Semester-wise syllabus for an M.Tech in Power Systems Engineering

 

Semester 1:

 Core Foundations 

Courses: 

1. Advanced Power System Analysis 

   - Load flow studies, fault analysis (symmetrical & unsymmetrical), stability (transient, dynamic, voltage). 

2. Power System Protection 

   - Relay coordination, differential/overcurrent protection, arc flash analysis, and SCADA systems. 

3. Power Electronics in Power Systems

   - FACTS devices (STATCOM, SVC, UPFC), HVDC transmission, and converter topologies. 

4. Renewable Energy Integration 

   - Grid integration of solar/wind, energy storage systems (BESS, pumped hydro), microgrids. 

5. Research Methodology 

   - Technical writing, statistical tools (MATLAB/Python), and optimization techniques. 

Labs: 

- Power System Simulation Lab (MATLAB/Simulink, ETAP, PSS/E) 

- Power Electronics Lab (HVDC/FACTS converter prototyping) 

 

Semester 2:

 Specialization & Electives 

Core Courses: 

1. Smart Grid Technologies 

   - Demand response, AMI, IoT in grids, cyber-physical security, and distributed energy resources (DERs). 

2. High Voltage Engineering 

   - Insulation coordination, breakdown mechanisms, testing (partial discharge, lightning surges). 

Electives (Examples): 

- HVDC and Flexible AC Transmission Systems (FACTS) 

- Power System Deregulation and Markets 

- Energy Storage Systems

- Power Quality and Harmonics

- Artificial Intelligence in Power Systems 

Labs:

- Smart Grid Lab (OPAL-RT, RTDS for real-time simulations) 

- High Voltage Lab (impulse generator testing, insulation diagnostics) 

 

Semester 3:

 Advanced Electives & Project Work 

Electives (Examples): 

- Micro grid Design and Operation 

- Electric Vehicle Charging Infrastructure 

- Reliability and Resilience in Power Systems 

- Advanced Protective Relaying (IEC 61850, digital relays) 

- AI/ML for Power System Optimization 

Project/Dissertation: 

- Phase 1: Topic selection (e.g., grid resilience enhancement, EV-grid integration, AI-based load forecasting), literature review, and proposal. 

- Seminars: Presentations on trends like digital twins, blockchain in energy trading, or green hydrogen integration. 

 

Semester 4:

 Thesis/Project Completion 

Thesis/Project: 

- Full-time focus on simulations (e.g., grid stability analysis), hardware prototyping (e.g., microgrid controllers), or policy studies. 

- Final documentation, viva voce defense, and potential industry collaboration. 

Additional Components: 

- Industrial Internship (optional, with utilities like NTPC, POWERGRID, or renewable energy firms). 

- Workshops: Training in tools like PSCAD, DIgSILENT PowerFactory, or Python for Power Systems. 

 

Elective Tracks (Specializations):

1. Renewable Energy Systems 

   - Grid integration, hybrid systems, energy storage, and policy frameworks. 

2. Power Electronics & HVDC

   - Converter design, FACTS devices, and power quality solutions. 

3. Smart Grids & Automation 

   - IoT-enabled grids, demand-side management, and cyber-security. 

4. Power System Protection & Control 

   - Adaptive relaying, wide-area monitoring (WAMS), and fault diagnosis.