Protective Relaying Principles & Applications
The rapid growth of next generation power systems creates a real need for updates to protective relay systems to ensure enhanced security, dependability and effectiveness. Engage in comprehensive discussions and analysis about enhanced features of next generation protective relay systems that adapt to changing conditions. This course describes changes that will be implemented as the next generation power system is established.
Learn to apply microprocessor-based relays to detect voltage collapse. Utilize voting logic to minimize misoperations and explore applications that minimize neighborhood blackouts.
This course can be applied to the Electrical Engineering Certificate.
Instructor
Mr. Sleva is President of Prescient Transmission Systems, a consulting company that focuses on innovations that are needed as energy production migrates to carbon free, renewable energy. He is involved with 1.) directing the development of new products and services ... read more
Who Should Attend
Analysts, designers, engineers and technicians involved with the design, development or utilization of transmission lines, distribution lines, substations or medium voltage motors as well as anyone involved in protective relay selection and application.
Benefits and Learning Outcomes
- Learn to apply microprocessor-based relays to detect voltage collapse
- Utilize voting logic to minimize misoperations
- Analyze applications that minimize neighborhood blackouts
Course Outline/Topics
Tools of the Trade
- Three line diagrams
- Single line diagrams
- Zones of protection
- Per unit system
- Symmetrical components
- Short circuit calculations
- Current transformers – polarity and connections
- Voltage transformers – polarity and connections
- Circuit breaker tripping schemes
- Redundancy
- Dependability
- Security
- Reliability
Substation Protection
- Transformer differential relays
- Transformer overload relays
- Bus differential relays
- Ring bus differential considerations
- Circuit breaker failure considerations
- Shunt reactor protection
- Shunt capacitor banks (series parallel can arrangements) protection
- Arc flash considerations
Distribution System Protection
- Overhead and underground lines
- Phase time overcurrent relays
- Phase instantaneous overcurrent relays
- Ground time overcurrent relays
- Ground instantaneous overcurrent relays
- Steady state load limits
- Cold load pickup inrush
- Voltage recovery inrush
- Coordination with downstream fuses
- Coordination with downstream reclosers
- Protection of Selected Equipment
- Distributed generation considerations
- Automated distribution system considerations
Transmission System Protection
- Phase relays (Zone 1, Zone 2 and Zone 3)
- Arc resistance
- Steady state load limits
- Transient load limits
- Directional time overcurrent ground relays
- Directional instantaneous overcurrent ground relays
- Multi-terminal lines
- Apparent impedance
- Ground bank action
- Series reactors
Communication-Aided Relaying Schemes
- Permissive Over-reaching Schemes
- Directional Comparison Schemes
- Direct Transfer Tripping Schemes
- Line Differential Schemes
Special Protection Schemes
- Undervoltage protection
- Transmission System Undervoltage Protection
- Transmission System FIDVR Protection
- Overvoltage protection
- Voltage comparison
- Overfrequency protection
- Underfrequency protection
- Large Motor Protection
Date: Tue-Thu, Oct 15-17, 2024
Delivery Method: Live Online
Time: 8am-4pm CT
Platform: Zoom
Instructor: Anthony Sleva PE
Fee: $1,395
CEUs: 2.1
Enrollment Limit: 20
Program Number: 4840-16263
Registration Deadline: Oct 8, 2024
Date: Tue-Wed, June 17-18, 2025
Delivery Method: Live Online
Time: 8am-3pm CT
Platform: Zoom
Instructor: Anthony Sleva PE
Fee:
$1,295 by June 3, 2025
$1,395 after June 3, 2025
CEUs: 2
Enrollment Limit: 18
Program Number: 4840-16726
Registration Deadline: June 10, 2025