Robotic Load-Securing Side Devices for Stable AGV Transport

The patent applies the dynamics principle by implementing side devices that can change their position and configuration based on the load being transported. The side devices include contact elements that can move between different positions to adapt to varying load sizes, and the articulated quadrilateral mechanisms allow the structure to dynamically adjust its geometry. This dynamic adaptation ensures load stability during turns and direction changes without requiring a completely complex fixed structure for every possible load configuration.

The patent segments the securing system into modular components: side devices, contact elements, articulated quadrilateral mechanisms, and linear actuators. Each component performs a specific function and can be independently controlled. The side devices are divided into multiple contact elements that can independently adjust, allowing the system to handle various load sizes efficiently. This segmentation reduces overall system complexity by breaking down the securing function into manageable, interchangeable parts.

The patent implements preliminary action by activating the securing system before the vehicle begins movement or enters turns. The control unit activates the linear actuators to position the contact elements against the load prior to motion, ensuring the load is secured in advance. This preliminary securing action prevents load instability during high-speed operation and turns, allowing the vehicle to maintain high productivity while ensuring transport safety through proactive load stabilization.

The patent employs feedback mechanisms where sensors detect load position and vehicle motion parameters, and the control unit continuously adjusts the linear actuators to maintain optimal securing force. The system monitors the load's stability during transport and automatically adjusts the contact elements' positions and forces in real-time. This feedback control ensures that the load remains securely stabilized even at high speeds and during directional changes, maintaining both productivity and reliability.

The patent applies universality by designing side devices that can handle multiple load types and sizes with a single configuration. The articulated quadrilateral mechanisms and adjustable contact elements allow the same securing system to adapt to different load geometries and dimensions. This multi-functionality reduces manufacturing complexity compared to having separate securing mechanisms for each load type, as the system can be produced as a standardized module that works universally across various transport scenarios.

The patent utilizes parameter changes by allowing the securing system's geometric parameters to vary dynamically. The articulated quadrilateral mechanisms change their configuration parameters (angles, lengths of links) based on the load being transported. The linear actuators adjust the position and force parameters of the contact elements. These parameter changes enable a single manufactured system to adapt to different loads without requiring multiple specialized components, thereby maintaining manufacturing simplicity while achieving load stability.

The patent resolves the speed-stability contradiction through dynamics by implementing a securing system that actively adapts during motion. The side devices and contact elements dynamically adjust their positions and forces in response to vehicle acceleration, deceleration, and turns. The control unit modifies the securing parameters in real-time based on motion parameters, allowing the vehicle to maintain high speed while ensuring load stability through continuous dynamic adjustment rather than relying on reduced speed.

The patent uses feedback control to maintain load stability at high speeds. Sensors monitor load position, vehicle motion, and securing force, and the control unit continuously adjusts the linear actuators to maintain optimal securing conditions. This real-time feedback allows the system to compensate for dynamic forces generated during high-speed operation and turns, ensuring safety without requiring speed reduction. The feedback loop enables the vehicle to move quickly while the securing system responds automatically to maintain stability.