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cover

Title:
Author:

Coulson and Richardson's Chemical Engineering: Fluid Flow, Heat Transfer and Mass Transfer
J. Coulson (Editor), J.F Richardson (Editor)

Price: £29.99

Paperback 895 pages (September 1999)
Publisher: Butterworth-Heinemann
ISBN: 0750644443
Category(ies): Scientific, Technical & Medical , Science & Nature

 
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Book Description:

Coulson and Richardson's classic series provides the student with an account of the fundamentals of chemical engineering and constitutes the definitive work on the subject for academics and practitioners. This volume covers the application of chemical engineering principles to the design of chemical processes and equipment.

After an introductory chapter on the nature and methodology of the design process and its application to the design of chemical manufacturing processes - subsequent chapters cover process design and detail, safety and loss prevention, equipment selection, costings and flow sheets in depth. Later chapters cover the detailed design for equipment for separation processes and heat exchange.
The mechanical design of process equipment is also included and a chapter on more general site considerations closes the book. --This text refers to the Paperback edition.


Synopsis:

This volume covers the three main transport processes of interest to chemical engineers - momentum transfer (fluid flow), heat transfer, and mass transfer - and the relationships between them. The concluding chapter covers an application where each of these processes is occurring simultaneously.


Table of Contents:

Professor J. M. Coulson

Preface to Sixth Edition

Preface to Fifth Edition

Preface to Fourth Edition

Preface to Third Edition

Preface to Second Edition

Preface to First Edition

Acknowledgements

Units and Dimensions

Introduction

Systems of units

The centimetre-gram-second (cgs) system

The metre-kilogram-second (mks system)

and the Systeme International d'Unites (SI)

The foot-pound-second (fps) system

The British engineering system

Non-coherent system employing pound mass and pound force simultaneously

Derived units

Thermal (heat) units

Molar units

Electrical units

Conversion of units

Dimensional analysis

Buckingham's II theorem

Redefinition of the length and mass

dimensions

Vector and scalar quantities

Quantity mass and inertia mass

Further reading

References

Nomenclature

Part 1 Fluid Flow

Flow of Fluids---Energy and Momentum Relationships

Introduction

Internal energy

Types of fluid

The incompressible fluid (liquid)

The ideal gas

The non-ideal gas

The fluid in motion

Continuity

Momentum changes in a fluid

Energy of a fluid in motion

Pressure and fluid head

Constant flow per unit area

Separation

Pressure-volume relationships

Incompressible fluids

Compressible fluids

Rotational or vortex motion in a fluid

The forced vortex

The free vortex

Further reading

References

Nomenclature

Flow of Liquids in Pipes and Open Channels

Introduction

The nature of fluid flow

Flow over a surface

Flow in a pipe

Newtonian fluids

Shearing characteristics of a Newtonian fluid

Pressure drop for flow of Newtonian

liquids through a pipe

Reynolds number and shear stress

Velocity distributions and volumetric flowrates for streamline flow

The transition from laminar to turbulent

flow in a pipe

Velocity distributions and volumetric flowrates for turbulent flow

Flow through curved pipes

Miscellaneous friction losses

Flow over banks of tubes

Flow with a free surface

Non-Newtonian Fluids

Steady-state shear-dependent behaviour

Time-dependent behaviour

Viscoelastic behaviour

Characterisation of non-Newtonian fluids

Dimensionless characterisation of

viscoelastic flows

Relation between rheology and structure

of material

Streamline flow in pipes and channels of regular geometry

Turbulent flow

The transition from laminar to turbulent flow

Further reading

References

Nomenclature

Flow of Compressible Fluids

Introduction

Flow of gas through a nozzle or orifice

Isothermal flow

Non-isothermal flow

Velocity of propagation of a pressure wave

Converging-diverging nozzles for gas flow

Maximum flow and critical pressure ratio

The pressure and area for flow

Effect of back-pressure on flow in nozzle

Flow in a pipe

Energy balance for flow of ideal gas

Isothermal flow of an ideal gas in a horizontal pipe

Non-isothermal flow of an ideal gas in a horizontal pipe

Adiabatic flow of an ideal gas in a horizontal pipe

Flow of non-ideal gases

Shock waves

Further reading

References

Nomenclature

Flow of Multiphase Mixtures

Introduction

Two-phase gas (vapour)-liquid flow

Introduction

Flow regimes and flow patterns

Hold-up

Pressure, momentum, and energy relations

Erosion

Flow of solids-liquid mixtures

Introduction

Homogeneous non-settling suspensions

Coarse solids

Coarse solids in horizontal flow

Coarse solids in vertical flow

Flow of gas-solids mixtures

General considerations

Horizontal transport

Vertical transport

Practical applications

Further reading

References

Nomenclature

Flow and Pressure Measurement

Introduction

Fluid pressure

Static pressure

Pressure measuring devices

Pressure signal transmission--the

differential pressure cell

Intelligent pressure transmitters

Impact pressure

Measurement of fluid flow

The pitot tube

Measurement by flow through a constriction

The orifice meter

The nozzle

The venturi meter

Pressure recovery in orifice-type meters

Variable area meters---rotameters

The notch or weir

Other methods of measuring flowrates

Further reading

References

Nomenclature

Liquid Mixing

Introduction---types of mixing

Single-phase liquid mixing

Mixing of immiscible liquids

Gas--liquid mixing

Liquid--solids mixing

Gas--liquid--solids mixing

Solids--solids mixing

Miscellaneous mixing applications

Mixing mechanisms

Laminar mixing

Turbulent mixing

Scale-up of stirred vessels

Power consumption in stirred vessels

Low viscosity systems

High viscosity systems

Flow patterns in stirred tanks

Rate and time for mixing

Mixing equipment

Mechanical agitation

Portable mixers

Extruders

Static mixers

Other types of mixer

Mixing in continuous systems

Further reading

References

Nomenclature

Pumping of Fluids

Introduction

Pumping equipment for liquids

Reciprocating pump

Positive-displacement rotary pumps

The centrifugal pump

Pumping equipment for gases

Fans and rotary compressors

Centrifugal and turbocompressors

The reciprocating piston compressor

Power required for the compression of gases

The use of compressed air for pumping

The air-lift pump

Vacuum pumps

Power requirements for pumping through pipelines

Liquids

Gases

Further reading

References

Nomenclature

Part 2 Heat Transfer

Heat Transfer

Introduction

Basic considerations

Individual and overall coefficients of heat transfer

Mean temperature difference

Heat transfer by conduction

Conduction through a plane wall

Thermal resistances in series

Conduction through a thick-walled tube

Conduction through a spherical shell and to a particle

Unsteady state conduction

Conduction with internal heat source

Heat transfer by convection

Natural and forced convection

Application of dimensional analysis to

convection

Forced convection in tubes

Forced convection outside tubes

Flow in non-circular sections

Convection to spherical particles

Natural convection

Heat transfer by radiation

Introduction

Radiation from a black body

Radiation from real surfaces

Radiation transfer between black surfaces

Radiation transfer between grey surfaces

Radiation from gases

Heat transfer in the condensation of vapours

Film coefficients for vertical and

inclined surfaces

Condensation on vertical and horizontal tubes

Dropwise condensation

Condensation of mixed vapours

Boiling liquids

Conditions for boiling

Types of boiling

Heat transfer coefficients and heat flux

Analysis based on bubble characteristics

Sub-cooled boiling

Design considerations

Heat transfer in reaction vessels

Helical cooling coils

Jacketed vessels

Time required for heating or cooling

Shell and tube heat exchangers

General description

Basic components

Mean temperature difference in multipass exchangers

Film coefficients

Pressure drop in heat exchangers

Heat exchanger design

Heat exchanger performance

Transfer units

Other forms of equipment

Finned-tube units

Plate-type exchangers

Spiral heat exchangers

Compact heat exchangers

Scraped-surface heat exchangers

Thermal insulation

Heat losses through lagging

Economic thickness of lagging

Critical thickness of lagging

Further reading


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process directory.com
Redstone Media, Tedco Business Works, Henry Robson Way, South Shields, NE33 1RF. UK

Tel: +44 (0) 191 427 0255

Fax: +44 (0) 191 427 4648