本压力均衡补偿器装置，同时具有轴向补偿和径向补偿功能，并且补偿范围广，

The pressure equalization compensator device has both axial compensation and radial compensation functions, and has a wide compensation range and a large amplitude. <br>1. When there is an axial deformation, the axial movement of the static end conductors 5 and 11 occurs, which causes the axial displacement of the moving end conductors 6 and 9 to cause the pressure on the spring 7 to increase or decrease, causing the spring shape The variable changes to absorb or compensate for the axial deformation. (As shown in Figures 2 and 3) <br>2. When there is radial deformation, the axial movement between the static conductors 5 and 11 occurs, so that the spherical contacts of the moving conductors 6 and 9 are on the spherical surfaces of the static conductors 5 and 11 The rotation in the groove causes a relative displacement between the moving conductors 6 and 9, causing the deformation of the spring 7 to change, thereby absorbing or compensating the radial deformation. (As shown in Figure 4)

The pressure equalization compensator device, which also has axial compensation and radial compensation function, and the compensation range is wide and large.<br>1. When there is axial deformation, the static conductors 5 and 11 pass axially move, thus driving the dynamic end conductors 6 and 9 axial displacement, resulting in the pressure on the spring 7 increased or decreased, causing the spring shape variables to change, thereby absorbing or replenishing axial variables. (As shown in Figure 2, 3)<br>2. When there is radial deformation, the static conductors 5 and 11 between the axial movement, so that the moving conductors 6 and 9 of the spherical contact, in the static conductor 5 and 11 spherical grooves, causing the dynamic conductor 6 and 9 between the relative displacement, so that the shape of 7 springs change variables, so as to absorb or complement the radial variables. (Shown in Figure 4)

The pressure equalizing compensator has the functions of axial compensation and radial compensation, and the compensation range is wide and the range is large.<br>1. When there is axial deformation, the static end conductors 5 and 11 will move axially, which will drive the moving end conductors 6 and 9 to shift axially, which will increase or decrease the pressure on the spring 7, and change the shape variable of the spring, so as to absorb or supplement the axial shape variable. (as shown in Figure 2, 3)<br>2. When there is radial deformation, the axial movement occurs between the static end conductors 5 and 11, making the spherical contact of the dynamic conductors 6 and 9 rotate in the spherical groove of the static conductors 5 and 11, causing the relative displacement between the dynamic conductors 6 and 9, making the shape variable of the 7 spring change, so as to absorb or supplement the radial shape variable. (as shown in Figure 4)