System grounding has been used since electrical power Systems began. However, many utilities and industrial plants have used system grounding methods differently. The problem of whether a system neutral should be earthed and how is should be earthed, has many times been misunderstood completely. Therefore grounding of many systems has been based upon past experience rather than engineering analysis.
Today, maintaining a safe and healthy work environment is extremely important. OSHA has become increasingly aggressive in establishing and enforcing safety and health regulations. Employees are much more concerned with their own safety and health on the job. Workers' Compensation and healthcare costs keep growing. And the drive toward achieving more productivity continues. Power plant Safety is the key to dealing with all of these issues.
This course provides applicable information for grounding, such as definitions, reasons for having a system grounding, equipment grounding, the most desirable grounding method, and so on, and how to measure grounding resistance in order to maintain the grounding system.
Utilities, Industrial and commercial sectors need this course, which studies: the influence of grounding system on performance, protection, security and reliability of electrical networks, and implementation of power plant safety.
Proper grounding is of course essential for safety in electrical systems of industrial and commercial facilities. In addition, well-grounded systems are required to insure power-quality and reliability as well. So, are you spending thousands of dollars to repair damage to your sensitive electronic equipment due to lightning strikes or power surges? Is your facility plagued by mysterious electrical problems? Are you designing new facilities? Are you interested in reducing risks to employees? Is your facility interested in power plant safety program?
Please join us for a short course that addresses how to successfully design implement and test electrical grounding system, and fully implementation of safety program.
1-Importance of safety grounding application.
2-Principles of safety grounding.
3- Provide participants with the different international standards for safety grounding.
4-Focus on specific grounding problems and consequences relating to fires, safety of personnel, and damage to equipment
5-Participate in discussion of grounding problems and how to overcome or avoid them
6-Gain a firm foundation of knowledge for your next project involving grounding
7-Develop your knowledge of theory and practice
8-Understand the factors that influence an effective grounding system.
9-Understand the code requirements for protection grounding.
10-Know how to design simple grounding systems.
11-Know how to measure ground resistance and soil resistivity.
12-Understand how and why grounding system are applied
13-Understand the earth resistance
14-How to protect the human life by using suitable grounding
15-How to use grounding system to mitigate many problems that may affect the electrical equipment
16-How to measure and maintain the grounding grid
17-Understand the effect of grounding on electrical system performance, electrical quantities, magnitude of the fault current and protection system
18-Understand the calculations and design of grounding system taking in considerations safety rules
19-Reduce risk to employees by fully implementing the safety program.
20-Enhancing employee knowledge, improving supervisor employee communication, changing staff behaviors, and improving attitudes toward power plant safety.
• Reduction of on-the-job risk.
• Minimize the risk of electricity as a source of electric shock.
• Save time and money.
• Work more safely and efficiently
• Be more aware of the benefits of good grounding systems
• Better be prepared to design your next grounding system
• To use different technique and be acquainted with software in the field of Grid design.
- HAZARDS OF ELECTRICITY
- PROTECTIVE EARTHING
- STEP VOLTAGE AND TOUCH VOLTAGE
- EARTHING SYSTEMS
- NEUTRAL EARTHING OF INDUSTRIAL HV NETWORK
- SAFETY IN A.C SUBSTATION GROUNDING
- LIGHTNING STROKES AND ELECTROSTATIC CHARGES
- PROTECTING ELECTRONIC EQUIPMENT FROM LIGHTNING & TRANSIENT OVERVOLTAGES
- EARTHING, CORROSION AND CATHODIC PROTECTION
- SOFTWARE GROUNDING APPLICATION WITH PC
AGENDA DAY ONE
CHAPTER 1: HAZARDS OF ELECTRICITY
2-IMPORTANCE OF GROUNDING
3- GROUNDING CLASSIFICATION
4- EARTH, GROUND AND NEUTRAL
6- CONDITIONS OF DANGER
7- HAZARD ANALYSIS
8- ELECTRIC SHOCK
9- AFFECTED BODY PARTS
10- WHY EARTHING?
11- GROUND FAULT INTERRUPTING METHODS
12- ELECTRICAL SAFETY MODEL
13 IP PROTECTION
CHAPTER 2: PROTECTIVE EARTHING
1- EARTHING PRINCIPLES
2- PROTECTIVE EARTHING EQUIPMENTS
3- SOIL RESISTIVITY
5- GROUNDING ELECTRODES
6- EARTHING CONDUCTORS
7- EQUIPMENT GROUNDING
9- PRACTICAL CONSIDERATIONS
10- METHODS FOR DECREASING EARTHING RESISTANCE
11- GROUND INSPECTION WELLS
13- GROUND RESISTANCE MEASUREMENTS
14- PROTECTIVE GROUNDING OF POWER LINES
AGENDA DAY TWO
CHAPTER 3: STEP VOLTAGE AND TOUCH VOLTAGE
1- DANGEROUS CASES
2- VOLTAGE GRADIENTS IN/ON THE EARTH
3- ORIGINS OF STRAY VOLTAGE
4- STRAY VOLTAGE EXPOSURE
5- ANIMAL CONTACT VOLTAGES
6- STRAY VOLTAGE VS. TIME
7-CURRENT FLOW AND VOLTAGE DISTRIBUTION DURING SHORT CIRCUIT
8- HUMAN STEP VOLTAGE AND TOUCH VOLTAGE
9- MEASUREMENT OF STEP VOLTAGE AND TOUCH VOLTAGE
10- VOLTAGE HAZARDS
11- DISTRIBUTION OF EARTH ELECTRODES VOLTAGE
12- EFFECT OF PROTECTIVE GROUNDING ON TOWER FOOTING RESIOSTANCE
13- DISTRIBUTION OF EARTHING ELECTRODES
CHAPTER 4: EARTHING SYSTEMS
1- ELECTRICITY SYSTEM EARTHING ARRANGEMENTS
TNS-System, TT-System, TNC-System, TNC-S-System, IT-System
2- EVALUATION OF EARTHING SYSTEMS
AGENDA DAY THREE
CHAPTER 5: NEUTRAL EARTHING OF INDUSTRIAL HV NETWORK
2- TYPES OF SYSTEM EARTHING
3- WHAT IS THE PURPOSE OF SYSTEM EARTHING?
4- WHAT IS AN UNGROUNDED SYSTEM?
5- WHY CONSIDER GROUNDING YOUR SYSTEM?
6- HOW TO OBTAIN THE SYSTEM NEUTRAL
7- SOLIDLY GROUNDED
8- RESISTANCE GROUNDING
9- COMPARATIVE PERFORMANCE
10- NETWORK WITH TUNED NEUTRAL (PETERSEN COIL)
11- GROUNDING AT POINTS OTHER THAN SYSTEM NEUTRAL
10- SELECTION OF SYSTEM GROUNDING POINT
11- NEUTRAL CIRCUIT ARRANGEMENT
CHAPTER 6: SAFETY IN A.C SUBSTATION GROUNDING
2- RELATION TO OTHER STANDARD
3- SAFETY OF GROUNDING
4- HIGH SPEED FAULT CLEARING
5- ACCIDENTAL GROUND CIRCUIT
6- PRINCIPAL DESIGN CONSIDERATIONS
7- SELECTION OF CONDUCTORS AND CONNECTIONS
8- CONDUCTOR SIZING FACTORS
9- EVALUATION OF GROUND RESSTANCE
10- CALCULATION OF MAXIMUM GPR
11- DESIGN OF GROUNDING SYSTEM
12- CALCULATION OF MAXIMUM STEP AND MESH VOLTAGES
13- SAFTEY REQUIREMENTS
14- REFINEMENT OF PRELIMINARY DESIGN
15- USE OF COMPUTER ANALYSIS IN GRID DESIGN
16- FENCE EARTHING
AGENDA DAY FOUR
CHAPTER 7: LIGHTNING STROKES AND ELECTROSTATIC CHARGES
2- FORMATION OF THUNDERSTORMES (STORM CLOUDS)
3- DAMAGE EFFECTS OF LIGHTNING
4- LIGHTNING PROTECTION SYSTEM COMPONENTS
5- THE NEED FOR PROTECTION
6- ZONE OF PROTECTION
7- AIR TERMINATION NETWORK
8- DOWN CONDUCTORS 9- BONDING
10- ELECTROSTATIC CHARGES
CHAPTER 8: PROTECTING ELECTRONIC EQUIPMENT FROM LIGHTNING & TRANSIENT OVERVOLTAGES
2- THEORY OF TRANSIENT OVERVOLTAGES
3- THE PROBLEMS TRANSIENT OVERVOLTAGES CAUSE
4- IS PROTECTION REQUIRED
5- PROTECTION TECHNIQUES AND BASIC CONSIDERATIONS
6- DEPLOYMENT OF TRANSIENT OVERVOLTAGE PROTECTORS
AGENDA DAY FIVE
CHAPTER 9: EARTHING, CORROSION AND CATHODIC PROTECTION
2- WHY METALS CORRODE
3- FACTORS THAT INFLUENCE CORROSION IN SOIL
4- HOW CATHODIC PROTECTION WORKS
5- USES OF CATHODIC PROTECTION
6- PROTECTION CRITERIA
7- TYPES OF CATHODIC PROTECTION
8- STRAY CURRENTS INTERFERENCE
9- MITIGATION OF STRAY CURRENT CORROSION
10- CATHODIC PROTECTION FOR TOWER FOUNDATIONS USING INDUCTION FROM THE TRANSMISSION LINE ELECTRIC FIELD
11- DRAINAGE PROTECTION OF EARTH-RETURN CIRCUITS LAID IN STRAY CURRENTS AREA
12- ISOLATION APPLICATION
13- CATHODIC PROTECION OF PIPE TYPE CABLES
14-OPTIMIZATION TECHNIQUE FOR THE CATHODIC PROTECTION OF COMPLEX UNDERGROUND CONDUCTOR NETWORKS
15- STEEL GROUNDING SYSTEM IN A HEAVY INDUSTRIAL PLANT
CHAPTER 10: SOFTWARE GROUNDING APPLICATION WITH PC
The course is intended for all electrical safety engineers/managers employed in technical/production or risk management roles and with responsibilities for safety engineering, management or inspection in industrial process sites. It will also benefit regulators and enforcement officers who may have to oversee certain classifications of investigations. This course is designed for employees that perform operation or maintenance work on electric Utilization Equipment, and Power Generation, Transmission, or Distribution installationsm
Trainees shall receive a portfolio containing a comprehensive course manual.
Attendees shall receive a certificate of attendance from AMAD Tech.