Sensor-Guided Current Collector Force Control to Reduce Sliding Wear

The patent implements a dynamic contact pressing force adjustment system that continuously adapts the pressing force based on real-time monitoring of sliding piece position, velocity, and operational conditions. The control unit modifies the contact pressing force dynamically rather than maintaining a constant high force, thereby ensuring adequate electrical contact while reducing excessive mechanical stress and wear on the sliding piece.

The system changes the parameter of contact pressing force from a fixed value to a variable parameter that is continuously adjusted based on monitored conditions. The control unit receives data from sensors about the sliding piece's state and conductor rail conditions, then modifies the contact pressing force parameter accordingly to optimize the balance between electrical contact quality and wear prevention.

The patent implements a feedback control system where sensors continuously monitor the sliding piece's position, velocity, and contact conditions, and this information is fed back to the control unit. The control unit adjusts the contact pressing force based on this feedback to maintain optimal energy transfer efficiency while preventing excessive wear that would increase maintenance requirements.

The system dynamically adjusts the contact pressing force based on real-time operational conditions rather than maintaining a constantly high force. This dynamic adaptation ensures sufficient energy transfer efficiency while reducing mechanical stress and extending the service life of the sliding piece, thereby decreasing maintenance effort and replacement frequency.

The system implements self-service through automated monitoring and control, where sensors and a control unit continuously adjust the contact pressing force without human intervention. This self-regulating mechanism extends the service life of the sliding piece by preventing excessive wear while avoiding the need for complex manual adjustment mechanisms or overly durable (and expensive) sliding piece materials.

The patent replaces purely mechanical wear-resistant designs with a controlled system that uses sensors and electronic control to manage contact conditions. Instead of relying on mechanically complex or material-intensive solutions to extend service life, the system uses electronic monitoring and active control of contact pressing force to achieve the same goal with reduced overall complexity.

The system changes the contact pressing force from a fixed high value to a dynamically adjusted parameter. The control unit monitors the sliding piece's position and velocity, and adjusts the contact pressing force parameter in real-time to maintain sufficient contact and prevent electrical arc formation only when necessary, thereby reducing overall energy consumption while still preventing harmful arcs.

The patent implements dynamic adjustment of contact pressing force that adapts to changing operational conditions. Rather than maintaining a constantly high force that increases energy consumption, the system dynamically modifies the force level to match the actual need for contact stability, preventing electrical arcs during critical moments while reducing energy waste during periods when lower force is sufficient.