How Do Reeman AMR Robots Avoid Obstacles? Will They Get Stuck?


Do AMR Robots Get Stuck When They Encounter Obstacles?

In busy factory environments, forklifts, pallets, workers, and machines are everywhere.
So it’s normal for factory owners to ask:

“What if the robot hits something? Will it get stuck?”

With Reeman AMR robots, the answer is clear:

No—Reeman AMRs don’t get stuck, and they actively avoid obstacles.

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1. Triple-Sensor Safety System for 360° Detection

Reeman AMR robots use a three-layer protection system, including:

  • LiDAR

  • 3D depth cameras

  • Ultrasonic sensors

These sensors create a 360° real-time environmental map, enabling the robot to detect:

  • Stationary obstacles (racks, pallets, equipment)

  • Moving objects (people, forklifts, trolleys)

Once an obstacle is detected, the robot automatically:

  • Slows down

  • Calculates a bypass route

  • Re-plans its path

  • Continues the task without interruption

This ensures smooth operation even in high-traffic or unpredictable areas.

2. Intelligent Dynamic Obstacle Avoidance

Unlike traditional AGVs that follow fixed magnetic strips or QR codes,
Reeman AMR robots use SLAM autonomous navigation, enabling them to:

  • Understand changing environments

  • Predict moving obstacles

  • Execute intelligent dynamic avoidance

  • Navigate tight and cluttered spaces effortlessly

Whether a forklift passes by or a worker suddenly appears, the AMR can instantly adjust its path.

3. No Fixed Routes Means No “Dead Situations”

Traditional AGVs often freeze or fail when:

  • The aisle is blocked

  • Shelves are rearranged

  • The magnetic strip is damaged

  • The route changes

Reeman AMR robots don’t rely on any fixed markers.
They update their map in real time, so even if the layout changes temporarily, the robot:

  • Re-scans the environment

  • Re-plans the route

  • Completes the task without human intervention

This means no downtime and no stuck robots.

4. Built-In Safety Redundancy

If the AMR detects an obstacle too close, a safety mechanism triggers:

  • Automatic slowdown

  • Controlled stop

  • Alert notifications

This prevents collisions and ensures the safety of both people and equipment.

5. Stable Performance in Tight and Mixed-Traffic Areas

Whether it’s:

  • Narrow aisles

  • Sharp corners

  • Human-vehicle mixed zones

  • Temporary blockages

Reeman AMR robots can pass safely and continue their assigned tasks without hesitation.

Reeman AMR Robots Don’t Fear Chaos—they Handle It

Reeman’s advanced obstacle-avoidance technology ensures:

  • No stuck robots

  • No route failures

  • No safety hazards

  • 24/7 reliable logistics automation

In short:

The only time a Reeman AMR stops is when you haven’t turned it on.
Once running, it brings safer, smarter, and more efficient material handling to every factory.



Article Source: Reeman

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