This invention provides a dehumidification
system and method for the main cable
saddle rollers of a suspension bridge. A sealed protective component encloses the rollers to form a sealed space around and above them. Combined with the synergistic operation of the dehumidification component and the
airflow transmission component, efficient
humidity control of the closed environment of the roller
system is achieved. The design of the sealed protective component ensures the isolation of the rollers from the external environment, preventing
moisture intrusion. Simultaneously, the dehumidification component is installed inside the main
tower crossbeam, making full use of the bridge structure space, avoiding equipment occupying construction area, and improving the
system's integration and adaptability. The
airflow transmission component maintains a low-
humidity state within the sealed space by circulating dry air, effectively preventing construction interruptions or equipment damage caused by roller failure. This improves the efficiency and reliability of bridge construction, making the construction of suspension bridges more robust in high-
humidity environments such as canyons and waterways, and providing technical assurance for the long-term stable operation of the main cable
saddle.