M.Tech in Transportation Engineering
Semester-wise syllabus for an M.Tech in Transportation Engineering
Semester 1: Core Foundations
Courses:
1. Transportation Planning and Economics
- Travel demand modeling, four-stage modeling, cost-benefit analysis, and land-use integration.
2. Traffic Engineering
- Traffic flow theory, signal design (Webster’s method), capacity analysis, and level of service (LOS).
3. Pavement Materials and Design
- Flexible/rigid pavement design (IRC, AASHTO standards), material characterization (bitumen, aggregates).
4. Transportation Systems Analysis
- Network optimization, public transit systems, and GIS applications in transport.
5. Research Methodology
- Technical writing, statistical tools (Python/R), and data collection techniques.
Labs:
- Traffic Simulation Lab (PTV Vissim, Synchro)
- Pavement Testing Lab (Marshall stability, CBR, bitumen tests)
Semester 2: Advanced Topics & Electives
Core Courses:
1. Public Transportation Systems
- Bus Rapid Transit (BRT), metro rail planning, fare structures, and transit-oriented development (TOD).
2. Highway Geometric Design
- Horizontal/vertical alignment, intersection design, and IRC guidelines.
Electives (Examples):
- Intelligent Transportation Systems (ITS)
- Airport Planning and Design
- Railway Engineering (track design, signaling)
- Sustainable Transportation (green corridors, non-motorized transport)
- Freight and Logistics Management
Labs:
- GIS Lab (ArcGIS, QGIS for transportation networks)
- Highway Design Lab (AutoCAD Civil 3D, MX Road)
Semester 3: Specialization & Project Work
Electives (Examples):
- Urban Transportation Planning (smart cities, mobility-as-a-service)
- Pavement Maintenance and Rehabilitation
- Transportation Safety and Accident Analysis
- Port and Harbor Engineering
- AI/ML in Transportation (traffic prediction, autonomous vehicles)
Project/Dissertation:
- Phase 1: Topic selection (e.g., congestion pricing models, EV charging infrastructure, pedestrian safety audits), literature review, and proposal.
- Seminars: Presentations on trends like connected/autonomous vehicles, shared mobility, or climate-resilient infrastructure.
Semester 4: Thesis/Project Completion
Thesis/Project:
- Full-time focus on simulations (e.g., traffic microsimulation), field studies (e.g., traffic surveys), or policy analysis.
- Final documentation, viva voce defense, and collaboration with agencies (e.g., NHAI, urban planning departments).
Additional Components:
- Industrial Internship (optional, with firms like AECOM, L&T, or government bodies like MORTH).
- Workshops: Training in *BIM for Infrastructure, **SUMO (Simulation of Urban Mobility), or **road safety audits*.
Elective Tracks (Specializations):
1. Traffic and Urban Mobility
- Smart traffic management, shared mobility, and pedestrian-friendly design.
2. Pavement Engineering
- Advanced materials (warm mix asphalt, geosynthetics), lifecycle assessment.
3. Transportation Policy and Economics
- Sustainable funding models, EV policies, and global best practices.
4. Logistics and Supply Chain
- Freight corridor optimization, warehouse location analysis.