M.Tech in Water Resources Engineering
Semester-wise syllabus for an M.Tech in Water Resources Engineering
Semester 1: Core Foundations
Courses:
1. Advanced Hydrology
- Hydrologic cycle, rainfall-runoff modeling (HEC-HMS, SWAT), flood frequency analysis, and remote sensing applications.
2. Hydraulic Engineering
- Open channel flow, pipe network analysis, hydraulic structures (dams, weirs), and computational hydraulics.
3. Water Resources Planning and Management
- Demand forecasting, conjunctive use of surface/groundwater, and integrated water resources management (IWRM).
4. Fluid Mechanics
- Turbulent flow, boundary layer theory, and computational fluid dynamics (CFD) basics.
5. Research Methodology
- Technical writing, statistical tools (Python/R), and GIS applications (ArcGIS, QGIS).
Labs:
- Hydraulics Lab (flow measurement, pipe network analysis)
- Hydrology Software Lab (HEC-HMS, SWAT)
Semester 2: Advanced Topics & Electives
Core Courses:
1. Groundwater Hydrology
- Aquifer characterization, Darcy’s law, MODFLOW modeling, and contaminant transport.
2. Irrigation Engineering
- Canal design, drip/sprinkler systems, water-use efficiency, and participatory irrigation management.
Electives (Examples):
- Water Quality Modeling (WASP, QUAL2K)
- Climate Change Impact on Water Resources
- River Basin Management
- Urban Water Systems (stormwater management, green infrastructure)
- GIS and Remote Sensing in Water Resources
Labs:
- Groundwater Modeling Lab (MODFLOW, GMS)
- Irrigation Design Lab (CROPWAT, AutoCAD Civil 3D)
Semester 3: Specialization & Project Work
Electives (Examples):
- Water-Energy-Food Nexus
- Flood Risk Assessment and Mitigation
- Desalination and Water Reuse
- AI/ML in Hydrology (predictive modeling, drought forecasting)
- Transboundary Water Governance
Project/Dissertation:
- Phase 1: Topic selection (e.g., groundwater recharge strategies, urban flood modeling, climate-resilient irrigation), literature review, and proposal.
- Seminars: Presentations on trends like smart water grids, nature-based solutions, or AI-driven water management.
Semester 4: Thesis/Project Completion
Thesis/Project:
- Full-time focus on field studies (e.g., watershed modeling, dam safety analysis), simulations, or policy frameworks.
- Final documentation, viva voce defense, and collaboration with agencies (e.g., CWC, NGOs, research institutes).
Additional Components:
- Industrial Internship (optional, with organizations like *World Bank, **UN-Water, **Narmada Control Authority*, or consultancies).
- Workshops: Training in *SWMM, **EPANET, or **climate modeling tools* (CLIMADA, CMIP6 datasets).
Elective Tracks (Specializations):
1. Hydrological Modeling
- Surface/groundwater interaction, flood forecasting, and drought analysis.
2. Water Infrastructure Design
- Dam/reservoir engineering, hydropower systems, and coastal protection.
3. Sustainable Water Management
- Circular water economy, rainwater harvesting, and community-led water governance.
4. Climate Resilience
- Adaptive strategies for extreme weather, sea-level rise, and glacial retreat.