Control of continuous flow boiling system using DeltaV software
Publisher: Budapest University of Technology and Economics, Budapest, Hungary
Published: 2005
Place of publication: Budapest, Hungary
Language: eng
Table of contents: title: CONTENTS; title: ACKNOWLEDGMENTS; title: PREFACE; title: CHAPTER 1 MATHEMATICAL MODEL FOR THE CONTINUOUS FLOW BOILING SYSTEM 1; title: 1.1 MATHEMATICAL MODEL 1; title: 1.1.1 MODEL DESCRIPTION 1; title: 1.1.2 THE PHENOMENON OF BOILING SYSTEM 3; title: 1.1.3 PROCEDUIRE FOR ASSEMBLING THE NON-LINEAR 4; title: MODEL; title: 1.1.4 BULDING OF THE NON-LINEAR MODEL 5; title: 1.2 LINERAZATION OF THE NON-LINEAR MODEL 8; title: 1.2.1 CALCULATION OF THE OPERATING POINT 8; title: 1.2.2 LINEARIZATION USING TAYLOR SERIES 9; title: 1.2.3 LINEARZATION OF THE CONTINUOUS FLOW BOILING; title: SYSTEM 9; title: 1.3 SIMULATION OF THE LINEAR MODEL 11; title: CHAPTER 2 CONTROL OF CONTINUOUS FLOW BOILING SYSTEM; title: IN SINGLE INPUT SINGLE OUTPUT (SISO) APPROACH 14; title: 2.1 BASIC CONCEPTIONS OF CONTROL 14; title: 2.2 SISO SYSTEM APPROACH (PLANT, MASURMENT UNIT; title: AND ACTUATOR) 17; title: 2.3 PI-CONTROLLER DESIGN USING KESSLER METHOD 19; title: 2.4 PI-CONTROLLER DESIGN USING CRITICAL GAIN METHOD 22; title: 2.5 PI-CONTROLLER DESIGN IN FREQUENCY DOMAIN 24; title: 2.6 OVERVIEW FOR SISO SYSTEM 26; title: CHAPTER 3 CONTROL OF CONTINUOUS FLOW BOILING SYSTEM IN; title: MULTI INPUT MULTI OUTPUT (MIMO) APPROACH 29; title: 3.1 MIMO SYSTEM APPROACH 29; title: 3.2 SYSTEM DECOUPLING AND CONTROLLER DESIGN; title: USING THE P-CANONICAL FORM 30; title: 3.3 NON-LINEAR DECOUPLING ALGORITHM OF THE; title: MIMO SYSTEM 35; title: 3.3.1 THEORETICAL DESCRIPTION OF THE METHOD 35; title: 3.3.2 APPLYING THE NON-LINEAR DECOUPLING METHOD; title: FOR THE MIMO BOILING SYSTEM 39; title: 3.3.3 PROVING THE CONCLUSION, USING THE RESULTS FOR; title: THREE TANK SYSTEM (3TS) 42; title: CHAPTER 4 PRACTICAL REALIZATION OF THE BOILING SYSTEM; title: USING THE DELTA V SOFTWARE 46; title: 4.1 GENERAL PRESENTATION OF THE DELTA V SOFTWARE 46; title: 4.1.1 THE DELTA V LIBRARY 47; title: 4.1.2 SYSTEM CONFIGURATION 48; title: 4.1.3 CONTROL STRATEGIES 49; title: 4.1.4 PHYSICAL NETWORK 50; title: 4.1.5 CONTROL STUDIO APPLICATION 52; title: 4.1.6 RECEIPT STUDIO 54; title: 4.1.7 DELTA V USER MANAGER 54; title: 4.1.8 I/O CONFIGURATION APPLICATION 55; title: 4.1.9 DEVELOPING THE CONTROL STRATEGY 55; title: 4.1.10 SYSTEM ALARM MANAGEMENT APPLICATION 57; title: 4.1.11 DELTA V OPERATE 57; title: 4.1.12 DELTA V BATCH HISTORY VIEWS 59; title: 4.1.13 DIAGNOSTICS 59; title: 4.2 LABORATORY EQUIPMENT OF THE BOILING SYSTEM; title: (NYOMAS (PRESSURE) APPLICATION) 60; title: 4.2.1 THE SYSTEM HARDWARE 60; title: 4.2.2 THE SYSTEM SOFTWARE 63; title: 4.3 OPTIMIZATION OF THE PID-CONTROLLER FOR THE REAL; title: BOILING SYSTEM 65; title: 4.3.1 IDENTIFICATION OF THE REAL BOILING SYSTEM 65; title: 4.3.2 THR SIMULATION MODEL OF THE REAL BOILING; title: SYSTEM 66; title: 4.3.3 REDESIGN THE PID CONTROLLER USING THE; title: KESSLER METHOD 67; title: 4.3.4 IMPLEMENTING THE OPTIMIZED CONTROLLER FOR; title: THE REAL BOILING SYSTEM 68; title: CHAPTER 5 CONCLUSION 71; title: REFERENCES 73; title: APPENDIXES 74; title: A1. Mathematics Program for Identification of Continuous Flow Boiling System. 75; title: A2. The MATLAB Program for the Output Response Curves Y1, Y2 when; title: Considering only one input u1 or u2 or u3. 93; title: A3. MATLAB Program to Compute the Transfer Function Matrix. 94; title: A.4 SIMULINK Models for the Linear Plant. 95