Multi-Robot Dynamic Testing Platform

Designed for the Next Generation of Collaborative Robotics

The Multi-Robot Dynamic Testing Platform is an advanced validation system developed specifically for humanoid robots, service robots, logistics robots, exoskeleton systems, and multi-agent robotic collaboration research.

Unlike conventional robot treadmills that evaluate only a single robot, this platform enables simultaneous testing of up to six robotic units, making it ideal for swarm robotics, collaborative manipulation, fleet management validation, and large-scale AI behavior testing.

With a high-capacity load rating of 600 kg, wide-area running surface, bidirectional incline simulation, and intelligent belt correction technology, the platform provides a reliable environment for validating complex robotic systems under repeatable laboratory conditions.

Key Features

Large Collaborative Testing Area

The extra-large testing surface provides ample room for multiple robots operating simultaneously.

Running Area

• 5.0 m × 3.66 m

Testing Objective

Evaluate:

• Multi-robot coordination

• Fleet movement behavior

• Collision avoidance

• Path planning

• Cooperative transportation

Multi-Robot Synchronization Validation

Supports simultaneous operation of:

• 1–6 humanoid robots

• Autonomous mobile robots (AMRs)

• Service robots

• Logistics robots

Testing Objective

Verify:

• Distributed control algorithms

• Multi-agent coordination

• Communication stability

• Task synchronization performance

Heavy-Duty Load Capacity

Maximum payload:

• 600 kg

Suitable for:

• Large humanoid robots

• Heavy-duty industrial robots

• Exoskeleton systems

• Multi-robot group testing

Testing Objective

Assess structural reliability and locomotion performance under realistic operating loads.

Bidirectional Incline Simulation

Incline range:

-15° to +15°

Simulates:

• Uphill climbing

• Downhill descent

• Uneven terrain adaptation

• Dynamic balance recovery

Testing Objective

Measure robot stability, drive efficiency, and balance control under varying terrain conditions.

High-Speed Dynamic Testing

Speed range:

• 0–40 km/h

Speed accuracy:

• ±0.1 km/h

Supports:

• Walking

• Running

• Sprinting

• Emergency stop scenarios

• Autonomous navigation testing

Testing Objective

Validate robot performance across the full mobility spectrum.

Intelligent Belt Tracking & Auto-Correction

The platform integrates:

• Automatic belt alignment

• Automatic monitoring

• Forward and reverse operation

Testing Objective

Ensure long-duration testing stability while reducing maintenance requirements and preventing tracking errors.

Industrial-Grade Safety System

Safety features include:

• Three longitudinal safety rails

• One transverse safety rail

• Multiple support handrails

• Four emergency stop switches

Testing Objective

Protect valuable robotic prototypes and operators during collaborative testing activities.

Typical Applications

Humanoid Robot Development

• Walking and running validation

• Dynamic balance testing

• Locomotion algorithm optimization

Swarm Robotics Research

• Multi-agent coordination

• Formation control

• Distributed AI validation

Logistics Automation

• Warehouse robot fleet testing

• Traffic management simulation

• Autonomous transport validation

Industrial Robotics

• Collaborative robot operation

• Human-robot interaction research

• Automated manufacturing systems

Defense & Security Robotics

• Multi-unit deployment testing

• Autonomous mission coordination

• Complex terrain navigation

Technical Specifications

Technical FAQ

Q1: Why is multi-robot testing becoming increasingly important?

Future robotic deployments will rarely involve a single robot. Warehouses, factories, hospitals, and public service environments increasingly rely on fleets of robots working together. Multi-robot testing verifies coordination efficiency, communication reliability, and collision avoidance strategies before real-world deployment.

Q2: What is the testing logic behind multi-robot coordination validation?

The platform allows multiple robots to operate simultaneously under controlled speed and incline conditions. Engineers analyze synchronization accuracy, task completion efficiency, path planning performance, and response to unexpected robot behavior within the group.

Q3: Why is a 600 kg payload capacity necessary?

Humanoid robots are becoming larger and heavier, while collaborative testing may involve several robots operating at the same time. High load capacity ensures stable operation without affecting test accuracy or platform durability.

Q4: How does incline testing improve robot performance?

Incline testing introduces changing gravitational loads and balance challenges. By evaluating robots on both uphill and downhill conditions, developers can optimize gait generation, motor control, braking algorithms, and energy efficiency.

Q5: What is the purpose of automatic belt tracking and correction?

Long-duration tests involving multiple robots generate uneven loading across the treadmill surface. Automatic tracking and correction maintain belt alignment, ensuring accurate results, reducing downtime, and protecting expensive robotic prototypes.