Chemical Engineering Department University CHE 414: Process Control COURSE OUTLINE Introduction 3. SISO Linear systems Analysis Control system examples First order systems Control system elements Second order systems Reasons for control Higher order systems What does control engineer Transfer function and Block diagram Control implementation SISO Linear system tools PID controllers Basic Modeling Single loop feedback block diagram Linearization Closed-loop transfer function Laplace Transform PID control algorithm Solution of linear ODEs using Closed-Loop analysis Laplace Transform Stability analysis Tuning methods Piping and Instrumentation Diagram Basic symbols and tools used in P&ID Drawing control loops Control loop selections for a process unit Understanding P&ID for a complete flow sheet Course learning Objectives Understand the importance of process control in chemical engineering industries, method of applications, and its major components Able to apply the skills build in previous courses to develop dynamic models for simple chemical systems. Able to examine and analyze the dynamics of simple chemical systems by solving the dynamic model analytically and numerically. Understand the elements of the process control structure and to be able to choose the suitable elements of this structure. Able to design classical PID controller for single-input single-output systems. Able to analyze the performance and stability of the controlled systems. Aware of the role of computer software to design control systems and recent developments in the field. Able to develop a P&ID for an entire Process Understand process dynamics and basic control analysis via lab experiments Able to write and make professional presentation of course lab reports Grading Policy Homework assignments 10% Quizzes and attendance 10% Midterm Exam 1 15% 11-6-2017 at 6:00pm Lab report & presentation 10% 12-25-2017 at 6:00pm Midterm Exam 2 15% 12-11-2017 at 6:00pm Final Exam 40%
Chemical Engineering Department University CHE 414: Process Control COURSE OUTLINE Introduction Control system examples Control system elements Reasons for control What does control engineer Control implementation 3. SISO Linear systems Analysis First order systems Second order systems Higher order systems Transfer function and Block diagram SISO Linear system tools Basic Modeling Linearization Laplace Transform Solution of linear ODEs using Laplace Transform PID controllers Single loop feedback block diagram Closed-loop transfer function PID control algorithm Closed-Loop analysis Stability analysis Tuning methods Piping and Instrumentation Diagram Basic symbols and tools used in P&ID Drawing control loops Control loop selections for a process unit Understanding P&ID for a complete flow sheet Course learning Objectives Understand the importance of process control in chemical engineering industries, method of applications, and its major components Able to apply the skills build in previous courses to develop dynamic models for simple chemical systems. Able to examine and analyze the dynamics of simple chemical systems by solving the dynamic model analytically and numerically. Understand the elements of the process control structure and to be able to choose the suitable elements of this structure. Able to design classical PID controller for single-input single-output systems. Able to analyze the performance and stability of the controlled systems. Aware of the role of computer software to design control systems and recent developments in the field. Able to develop a P&ID for an entire Process Understand process dynamics and basic control analysis via lab experiments Able to write and make professional presentation of course lab reports Grading Policy Homework assignments 10% Quizzes and attendance 10% Midterm Exam 1 15% 11-6-2017 at 6:00pm Lab report & presentation 10% 12-25-2017 at 6:00pm Midterm Exam 2 15% 12-11-2017 at 6:00pm Final Exam 40%
syllabus-381_0.docx