PUDU MT1 Max

The robot runs 8 hours in standard mode before requiring a recharge, with total runtime ranging from 5 to 10 hours depending on cleaning intensity. A warehouse night shift supervisor schedules it to clean loading docks and storage aisles during the entire overnight shift without interruption. It recharges in under 3.5 hours, so a distribution center manager runs it for morning operations, charges it during lunch hours, then deploys it again for afternoon cleaning. The 60 Ah battery capacity supports continuous operation across multiple shifts when paired with strategic charging windows.

The robot connects to elevators through PUDU Link integration and travels between floors autonomously. A shopping mall facilities director programs it to clean the food court on level three, take the service elevator down to level one, then sweep the main entrance area without human escort. It coordinates with elevator controls to call the car, enter, select floors, and exit at the right level. Office buildings with restricted access zones use the e-gate integration so the robot passes through security doors during scheduled cleaning routes. Buildings relying primarily on stairs or lacking compatible elevator systems can't use this multi-floor capability.

The robot covers up to 2,200 square meters per hour in standard cover cleaning mode and maxes at 7,000 square meters per hour during spot cleaning mode. An airport terminal operations manager uses spot mode to rapidly clean gate areas between flight departures, clearing a 5,000 square meter zone in under an hour. A convention center director runs it in cover mode during overnight hours to methodically clean the entire 80,000 square meter exhibit hall over multiple nights. The 70 cm sweeping width and 35-liter trashbin let it work extended periods without emptying, though facilities smaller than 20,000 square meters with light debris don't benefit from this industrial capacity.

The robot handles indoor environments with IP54 sealing against dust and water spray but shouldn't operate in extreme weather. A corporate campus facilities manager wanted it to clean outdoor walkways between buildings and found it inadequate during winter months when snow and freezing rain hit. The water-drop sensors activate protective avoidance mode when encountering liquid, which triggers constantly in wet outdoor conditions. An indoor-outdoor shopping plaza uses it exclusively inside the covered retail areas and relies on traditional equipment for parking lots and exterior sidewalks. Covered loading docks and semi-enclosed warehouses work fine as long as rain and snow don't directly enter the space.

No trial period information is available for this industrial cleaning robot. A regional hospital facilities director considering the unit for a 60,000 square meter complex would need to contact PUDU directly about demonstration or pilot programs. Industrial robotics at this scale typically involve capital purchase or lease agreements rather than consumer-style trials. The 85-kilogram robot with specialized docking requirements represents significant infrastructure investment beyond the unit itself. Facilities managers evaluating it should factor in charging station installation, staff training on the system, and integration setup for elevator and gate access before committing.

The robot handles debris ranging from cigarette butts to large bottles through adaptive cleaning that adjusts power based on what it detects. A sports arena cleaning supervisor relies on it after events to collect everything from ticket stubs and food wrappers to empty water bottles scattered across concourses. The dual brush system automatically adjusts cleaning angle to guide different debris types into gaps and toward the 35-liter trashbin. A manufacturing plant floor manager finds it removes metal shavings, cardboard fragments, and packaging materials from production areas. Heavy sludge, liquid spills requiring mopping, or objects larger than bottle-size exceed its pickup capability and require manual intervention.

The 3D LiDAR combined with multi-sensor fusion creates real-time environmental maps that identify pedestrians, animals, and moving vehicles. A busy hospital corridor sees nurses, patients with wheelchairs, and meal delivery carts throughout the day, and the robot stops or reroutes when it detects these obstacles in its path. A warehouse with constant forklift traffic uses it during active shifts because the dynamic vehicle avoidance recognizes fast-moving equipment and adjusts course without stopping operations. The 1.2-meter warning light and safety projection light alert people before the robot rounds corners or enters intersections. Facilities with unpredictable obstacles like children running in shopping malls benefit from the pedestrian detection, though extremely crowded spaces during peak hours slow its cleaning efficiency.