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Air Bellow for Felt and Fabric Guider
This air bellow is used for felt and fabric auto guide system, which are designed to ensure the press felt, forming fabric and dryer fabric running correctly in the center of the roll.
When the air bellow is working, compressed air is filled into the inner cavity to form a compressed air column. As the vibration load increases, the height of the bellow decreases, the volume of the inner cavity decreases, the stiffness of the bellow increases, and the effective bearing area of the air column in the inner cavity increases. At this time, the bearing capacity of the bellow increases. When the vibration load decreases, the height of the bellow increases, the volume of the inner cavity decreases, the stiffness of the bellow decreases, and the effective bearing area of the air column in the inner cavity decreases.
At this time, the bearing capacity of the bellow decreases. In this way, within the effective stroke of the air bellow, the height, internal cavity volume, and load-bearing capacity of the air bellow undergo smooth and flexible transmission with increasing and decreasing vibration loads, and the amplitude and vibration load are controlled. It is also possible to adjust the stiffness and load-bearing capacity of the bellow by increasing or decreasing the filling volume, and an air chamber can be attached to achieve self-control regulation.
Air Bellow for Felt and Fabric Guider
This air bellow is used for felt and fabric auto guide system, which are designed to ensure the press felt, forming fabric and dryer fabric running correctly in the center of the roll.
When the air bellow is working, compressed air is filled into the inner cavity to form a compressed air column. As the vibration load increases, the height of the bellow decreases, the volume of the inner cavity decreases, the stiffness of the bellow increases, and the effective bearing area of the air column in the inner cavity increases. At this time, the bearing capacity of the bellow increases. When the vibration load decreases, the height of the bellow increases, the volume of the inner cavity decreases, the stiffness of the bellow decreases, and the effective bearing area of the air column in the inner cavity decreases.
At this time, the bearing capacity of the bellow decreases. In this way, within the effective stroke of the air bellow, the height, internal cavity volume, and load-bearing capacity of the air bellow undergo smooth and flexible transmission with increasing and decreasing vibration loads, and the amplitude and vibration load are controlled. It is also possible to adjust the stiffness and load-bearing capacity of the bellow by increasing or decreasing the filling volume, and an air chamber can be attached to achieve self-control regulation.
