LEADER 00829nam0-22003131i-450- 001 990003252330403321 005 20001010 035 $a000325233 035 $aFED01000325233 035 $a(Aleph)000325233FED01 035 $a000325233 100 $a20000920d1945----km-y0itay50------ba 101 0 $aita 105 $ay-------001yy 200 1 $aFORETS VIERGES ET BOIS COLONIAUX 205 $a1 210 $aParis$cPresses Universitaires de France$d1945 215 $app. 127 610 0 $aGeografia Agraria; Foreste 676 $a021.006 700 1$aChevalier,$bAuguste$0376504 801 0$aIT$bUNINA$gRICA$2UNIMARC 901 $aBK 912 $a990003252330403321 952 $a021.006.CHE.01$b24534$fDECGE 959 $aDECGE 996 $aFORETS VIERGES ET BOIS COLONIAUX$9449595 997 $aUNINA DB $aING01 LEADER 01507nam2-2200397li-450 001 990000217100203316 005 20180312154740.0 010 $a3-540-18263-2 035 $a0021710 035 $aUSA010021710 035 $a(ALEPH)000021710USA01 035 $a0021710 100 $a20001109d1987----km-y0itay0103----ba 101 0 $aeng 102 $aGW 200 1 $aSingularities, representation of algebras and vector bundles$eproceedings of a symposium held inLambrecht/Pfalz, Fed. Rep of Germany, Dec. 13-17, 1985$fG. M. Greuel (ed.) 210 $aBerlin [etc.]$cSpringer-Verlag$dcopyr. 1987 215 $aXIV, 383 p.$cill. , 24 cm 225 2 $aLecture notes in mathematics$v1273 410 0$10010021263$12001$aLecture notes in mathematics$ea collection of informal reports and seminars$fedited by A. Dold, Heidelberg and B. 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Snape ... [et al.] 210 $aWeinheim ;$aNew York $cVCH$dc1995 215 $a1 online resource (524 p.) 300 $aDescription based upon print version of record. 311 08$a9783527287055 311 08$a3527287051 320 $aIncludes bibliographical references and index. 327 $aDynamics of Environmental Bioprocesses; Preface; Organisation of the Book; ISIM Simulation Software; Acknowledgements; Table of Contents; Nomenclature for Chapters 1 and 2; 1 Modelling Principles; 1.1 The Role of Modelling in Environmental Technology; 1.2 General Aspects of the Modelling Approach; 1.3 Model Classification; 1.3.1 Deterministic Models; 1.3.2 Stochastic Models; 1.3.3 Steady-State Models; 1.3.4 Dynamic Models; 1.4 General Modelling Procedure; 1.5 Simulation Tools; 1.6 ISIM; 1.7 Introductory ISIM Example: WASTE; 1.8 Formulation of Dynamic Balance Equations 327 $a1.8.1 Mass Balance Procedures1.8.1.1 Case A . Continuous Stirred-Tank Reactor; 1.8.1.2 Case B . Tubular Reactor; 1.8.1.3 Case C . River with Eddy Current; 1.8.1.4 Rate of Accumulation Term; 1.8.1.5 Convective Flow Terms; 1.8.1.6 Production Rate; 1.8.1.7 Diffusion of Components; 1.8.1.8 Interphase Transport; 1.8.1.9 Case A . Waste Holding Tank: Total and Component Mass Balance Example; 1.8.1.10 Case B . The Plug-Flow Tubular Reactor; 1.8.1.11 Case C . Biological Hazard Room; 1.8.1.12 Case D . Lake Pollution Problem; 1.8.2 Energy Balancing 327 $a1.8.2.1 Case A . Determining Heat Transfer Area or Cooling Water Temperature1.8.2.2 Case B . Heating of a Filling Tank; 1.9 Chemical and Biological Reaction Systems; 1.9.1 Modes of Reactor Operation; 1.9.1.1 Batch Reactors; 1.9.1.2 Semi-Continuous or Fed-Batch Operation; 1.9.1.3 Continuous Operation; 1.9.2 Reaction Kinetics; 1.9.2.1 Chemical Kinetics; 1.9.2.2 Biological Reaction Kinetics; 1.9.2.3 Simple Microbial Growth Kinetics; 1.9.2.4 Substrate Uptake Kinetics; 1.9.2.5 Substrate Inhibition of Growth; 1.9.2.6 Additional Forms of Inhibition; 1.9.2.7 Other Expressions for Specific Growth Rate 327 $a1.9.2.8 Multiple-Substrate Kinetics1.9.2.9 Structured Kinetic Models; 1.9.2.10 Interacting Micro-Organisms; 1.10 Modelling of Bioreactor Systems; 1.10.1 Stirred Tank Reactors; 1.10.2 Modelling Tubular Plug-Flow Reactor Behaviour; 1.10.2.1 Steady-State Balancing; 1.10.2.2 Unsteady-State Balancing; 1.11 Mass Transfer Theory; 1.11.1 Phase Equilibria; 1.11.2 Interphase Mass Transfer; 1.11.2.1 Case A . Steady-State Tubular and Column Modelling; 1.11.3 Case Studies; 1.11.3.1 Case A . Aeration of a Tank of Water; 1.11.3.2 Case B . Biological Oxidation in an Aerated Tank 327 $a1.11.3.3 Case C . Determination of Biological Oxygen Uptake Rates by a Dynamic Method1.11.4 Gas-Liquid Phase Transfer Across a Free Surface; 1.12 Diffusion and Biological Reaction in Solid Phase Biosystems; 1.12.1 External Mass Transfer; 1.12.2 Finite Difference Model for Internal Transfer; 1.12.3 Case Studies for Diffusion with Biological Reaction; 1.12.3.1 Case A . Estimation of Oxygen Diffusion Effects in a Biofilm; 1.12.3.2 Case B . Biofilm Nitrification; 1.13 Process Control; 1.14 Optimisation. Parameter Estimation and Sensitivity Analysis 327 $a1.14.1 Case A . Estimation of Bioreaction Kinetic Parameters for Batch Degradation Using ESL and SIMUSOLV 330 $aDynamic environmental processes are complex; the easiest and most effective way to understanding them lies through the disciplines of dynamic modelling and computer simulation.The prerequisite modelling fundamentals are presented in the first chapter in a manner comprehensible to students as well as to practising scientists and engineers. The second chapter describes the many environmental processes that lend themselves to modelling, for example pollution and wastewater treatment. The third part of the book provides 65 simulation examples both on the page and on an accompanying diskett 606 $aBioremediation$xMathematical models 606 $aWater$xPollution$xMathematical models 606 $aBioremediation$xComputer simulation 606 $aWater$xPollution$xComputer simulation 615 0$aBioremediation$xMathematical models. 615 0$aWater$xPollution$xMathematical models. 615 0$aBioremediation$xComputer simulation. 615 0$aWater$xPollution$xComputer simulation. 676 $a628.168015118 676 $a628.5/01/5118 676 $a628.5015118 701 $aSnape$b Jonathan B$0888200 801 0$bMiAaPQ 801 1$bMiAaPQ 801 2$bMiAaPQ 906 $aBOOK 912 $a9911019297903321 996 $aDynamics of environmental bioprocesses$91984066 997 $aUNINA