design lead’ structure selection

Equipment Selection and Process Design

Experimental design selectivity

Experimental design—compound and parameter selection

Generator selection, design considerations

Impeller Selection and Vessel Design

LC Selectivity for Peptides Experimental Design

Lens design and selection

Library Design and Compound Selection

Management system design, framework selection

Material selection and design strategy

Material selection design, importance

Materials Selection, Testing, and Design Considerations

Membranes drug design selectivity

Operating Principles Design and Selection Factors

Opioid selective ligands design

Other important design parameters for sensitivity and selectivity - polymer 1 as a model

Overview of Dryers, Dryer Selection and Design

Plastic parts design material selection

Plastic parts design process selection

Pressure, flame arrester selection/design

Procedures for Design and Selection of Collection Devices

Process selection design recommendations

Puncture protection design and cushion geotextile selection

Pushing Expression Levels - Impact of Vector Design and Cell Clone Selection

Quantitative structure-activity relationships selective drug design

Reactant selection and design

Reactors selection and design

Reference design, selection

Reference design, selection specifications

Retrofit design selection

SELECTION OF EXPERIMENTAL DESIGNS

Sealant selection, joint design

Sealing design material selection

Selecting a Receptor Appropriate for Drug Design

Selecting the Correct Static Mixer Design

Selection and Design of Extraction Apparatus

Selection and Design of Impeller

Selection and Designation

Selection of Appropriate Experimental Designs

Selection of Polymers for Design Applications

Selection of an appropriate design and re-evaluation method

Selection of appropriate design standards

Selection of design parameters

Selection of design variables

Selection of materials design

Selection of the Process Design

Selection of the experimental design

Selection or Design of a Leaching Process

Selective catalytic reduction design

Selective catalytic reduction design considerations

Selective layer design

Selective library design

Selective ligand design

Selectivity and Optimization Considerations in the Design of Isothermal Reactors

Selectivity drug design

Selectivity optimization experimental design

Selectivity optimization mixture-design

Shape-selective catalyst design

Site selection base ring design

Static-dynamic selection valve design

Target-selective drug design

Toxicity test designs dose selection

Wrapping as a Selectivity Filter An Exercise in Drug Design

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