Certified Power Systems and Smart Grid Professional (CPSGP)
Grid Engineering: Modern Electric Power Systems – A Comprehensive Course on Power System Fundamentals, Control, and Smart Grid Technologies.
This course provides a modern foundation in electric power systems — combining classical theory with current technologies shaping the global grid. Participants gain a holistic understanding of power generation, transmission, distribution, stability, and digital control, as well as new concepts like renewable integration, microgrids, droop control, and blackout prevention.
Through simulations, case studies, and control demonstrations, learners will explore how the legacy power system evolves into a flexible, sustainable, and cyber-secure Smart Grid.
Learning Objectives
After completing this course, participants will be able to:
- Explain and analyze the physical and mathematical principles governing modern electric power systems.
- Apply power flow, stability, and control techniques to model and optimize real-world grids.
- Evaluate renewable and distributed generation impacts on grid reliability and frequency stability.
- Design and simulate system responses to faults, unbalanced conditions, and harmonic distortion.
- Understand and implement control strategies (droop, AGC, inverter control, and grid-forming methods).
- Identify causes of blackouts and mitigation strategies through protection coordination and situational awareness.
Target Audience
- Power and electrical engineers
- Renewable energy specialists
- Smart grid and control system professionals
- Utility engineers, regulators, and system planners
- Graduate students in power engineering and renewable systems
Format
- Duration: 2 Days (Instructor-led / Virtual / Hybrid)
- Format: 50% Lecture + 30% Workshops + 20% Case Studies
Course Modules
Module 1: Foundations of Modern Power Systems
- Structure and operation of generation–transmission–distribution systems
- AC circuit review: impedance, phasors, and complex power
- Power factor, reactive compensation, and load balancing
- Introduction to per-unit normalization and base values
- Workshop: Power balance and system loss estimation
Module 2: Complex Power and Power Quality
- Active, reactive, and apparent power
- Non-sinusoidal power and harmonic content
- Power quality standards (IEEE 519)
- Filter design and harmonic mitigation
- FFT-based harmonic analysis and power factor improvement
Module 3: Three-Phase Power Systems
- Generation and connection (Y/Δ) configurations
- Symmetrical and unsymmetrical loads
- Line and phase voltages, sequence components
- Measurement and metering in 3-phase systems
- Workshop: Unbalanced fault analysis using symmetrical components
Module 4: Transmission Line Engineering
- Modeling of short, medium, and long lines
- Distributed parameter lines and propagation constants
- Surge impedance, reflection, and traveling waves
- Transmission line protection and insulation coordination
- Transmission line transient simulation
Module 5: Power Transformers and Interconnection
- Transformer equivalent circuit and voltage regulation
- Tap changers, parallel operation, and vector groups
- Instrument transformers and protection relaying
- Transformer monitoring and diagnostics (DGA)
- Transformer test and loss evaluation
Module 6: Power Flow and System Modeling
- Formation of Y-bus and Z-bus matrices
- Gauss-Seidel, Newton–Raphson, and Fast-Decoupled methods
- Slack, PV, PQ bus classifications
- Optimal power flow (OPF) concepts and economic dispatch
- Case Study: Power flow study
Module 7: Voltage and Frequency Stability
- Voltage collapse mechanisms and reactive margin
- Frequency control: primary, secondary, and tertiary
- Droop control and governor response
- Load–frequency coupling and grid-forming inverter behavior
- Workshop: Frequency stability analysis and droop tuning
Module 8: Dynamics and Transient Stability
- Rotor angle dynamics and the swing equation
- Equal-area criterion and damping
- Synchronous machine models and inertia concepts
- Transient vs. small-signal stability
- Two-machine system transient response
Module 9: Distributed Generation and Microgrids
- Inverter-based resources and control hierarchies
- Grid-following vs. grid-forming inverters
- Microgrid islanding detection and synchronization
- Energy storage systems and virtual inertia concepts
- Droop-controlled inverter in microgrid simulation
Module 10: Smart Grids, SCADA, EMS and Cybersecurity
- Smart substations and digital twin integration
- Communication and IEC 61850
- Wide Area Monitoring Systems (WAMS) and PMUs
- Cyber-physical threats and protection strategies
- Case Study: Ukraine power grid cyberattack and recovery
Module 11: Blackout Analysis and System Resilience
- Major global blackouts: technical and operational causes
- Cascading failures and protection coordination
- System restoration procedures
- Resilient grid design and AI-based monitoring
- Workshop: 2003 Northeast blackout reconstruction
Module 12: Emerging Topics in Power Systems
- HVDC and FACTS devices (STATCOM, SVC, UPFC)
- Renewable integration and grid codes
- Power-to-X, hydrogen coupling, and distributed flexibility
- AI and digital optimization in power operations
Capstone Project
Integrated Grid Stability and Power Flow Simulation
Participants model a regional power system with renewable integration, conduct load flow and stability analysis, and propose mitigation strategies for voltage collapse or blackout scenarios.
Analysis of Recommended Tools
- MATLAB / Simulink
- PowerWorld Simulator
- PSCAD or DIgSILENT PowerFactory
- Python (NumPy, pandapower, matplotlib)
Certification
Upon passing the exam, participants receive:
Tonex Certified Power Systems and Smart Grid Professional (CPSGP)
— A credential validating understanding of modern power systems, smart grid operations, and dynamic control.