IES-EV-357

Electric Auto Rickshaw Training System is a full-scale, working electric vehicle designed for hands-on training and demonstration of EV drivetrain, battery systems, and mechanical components.

This system features a cut-sectioned passenger auto-rickshaw with exposed drivetrain, transparent battery enclosure, and visible motor controller, enabling learners to clearly understand real-world electric vehicle architecture and subsystem interaction.

KEY TECHNICAL SPECIFICATIONS

EV Training Vehicle Platform
Full-scale electric passenger auto-rickshaw configured as a training and demonstration model.
Traction Motor & Drivetrain System
Electric traction motor with gearbox, differential and rear axle assembly for demonstration of EV propulsion.
Battery & Energy Storage System
Functional EV battery pack with partially cut-sectioned enclosure for visualization of internal structure.
Motor Controller Module
Electric vehicle motor controller with transparent or cut-sectioned enclosure for study of power electronics.
Transmission & Mechanical Drive
Reduction gearbox and differential assembly demonstrating power transfer from motor to wheels.
Vehicle Mechanical Systems
Working steering, suspension and braking mechanisms for mechanical system study.
Driver Control Interface
Handle-mounted throttle control with key-based power switch for operational demonstration.
Electrical Wiring System
Visible wiring harness layout enabling understanding of EV electrical connections and subsystem integration.
Instrumentation & Monitoring
Basic monitoring arrangement for observation of EV system operation and drivetrain behavior.
Mechanical Mounting Structure
Heavy-duty fabricated base frame with anti-vibration supports and mobility provision for laboratory installation.
Safety & Protection System
Emergency stop switch, speed limiter and protective guards ensuring safe low-speed laboratory operation.
RANGE OF EXPERIMENTS
Study of electric vehicle drivetrain operation
Observation of gearbox, differential and rear axle motion
Analysis of steering and braking mechanisms
Demonstration of battery and motor controller operation
Visualization of EV power flow and subsystem interaction
Identification of major EV mechanical and electrical components
Troubleshooting and component recognition exercises