Commercial cleaning robots are critical automated devices in smart sanitation and property management. They are widely used for daily cleaning operations in large-scale settings such as shopping malls, airports, train stations, hospitals, office buildings, factory workshops, and municipal roads. Equipped with cleaning components such as scrub decks, squeegees, and waste bins, these cleaning robots utilize autonomous navigation and path planning to achieve round-the-clock, highly efficient automated cleaning, effectively replacing traditional manual labor.

In our product applications, linear actuators primarily handle core tasks such as raising and lowering the scrub deck, raising and lowering the squeegee, and tilting the waste bin. During the scrubbing process, the actuators automatically adjust the height of the scrub deck based on floor conditions to ensure optimal contact pressure between the deck and the floor. Once waste collection is complete, the actuators drive the lifting and tilting of the waste bin to automatically dump the waste into a collection container. Compact, easy to install, and maintenance-free, these linear actuators operate reliably within the limited underside space of cleaning robots. By replacing traditional hydraulic and pneumatic solutions with precise linear motion, they provide efficient, reliable, and low-maintenance automated power for commercial cleaning applications.

Robot training hangers are indispensable testing and debugging platforms in the research, development, and production of humanoid robots. They are widely used by humanoid robot manufacturers, research laboratories, embodied intelligence R&D institutions, and similar facilities. Before a humanoid robot leaves the production line, it must undergo rigorous systematic training and calibration to ensure joint flexibility, hand-foot coordination, and movement balance. The robot training hanger suspends the robot in the air via an overhead track or a mobile head unit, enabling various command tests, joint motion training, and limb coordination adjustments to be performed on the robot under safe and controlled conditions.

In our product applications, linear actuators serve as the core drive components for height adjustment and fine-tuning of the suspension system's orientation. Driven by commands from the control system, the linear actuator precisely adjusts the height and suspension angle of the robot training hanger—gently lifting the robot to the suspended training position when raising it, and gently lowering it back to the ground when lowering it. The actuator operates smoothly, moves with precision, and responds quickly, maintaining stable and reliable lifting performance even while supporting the robot's weight.

Lifting robots (also known as torso robots or elevating mobile robots) are a new type of robotics that has garnered significant attention in recent years in the fields of embodied intelligence and mobile robotics. They are widely used in scenarios such as industrial inspections, warehousing and logistics, commercial services, and security patrols. The lower half of a torso robot is connected by lifting columns, which enable the vertical movement of the robot's upper body through their telescoping motion. This design allows the robot to flexibly adjust its field of view and operational range according to task requirements—navigating through low-clearance spaces when in the lowered position and surveying the entire scene from an elevated position.

In our product applications, lifting columns serve as the core structural component and power actuator of the torso robot. They convert the rotational motion of a low-voltage DC motor into smooth linear lifting motion, supporting the entire weight of the robot's upper body and enabling precise height adjustment. Lifting columns feature a robust structure and stable operation, capable of withstanding high dynamic and static bending moments. As the robot's "waist and legs," the lifting column not only determines the robot's viewing height but also defines its core ability to maintain postural stability during vibrations and movement.