An Accurate Measuring System of Magnetic Fluid Radial Sealing Torque
A technology of radial sealing and magnetic liquid, which is applied in the field of measurement systems, can solve problems such as the inability to study the rheological characteristics of the magnetic liquid seal gap
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Embodiment approach 1
[0028] Powering the rheometer electromagnet module 1, use the type of rotation 6, such as figure 2 Indicated. A certain amount of magnetic liquid is dripped onto the central platform of the rheometer electromagnet module 1, and the rheometer rotating shaft 9 is controlled to move down to the designated position, and the bottom electromagnet module 1 center platform of the rotation shaft 6 is kept certain. The sealing gap is in the action of the magnetic field, and the magnetic liquid flows to the central platform of the rheometer electromagnet module and the bottom of the shaft bottom to form a sealing chamber, at which time the sealing chamber is the interior space of the shaft and the blank ring. . By passing through the via holes, a quantity gas is accessed or extracted to form a certain pressure difference in the sealing chamber, and the rheometer rotating shaft rotates and measures the torque acts on the shaft on the shaft. By changing the sealing gap of the bottom electromag...
Embodiment approach 2
[0030] Powering the rheometer electromagnet module 1, use the type two-rotating shaft 6, such as Figure 4 Indicated. A certain amount of magnetic liquid is added dropwise to the center hole position of the outer casing 5, and the control rheometer rotating shaft 9 moves down to the designated position, and the bottom of the rotary shaft 6 maintains a certain gap in the center platform of the rheometer electromagnet module 1, and the action of the magnetic field Next, the magnetic liquid flows to the radial electrode teeth from the rotating shaft 6 and the gap of the outer casing 5, and the sealing cavity is the internal, rotating shaft and the internal space of the measuring system. By passing through the via holes, a quantity gas is accessed or extracted to form a certain pressure difference in the sealing chamber, and the rheometer rotating shaft rotates and measures the torque acts on the shaft on the shaft. By changing the fluid-made electromagnet module 1 power supply current...
Embodiment approach 3
[0032] Powering the rheometer electromagnet module 1, use the type three-axis 6, such as Image 6 Indicated. A certain amount of magnetic liquid is added dropwise onto the central platform of the rheometer electromagnet module 1 and the housing 5 center hole position, and the control rheometer rotating shaft 9 moves down to the designated position, the bottom of the rotary 6 and the rheometer electromagnet module 1 The central platform maintains a certain sealing gap, and under the action of the magnetic field, the magnetic liquid flows to the radial electrode tooth and the gap of the outer casing 5, thus forming a sealing chamber, and the sealing cavity is the internal space of the measuring system. A quantity gas is inserted or extracted in the sealing chamber, so that the sealing chamber forms a certain pressure difference, and the control rheometer rotates to rotate and measure the torque actuated on the shaft. By changing the fluid-made electromagnet module 1 power supply curr...
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