Course Details
Calibrating And Monitoring Control Systems Using Simulators
Location
Date
Duration
Language
Discipline
Instrumentations & Control EngineeringIntroduction
COURSE INTRODUCTION
This course teaches a systematic approach to troubleshooting and start-up as they apply to single and multi-loop control loops. Covers how pressure, level, flow, and temperature loops operate to maintain good process control systems. A knowledge of instrumentation and control is assumed.
Objective
COURSE OBJECTIVE
- Monitor, maintain & configure different types of control systems (eg PLC, DCS, SCADA)
- Apply tuning concepts for controllers
- Understand why a systematic approach to troubleshooting is most effective
- Follow specified procedures for proper loop check-out
- Verify, locate, and identify performance problems and the causes of the problems
- Take or recommend appropriate follow-up procedures to minimize problem recurrence
- Identify the common causes of sensor, transmitter, controller, and final control element problems
- Troubleshoot control systems
- Apply DCS functions for troubleshooting
- Understand pneumatic and electronic loops
- Apply safety practices for start-up
- Check and utilize control loop documentation
- Diagnose and solve problems related to single loop control loops
- Diagnose and solve problems with ratio, cascade and three-element control loops
- Diagnose problems using DCS displays for information
- Construct and tune a feedback control loop
- Troubleshoot several single loop control systems
Audience
COURSE AUDIENCE
- Instrumentation and control engineers and technicians
- Design, installation and maintenance engineers and technicians in the process industries
- System integrators
- System consultants
Content
COURSE CONTENT
DAY 1:
Ch.1: Learning to Troubleshoot
1.1 Experience
1.2 Apprenticeships
1.3 Mentoring
1.4 Classroom Instruction
1.5 Individual Study
1.6 Logic and Logic Development
Ch. 2: The Basics of Failures.
2.1 Definition of Failure
2.2 How Hardware Fails
2.3 How Software Fails
2.4 Environmental Effects on Failure Rates
2.5 Functional Failures
2.6 Systematic Failures
2.7 Common-cause Failures
2.8 Root-cause Analysis
DAY 2:
Ch. 3: Failure States
3.1 Overt and Covert Failures
3.2 Directed Failures
3.3 Directed Failure States
3.4 What Failure States Indicate
Ch. 4: Logical/Analytical Troubleshooting Frameworks
4.1 Logical/Analytical Troubleshooting Framework
4.2 Specific Troubleshooting Frameworks
4.3 How a Specific Troubleshooting Framework Works
4.4 Generic Logical/Analytical Frameworks
4.5 A Seven-step Procedure
4.6 Examples of How to Use the Seven-step Procedure
4.7 Vendor Assistance Advantages and Pitfalls
4.8 Why Troubleshooting Fails
DAY 3:
Ch. 5: Other Troubleshooting Methods
5.1 Why Use Other Troubleshooting Methods?
5.2 Substitution Method
5.3 Fault Insertion Method
5.4 “Remove and Conquer” Method
5.5 “Circle the Wagons” Method
5.6 Trapping
5.7 Complex to Simple Method
5.8 Consultation
5.9 Intuition
5.10 Out-of-the-Box Thinking
Ch. 6: Safety
6.1 General Troubleshooting Safety Practices
6.2 Human Error in Industrial Settings
6.3 Plant Hazards Faced During Troubleshooting
6.4 Troubleshooting in Electrically Hazardous (Classified) Areas
6.5 Protection, Procedures, and Permit Systems
DAY 4:
Ch. 7: Tools and Test Equipment
7.1 Hand Tools
7.2 Contact-type Test Equipment
7.3 Noncontact Test Equipment
7.4 Simulators/Process Calibrators
7.5 Jumpers, Switch Boxes, and Traps
7.6 Documenting Test Equipment and Tests
7.7 Accuracy of Test Equipment
Ch. 8: Troubleshooting Scenarios
8.1 Mechanical Instrumentation
8.2 Process Connections
8.3 Pneumatic Instrumentation
8.4 Electrical Systems
8.5 Electronic Systems
8.6 Valves
8.7 Calibration
8.8 Programmable Electronic Systems
8.9 Communication Loops
8.10 Transient Problems
8.11 Software
8.12 Flow Meters
8.13 Level Meters
DAY 5:
Ch. 9: Troubleshooting Hints
9.1 Mechanical Systems
9.2 Process Connections
9.3 Pneumatic Systems
9.4 Electronic Systems
9.5 Grounding
9.6 Calibration Systems
9.7 Tools and Test Equipment
9.8 Programmable Electronic Systems
9.9 Serial Communication Links (Loops)
Certificate
COURSE CERTIFICATE
TRAINIT ACADEMY will award an internationally recognized certificate(s) for each delegate on completion of training.
Methodology
COURSE METHODOLOGY
The training course will be highly participatory and the course leader will present, guide and facilitate learning, using a range of methods including formal presentation, discussions, sector-specific case studies and exercises. Above all, the course leader will make extensive use of real-life case examples in which he has been personally involved. You will also be encouraged to raise your own questions and to share in the development of the right answers using your own analysis and experiences. Tests of multiple-choice type will be made available on daily basis to examine the effectiveness of delivering the course.
- 30% Lectures
- 30% Workshops and work presentation
- 20% Case studies & Practical Exercises
- 10% Role Play
- 10% Videos, Software or Simulators (as applicable) & General Discussions