Introduction to chemical reaction engineering and kinetics, Volume 1
Wiley, 1999 - Science - 672 pages
Solving problems in chemical reaction engineering and kinetics is now easier than ever! As students read through this text, they'll find a comprehensive, introductory treatment of reactors for single-phase and multiphase systems that exposes them to a broad range of reactors and key design features. They'll gain valuable insight on reaction kinetics in relation to chemical reactor design. They will also utilize a special software package that helps them quickly solve systems of algebraic and differential equations, and perform parameter estimation, which gives them more time for analysis. Key Features Thorough coverage is provided on the relevant principles of kinetics in order to develop better designs of chemical reactors. E-Z Solve software, on CD-ROM, is included with the text. By utilizing this software, students can have more time to focus on the development of design models and on the interpretation of calculated results. The software also facilitates exploration and discussion of realistic, industrial design problems. More than 500 worked examples and end-of-chapter problems are included to help students learn how to apply the theory to solve design problems. A web site, www.wiley.com/college/missen, provides additional resources including sample files, demonstrations, and a description of the E-Z Solve software.
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KINETICS AND IDEAL REACTOR MODELS
DEVELOPMENT OF THE RATE LAW FOR A SIMPLE SYSTEM
24 other sections not shown
Arrhenius assume axial batch reactor bimolecular bubble calculate catalyst Chapter Chem chemical collision concentration consider constant density constant-density continuity equation CSTR determine diffusion distribution E-Z Solve software elementary reactions endothermic energy enthalpy enzyme equilibrium Example exothermic exothermic reaction experimental factor feed rate Figure first-order flow rate fluid fluidized fluidized-bed fractional conversion function gas-film gas-phase reaction heat transfer illustrated increases initial inlet integral involving isothermal kinetics linear liquid film liquid-phase reaction mass transfer material balance mechanism mol L"1 molar molecular molecules moles nonlinear regression obtained outlet oxidation parameters partial pressure phase problem rate constant rate law rate of reaction ratio reactant reacting system reactor model region relatively respect second-order Section solid particles solution species stage step stoichiometric stream tank temperature tion tracer values velocity vessel volumetric flow rate