Autonomous • Electric • Campus Mobility

TiHAN Autonomous Campus Shuttle

A research-driven autonomous, electric shuttle developed at IIT Hyderabad under the NMICPS initiative—built for safe, reliable, and campus-friendly mobility in real-world environments.

Safety-first autonomy Built-in redundancy & perception-led decisions
Campus-ready operation Pedestrian-aware, low-speed, route-scalable
Deployment-oriented R&D Validated in live campus settings

About the Shuttle

The TiHAN Autonomous Campus Shuttle is an electric, self-driving mobility platform designed for safe first/last-mile movement within campuses and large controlled environments. Developed at IIT Hyderabad under the NMICPS initiative, it enables reliable autonomous operation with a focus on safety, comfort, and deployability.

Purpose & intent
  • Provide dependable campus transport with minimal operational overhead
  • Demonstrate real-world autonomy beyond lab conditions
  • Offer a scalable platform for pilots, research, and partnerships

Key Features

Icon-based highlights focused on autonomy, safety, and campus-ready operations.

Autonomous Navigation

Robust motion planning for structured and semi-structured routes.

Obstacle Detection & Safety

Pedestrian-aware perception with safe-speed behavior.

Sensor Fusion

Multi-sensor fusion for resilient situational awareness.

Electric & Sustainable

Low-emission mobility designed for daily operations.

Campus-friendly Operation

Quiet, smooth, and predictable behavior around people.

Technology & Capabilities

A practical stack built for real-time autonomy and field validation—technical depth without overload.

Technology Stack
  • Perception: multi-sensor perception pipeline for environment understanding
  • Localization: map/feature-based localization for campus operation
  • Planning: trajectory generation and behavior planning
  • Control: stable tracking & safety constraints
  • Edge Computing: on-board processing for low-latency autonomy
Capabilities
  • GPS-denied navigation: operation in partially occluded or low-signal areas
  • Real-time decision-making: safe reactions to dynamic obstacles
  • Scalable routes: quick adaptation across campus segments
  • Operational safety: design aligned to controlled-environment deployments

Use Cases

Designed for structured environments where safety, reliability, and predictable routes matter.

University Campuses

Safe, low-speed mobility for students, staff, and visitors.

Research & Innovation Hubs

Demonstration-ready autonomy for testbeds and pilots.

Corporate & IT Parks

First/last-mile shuttle service across large campuses.

Large Institutional Campuses

Predictable mobility in large facilities and complexes.

Demonstration & Deployment

Tested and demonstrated in the IIT Hyderabad campus environment, the shuttle is positioned for pilot deployments with partners seeking credible real-world validation.