A filter cake recovery separator and method of use

Abstract

The application discloses a filter residue recovery separator and a use method, relates to the field of separators, and comprises a connecting butt joint installed on the inner side of the upper end of a base body, and a motor installed on the inner side of the base body, and a transmission gear connected to the output end of the motor for transmission work; the connecting butt joint is provided with an auxiliary rolling structure for bidirectional rolling of contacted materials and filter residue recovery treatment. The filter residue recovery separator and the use method are characterized in that two groups of butt joint movable discs cooperate with connecting rods to push guide movable blocks to reversely move, so that two reversely butted first traction ropes on the outer side of the butt joint connecting sleeve rods are stably driven by the two reversely moving butt joint connecting sleeve rods, high-speed reciprocating rotating force is formed on the two reversely moving butt joint connecting sleeve rods, the high-speed reciprocating rotating force can quickly drive a load butt joint of a load object on the upper end to reciprocating rotate along the inside of the equipment, and solid-liquid centrifugal dewatering treatment is performed on the filter residue and the like accumulated in the inside.

Description

Technical Field

[0001] This invention relates to the field of separator technology, specifically to a filter press residue recovery separator and its usage method. Background Technology

[0002] As a common type of residue, filter press residue needs to be repeatedly filtered to effectively separate the liquid and residue stored inside. For example, a separator disclosed in CN210543801U is a structure that can achieve miniaturization in terms of external dimensions, especially height, and can fully perform the function of separating air from oil. The separator includes: a motor that imparts rotational force to a rotating body; and a fan disposed on the outer periphery of the rotating body and rotating integrally with the rotating body. The separator is configured such that, by utilizing the rotation of the rotating body and the fan caused by the motor, oil flowing in from the oil inlet flows through the interior of the rotating body and flows out from the oil outlet, and air separated from the oil passing through the interior of the rotating body flows out from the air outlet. For example, a separator disclosed in CN1032751A is used to separate a smaller volume of a dilute liquid from a larger volume of a denser liquid. For instance, a small volume of crude oil is separated from production water in an oil well within a long tube with a reduced cross-section. Near the coarse end of the separator, there is at least one tangentially arranged inlet for the liquid mixture, while the fine end of the separator has an outlet for the denser component and an axially arranged outlet for the dilute component. An additional outlet for the denser component may also be provided between the two ends. Most of the existing recovery separators mentioned above improve their overall texture. However, most existing filter press residue recovery separators operate on a unidirectional centrifugal process and cannot achieve adaptive multidirectional centrifugal separation. This results in uneven separation of the filtrate inside the separator. Furthermore, the existing filter press residue recovery separators have a fixed angle of movement and cannot adapt to multi-angle movement to achieve uniform separation of materials in multiple directions, thus limiting their application. Summary of the Invention

[0003] The purpose of this invention is to provide a filter press residue recovery separator and its usage method to solve the problems mentioned in the background art, which are mostly unidirectional centrifugal processing, unable to achieve adaptive multidirectional centrifugal separation operation, resulting in uneven separation of the filtrate inside, and the existing filter press residue recovery separators have fixed operating angles and cannot adapt to multi-angle movement to evenly separate materials in multiple directions.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a filter press residue recovery separator and its usage method, comprising a connecting docking piece nested on the upper inner side of a substrate, and a motor installed on the inner side of the substrate, wherein the output end of the motor is connected to a transmission gear for transmission operation; The connecting part is equipped with an auxiliary crushing structure to crush the contacting material in both directions and to recycle the filter residue. The inner wall of the substrate is bonded to a second airbag, and a connecting sleeve is nested in the middle of the substrate. The connecting sleeve is connected to the second airbag through the middle. The upper end of the connecting sleeve is connected to an adaptive movable structure, which enables adaptive adjustment of the height position. The transmission gear is meshed with a nested gear component on its outer side, and the upper end of the transmission gear is fixedly connected to a docking movable disk. A reciprocating traction mechanism is provided on the outer side of the docking movable disk, and the bearing angle of the docking connecting sleeve is adaptively controlled by the reciprocating traction mechanism.

[0005] Preferably, the auxiliary compaction structure is provided with a first nested member, which is connected to the lower end of the connecting member. The outer side of the first nested member is nested with a connecting movable member. The outer side of the connecting member is connected with a torsion spring connecting shaft block. The lower end of the torsion spring connecting shaft block is fixedly connected with a return spring, and the return spring is connected to the inner side of the base.

[0006] Preferably, the connecting docking member forms a movable structure with the docking movable member through the first nesting member, and the docking movable member forms an elastic rotation structure with the torsion spring docking shaft block, and the torsion spring docking shaft block cooperates with the reset spring to form an elastic reset structure along the inner side of the base.

[0007] Preferably, the reciprocating traction mechanism is provided with a connecting rod, which is connected to the upper end of the docking movable plate. The outer end of the connecting rod is connected to a guide movable block, and the guide movable block is nested and connected to the inner end of the base. The upper end of the guide movable block is fixedly connected to a connecting sleeve rod, and the outer side of the connecting sleeve rod is connected to a first traction rope. The end of the first traction rope is wound around and connected to the outer side of the docking connecting sleeve rod. The lower end of the guide movable block is connected to a second traction rope, and the end of the second traction rope is connected to the lower end of the torsion spring docking shaft block. The inner wall of the substrate is bonded to a first airbag, and the outer side of the first airbag is connected to an air supply hose, which is in communication with the interior of the second airbag.

[0008] Preferably, the transmission gear meshes with the nested gear component, and the nested gear component is connected to the docking connecting sleeve through the shaft. During the rotation of the transmission gear, the docking movable disk rotates synchronously, and the docking movable disk, in conjunction with the connecting rod, pushes the guide movable block to move back and forth.

[0009] Preferably, the guide movable block and the connecting sleeve are an integrated structure, and the connecting sleeve forms a traction rotation structure with the docking connecting sleeve through the first traction rope. There are two first traction ropes symmetrically distributed about the center point of the docking connecting sleeve, and the two first traction ropes face opposite directions.

[0010] Preferably, the adaptive active structure is provided with an embedded docking rod, and the embedded docking rod is rectangular and docked inside the docking connecting sleeve rod. The upper end of the embedded docking rod is docked with a bearing docking member, and the lower end of the bearing docking member is fixedly connected with a second nesting member. The second nesting member docks with the upper end of the embedded docking rod. A preset through hole is opened on the outer side of the bearing docking member. The inner side of the bearing docking component is connected to a docking platform via a torsion spring, and the lower end of the docking platform is connected to a third traction rope. The end of the third traction rope extends to the inner wall of the base. The end of the third traction rope is connected to a connecting shaft, and the connecting shaft is located on the inner wall of the base. At the same time, a torsion spring is connected to the outer side of the connecting shaft.

[0011] Preferably, the bearing docking member forms a movable structure with the upper end of the embedded docking rod through the spherical second nested member, and docking platforms are distributed at equal angles on the upper end surface of the bearing docking member. The docking platforms form a traction structure with the inner wall of the base through the third traction rope, and the docking platforms cooperate with the torsion spring to form a reset structure along the upper end surface of the bearing docking member.

[0012] A method of using a filter press residue recovery separator includes the following steps: S1: Press down on the movable docking part along the upper end of the base to flip it over, thereby opening the bearing docking part and putting the filter residue and other materials to be processed into it. Then release the force applied to the movable docking part to close the equipment. S2: Drive motor. The motor will drive the transmission gear to rotate under force. It will then cooperate with the meshing structure between the nested gear parts to drive the two sets of docking movable discs and connecting rods to push the guide movable block to move in the opposite direction. Thus, through the two reverse docking first traction ropes on the outside of the docking connecting sleeve rod, the two reverse movable connecting sleeve rods will stably drive the winding docking connecting sleeve rod to form a high-speed reciprocating rotation force. This will allow it to quickly drive the upper bearing docking part to reciprocate along the inside of the equipment, thereby performing solid-liquid centrifugal dewatering treatment on the filter residue and other materials stored inside. This achieves adaptive multi-directional centrifugal separation operation, and the internal filtrate is evenly separated. S3: During the reciprocating motion of the guide block pushed by the force of the docking movable plate, the first airbag docked with its bottom will be reciprocated and compressed, thereby supplying air to the second airbag at the end through the air supply hose, causing it to expand and push the rectangular embedded docking rod in contact with the inner side upwards, thereby allowing the embedded docking rod and the bearing docking part of the bearing object to move upwards along the inside of the equipment. S4: Simultaneously, the docking structure of the upper spherical second nested part of the embedded docking rod allows the bearing docking part to adaptively move in multiple angles according to the position of the internal bearing object during centrifugal rotation, uniformly separating materials in multiple directions. Combined with the preset through hole on the outside, it can effectively separate the ejected liquid.

[0013] Compared with the prior art, the beneficial effects of the present invention are: This filter press residue recovery separator and its usage method are equipped with a reciprocating traction mechanism. During the rotation of a single transmission gear under force, it will cooperate with the meshing structure between nested gear components to drive two sets of docking movable discs and connecting rods to push the guide movable block to move in the opposite direction. Thus, through the first traction ropes of the two reverse docking on the outside of the docking connecting sleeve rod, the two reverse movable connecting sleeve rods stably drive the wound docking connecting sleeve rod to form a high-speed reciprocating rotation force, which can quickly drive the upper bearing docking component to reciprocate along the inside of the equipment. This allows the filter residue accumulated inside to be centrifugally dehydrated, achieving adaptive multi-directional centrifugal separation operation. The internal filtrate is evenly separated, improving the practicality of the device. Furthermore, an adaptive active structure is provided. As the docking active plate is pushed by force to guide the active block to move back and forth, the first airbag docked with its bottom will be pressed back and forth accordingly. This will supply air to the second airbag at the end through the air supply hose, causing it to expand and push the rectangular embedded docking rod in contact with the inner side upwards. This will allow the embedded docking rod and the carrier docking part of the carrying object to move back and forth along the inside of the equipment. At the same time, the docking structure of the upper spherical second nested part allows the carrier docking part to adaptively move in multiple angles according to the position of the carrying object during centrifugal rotation, so as to evenly separate the multi-directional material. With the pre-set through hole on the outside, the ejected liquid can be effectively separated. Equipped with an auxiliary crushing structure, as the guide block reciprocates, the second traction rope connected to its lower end will drive the torsion spring docking shaft block connected to its end to reciprocate downwards. As the equipment rotates centrifugally, the torsion spring docking shaft block and the docking movable part connected to the inner side move downwards and reciprocate to contact the upwardly moving bearing docking part, thereby crushing the object inside the object, better separating the liquid inside the object, and improving the service life of the device. Furthermore, during the centrifugal rotation of the bearing docking component, the four docking platforms connected by torsion springs at its inner end will be subjected to force. Combined with the pulling force of the third traction rope wound around the lower end, the bearing docking component will rotate and reset synchronously along its interior. In the process of pressing the bearing docking component and the docking moving part into contact, further crushing is carried out, and the filter residue in contact is subjected to repeated solid-liquid centrifugal treatment, effectively ensuring its processing quality. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the half-section three-dimensional structure of the present invention; Figure 2 This is a schematic diagram of the three-dimensional structure of the connecting sleeve rod of the present invention; Figure 3 This is a three-dimensional structural diagram of the present invention; Figure 4 For the present invention Figure 1 A magnified schematic diagram of the central part of the structure; Figure 5 This is a schematic diagram of the three-dimensional structure of the docking movable disk of the present invention; Figure 6 This is a schematic diagram of the three-dimensional structure of the docking platform of the present invention; Figure 7 This is a schematic diagram of the front sectional view of the present invention; Figure 8 This is a three-dimensional structural diagram of the torsion spring connecting shaft block of the present invention.

[0015] In the diagram: 1. Base; 2. Connecting docking piece; 3. First nested piece; 4. Dating movable piece; 5. Torsion spring docking shaft block; 6. Return spring; 7. Transmission gear; 8. Nested gear piece; 9. Dating movable disc; 10. Connecting rod; 11. Guide movable block; 12. Connecting sleeve rod; 13. First traction rope; 14. Second traction rope; 15. First airbag; 16. Air supply hose; 17. Second airbag; 18. Dating connecting sleeve rod; 19. Embedded docking rod; 20. Bearing docking piece; 21. Second nested piece; 22. Dating platform; 23. Third traction rope; 24. Connecting shaft; 25. Torsion spring; 26. Pre-set through hole; 27. Motor. Implementation

[0016] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0017] Example 1: Please refer to Figures 1-8The present invention provides the following technical solution: a filter press residue recovery separator and its usage method, wherein a connecting docking part 2 is nested on the upper inner side of the substrate 1, and a motor 27 is installed on the inner side of the substrate 1, and the output end of the motor 27 is connected to a transmission gear 7 for transmission operation. The inner wall of the substrate 1 is bonded with a second airbag 17, and a connecting sleeve 18 is nested in the middle of the inner side of the substrate 1. The connecting sleeve 18 is connected to the second airbag 17 through the middle. The upper end of the connecting sleeve 18 is connected to an adaptive movable structure, which enables adaptive adjustment of the height position. The outer side of the transmission gear 7 is meshed with a nested gear component 8, and the upper end of the transmission gear 7 is fixedly connected to a docking movable disk 9. A reciprocating traction mechanism is provided on the outer side of the docking movable disk 9, and the bearing angle of the docking connecting sleeve 18 is adaptively controlled by the reciprocating traction mechanism.

[0018] During the rotation of a single transmission gear 7 under force, it will engage with the meshing structure between the nested gear pieces 8, driving the two sets of docking movable discs 9 to push the guide movable block 11 to move in the opposite direction. Thus, through the two reverse docking first traction ropes 13 on the outside of the docking connecting sleeve 12, the two reverse movable connecting sleeves 12 drive the winding docking connecting sleeve 18 to form a high-speed reciprocating rotational force, allowing it to quickly drive the upper bearing docking piece 20 to reciprocate along the inside of the equipment, thereby performing solid-liquid centrifugal dewatering treatment on the filter residue and other materials stored inside, realizing adaptive multi-directional centrifugal separation operation, and the internal filtrate is evenly separated. The reciprocating traction mechanism is provided with a connecting rod 10, which is connected to the upper end of the docking movable plate 9. The outer end of the connecting rod 10 is connected to a guide movable block 11, and the guide movable block 11 is nested and connected to the inner end of the base 1. The upper end of the guide movable block 11 is fixedly connected to a connecting sleeve rod 12, and the outer side of the connecting sleeve rod 12 is connected to a first traction rope 13. The end of the first traction rope 13 is wound around and connected to the outer side of the docking connecting sleeve rod 18. The lower end of the guide movable block 11 is connected to a second traction rope 14, and the end of the second traction rope 14 is connected to the lower end of the torsion spring docking shaft block 5. The inner wall of the substrate 1 is bonded to a first airbag 15, and the outer side of the first airbag 15 is connected to an air supply hose 16, which is connected to the interior of the second airbag 17. The transmission gear 7 meshes with the nested gear 8, and the nested gear 8 is connected to the docking connecting sleeve 18. During the rotation of the transmission gear 7, the docking movable disk 9 is driven to rotate synchronously, and the docking movable disk 9, in conjunction with the connecting rod 10, pushes the guide movable block 11 to move back and forth.

[0019] The guide block 11 and the connecting sleeve rod 12 are an integrated structure, and the connecting sleeve rod 12 forms a traction rotation structure with the docking connecting sleeve rod 18 through the first traction rope 13. There are two first traction ropes 13 symmetrically distributed about the center point of the docking connecting sleeve rod 18, and the two first traction ropes 13 face opposite directions.

[0020] The adaptive active structure is provided with an embedded docking rod 19, which is rectangular and docks inside the docking connecting sleeve 18. The upper end of the embedded docking rod 19 is docked with a bearing docking member 20, and the lower end of the bearing docking member 20 is fixedly connected to a second nesting member 21. The second nesting member 21 and the upper end of the embedded docking rod 19 are docked together. A preset through hole 26 is provided on the outer side of the bearing docking member 20. The inner side of the bearing docking member 20 is docked with a docking platform 22 through a torsion spring. The lower end of the docking platform 22 is docked with a third traction rope 23, and the end of the third traction rope 23 extends to the inner wall of the base 1. The end of the third traction rope 23 is docked with a connecting shaft 24, and the connecting shaft 24 is located on the inner wall of the base 1. At the same time, the outer side of the connecting shaft 24 is docked with a torsion spring 25. The supporting docking member 20 forms a movable structure with the upper end of the embedded docking rod 19 through the spherical second nested member 21, and docking platforms 22 are distributed at equal angles on the upper end surface of the supporting docking member 20. The docking platforms 22 form a traction structure with the inner wall of the base 1 through the third traction rope 23, and the docking platforms 22 cooperate with the torsion spring to form a reset structure along the upper end surface of the supporting docking member 20. As the docking movable plate 9 is pushed by the force to guide the movable block 11 to move back and forth, the first airbag 15 docked with its bottom will be pressed back and forth accordingly, thereby supplying air to the second airbag 17 at the end through the air supply hose 16, causing it to expand and push the rectangular embedded docking rod 19 in contact with the inner side upwards and back and forth, so that the embedded docking rod 19 and the carrier docking part 20 carrying the object move back and forth along the inside of the equipment. At the same time, the docking structure of the upper spherical second nesting part 21 allows the carrier docking part 20 to adaptively move in multiple angles according to the position of the internal carrier object during the centrifugal rotation, so as to evenly separate the multi-directional material. With the help of the preset through hole 26 on the outside, the ejected liquid can be effectively separated. Example

[0021] Based on Example 1, an auxiliary compaction structure is also disclosed, the specific structure of which is as follows: The connecting docking member 2 is equipped with an auxiliary crushing structure to crush the contacting material in both directions for filter residue recovery. The auxiliary crushing structure includes a first nesting member 3, which is attached to the lower end of the connecting docking member 2. A connecting movable member 4 is nested and attached to the outer side of the first nesting member 3. A torsion spring connecting shaft block 5 is attached to the outer side of the connecting docking member 2. A return spring 6 is fixedly connected to the lower end of the torsion spring connecting shaft block 5, and the return spring 6 is connected to the inner side of the base 1. The connecting docking member 2 forms a movable structure through the first nesting member 3 and the connecting movable member 4. The connecting movable member 4 and the torsion spring connecting shaft block 5 form an elastic rotation structure, and the torsion spring connecting shaft block 5, in conjunction with the return spring 6, forms an elastic return structure along the inner side of the base 1.

[0022] During the reciprocating motion of the guide block 11, the second traction rope 14 connected to its lower end will drive the torsion spring docking shaft block 5 connected to its end to reciprocate downwards. As the equipment rotates centrifugally, the torsion spring docking shaft block 5 and the docking movable part 4 connected to the inner side move downwards and reciprocate to contact the upwardly moving bearing docking part 20. This allows for a crushing centrifugal operation on the inner part of the object, better separating the liquid inside the contacted object. During the centrifugal rotation of the bearing docking part 20, the four docking platforms 22 connected by the torsion spring at its inner end will be subjected to force. Combined with the pulling force of the third traction rope 23 connected at the lower end, the bearing docking part 20 will rotate synchronously and reset along its interior. Furthermore, during the pressing process of the bearing docking part 20 and the docking movable part 4, further crushing is carried out, and the filter residue and other materials in contact are subjected to repeated solid-liquid centrifugal treatment, effectively ensuring the processing quality. Example

[0023] Based on Embodiments 1 and 2, the following working method is also disclosed: Specifically, it includes the following steps: S1: Press down on the movable docking part 4 along the upper end of the base 1 to flip it over, thereby opening the bearing docking part 20 and putting the filter press residue and other materials to be processed into it. Then release the force applied to the movable docking part 4 to close the equipment. S2: Drive motor 27, which will drive transmission gear 7 to rotate under force. It will then cooperate with the meshing structure between nested gear parts 8 to drive two sets of docking movable discs 9 to cooperate with connecting rods 10 to push guide movable blocks 11 to move in the opposite direction. Thus, through the two reverse docking first traction ropes 13 on the outside of the docking connecting sleeve rod 12, the two reverse movable connecting sleeve rods 12 will stably drive the winding docking connecting sleeve rod 18 to form a high-speed reciprocating rotation force, which can quickly drive the upper bearing docking part 20 to reciprocate along the inside of the equipment, thereby performing solid-liquid centrifugal dewatering treatment on the filter residue and other materials stored inside, realizing adaptive multi-directional centrifugal separation operation, and the internal filtrate is evenly separated. S3: During the reciprocating motion of the guide block 11 pushed by the force of the docking movable plate 9, the first airbag 15 docked with its bottom will be reciprocated and pressurized, thereby supplying air to the second airbag 17 at the end through the air supply hose 16, causing it to expand and push the rectangular embedded docking rod 19 in contact with the inner side upwards, thereby allowing the embedded docking rod 19 and the bearing docking part 20 of the bearing object to move upwards along the inside of the equipment. S4: Simultaneously, the docking structure of the upper spherical second nested part 21 of the embedded docking rod 19 allows the bearing docking part 20 to adaptively move in multiple angles according to the position of the internal bearing object during centrifugal rotation, uniformly separating materials in multiple directions. In conjunction with the preset through hole 26 on the outside, the ejected liquid can be effectively separated.

[0024] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "connected" and "linked" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0025] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A filter press residue recovery separator, comprising a base (1), a connecting docking piece (2) is nested on the upper inner side of the base (1), and a drive motor (27) is installed on the inner side of the base (1), and a transmission gear (7) is connected to the output end of the drive motor (27) for transmission operation; Its features are: The connecting part (2) is equipped with an auxiliary crushing structure to crush the contacting material in both directions and to perform filter residue recycling treatment. The inner wall of the substrate (1) is bonded with a second airbag (17), and a connecting sleeve (18) is nested in the middle of the inner side of the substrate (1). The connecting sleeve (18) and the second airbag (17) are connected through the connecting sleeve (18). The upper end of the connecting sleeve (18) is connected with an adaptive movable structure, which enables adaptive adjustment of the height position. The outer side of the transmission gear (7) is meshed with a nested gear component (8), and the upper end of the transmission gear (7) is fixedly connected to a docking movable disk (9). A reciprocating traction mechanism is provided on the outer side of the docking movable disk (9), and the bearing angle of the docking connecting sleeve (18) is adaptively controlled by the reciprocating traction mechanism. The adaptive active structure is provided with an embedded docking rod (19), and the embedded docking rod (19) is rectangular and docked inside the docking connecting sleeve (18). The upper end of the embedded docking rod (19) is docked with a bearing docking member (20), and the lower end of the bearing docking member (20) is fixedly connected with a second nesting member (21). The second nesting member (21) is docked with the upper end of the embedded docking rod (19). A preset through hole (26) is opened on the outer side of the bearing docking member (20). The inner side of the bearing docking member (20) is connected to the docking platform (22) via a torsion spring, and the lower end of the docking platform (22) is connected to the third traction rope (23). The end of the third traction rope (23) extends to the inner wall of the base (1). The end of the third traction rope (23) is connected to the connecting shaft (24), and the connecting shaft (24) is set on the inner wall of the base (1). At the same time, the outer side of the connecting shaft (24) is connected to the torsion spring (25). The auxiliary compaction structure is provided with a first nested part (3), and the first nested part (3) is connected to the lower end of the connecting part (2), and the outer side of the first nested part (3) is nested and connected to a connecting movable part (4). The outer side of the connecting part (2) is connected to a torsion spring connecting shaft block (5), and the lower end of the torsion spring connecting shaft block (5) is fixedly connected to a return spring (6). At the same time, the return spring (6) is connected to the inner side of the base (1). The bearing docking member (20) forms a movable structure with the upper end of the embedded docking rod (19) through the spherical second nested member (21), and docking platforms (22) are distributed at equal angles on the upper end surface of the bearing docking member (20). The docking platforms (22) form a traction structure with the inner wall of the base (1) through the third traction rope (23), and the docking platforms (22) cooperate with the torsion spring to form a reset structure along the upper end surface of the bearing docking member (20). The connecting docking part (2) forms a movable structure between the first nesting part (3) and the docking movable part (4), and the docking movable part (4) forms an elastic rotation structure with the torsion spring docking shaft block (5), and the torsion spring docking shaft block (5) cooperates with the reset spring (6) to form an elastic reset structure along the inner side of the base (1). The reciprocating traction mechanism is provided with a connecting rod (10), and the connecting rod (10) is connected to the upper end of the docking movable plate (9). The outer end of the connecting rod (10) is connected to a guide movable block (11), and the guide movable block (11) is nested and connected to the inner end of the base (1). The upper end of the guide movable block (11) is fixedly connected to a connecting sleeve rod (12), and the outer side of the connecting sleeve rod (12) is connected to a first traction rope (13). The end of the first traction rope (13) is connected to the outer side of the docking connecting sleeve rod (18). The lower end of the guide movable block (11) is connected to a second traction rope (14), and the end of the second traction rope (14) is connected to the lower end of the torsion spring docking shaft block (5). The inner wall of the substrate (1) is bonded to a first airbag (15), and the outer side of the first airbag (15) is connected to an air delivery hose (16), and the air delivery hose (16) is connected to the interior of the second airbag (17). The transmission gear (7) meshes with the nested gear (8), and the nested gear (8) is connected to the docking connecting sleeve (18) through the connection. During the rotation of the transmission gear (7), the docking movable disk (9) rotates synchronously, and the docking movable disk (9) cooperates with the connecting rod (10) to push the guide movable block (11) to move back and forth. The guide block (11) and the connecting sleeve (12) are an integrated structure, and the connecting sleeve (12) forms a traction rotation structure with the docking connecting sleeve (18) through the first traction rope (13). There are two first traction ropes (13) symmetrically distributed about the center point of the docking connecting sleeve (18), and the two first traction ropes (13) face opposite directions. The drive motor (27) will drive the transmission gear (7) to rotate under force. It will then cooperate with the meshing structure between the nested gear parts (8) to drive the two sets of docking movable discs (9) to cooperate with the connecting rods (10) to push the guide movable block (11) to move in the opposite direction. Thus, through the two reverse docking first traction ropes (13) on the outside of the connecting sleeve rod (12), the two reverse movable connecting sleeve rods (12) will stably drive the docking connecting sleeve rod (18) to form a high-speed reciprocating rotation force, so that it can quickly drive the upper load-bearing docking part (20) to reciprocate along the inside of the equipment.

2. The method of using a filter press residue recovery separator according to claim 1, characterized in that: Includes the following steps: S1: Press down on the docking movable part (4) along the upper end of the base (1) to flip it over, so that the bearing docking part (20) is in the open state, and put the filter press residue to be processed into it. Then release the force applied to the docking movable part (4) to make the equipment in the closed state. S2: Drive motor (27), drive motor (27) will drive transmission gear (7) to rotate under force, which will cooperate with the meshing structure between nested gear parts (8) to drive 2 sets of docking movable discs (9) to cooperate with connecting rods (10) to push guide movable block (11) to move in the opposite direction. Thus, through the first traction rope (13) of the two opposite docking on the outside of the connecting sleeve rod (12), the two opposite moving connecting sleeve rods (12) will drive the docking connecting sleeve rod (18) to form a high-speed reciprocating rotation force, so that it can quickly drive the upper bearing docking part (20) to reciprocate along the inside of the equipment, thereby performing solid-liquid centrifugal dewatering treatment on the filter residue stored inside, realizing adaptive multi-directional centrifugal separation operation, and the internal filtrate is evenly separated. S3: During the reciprocating motion of the guide block (11) pushed by the force of the docking movable plate (9), the first airbag (15) docked with its bottom will be reciprocated and pressurized, thereby supplying air to the second airbag (17) at the end through the air supply hose (16), causing it to expand and push the rectangular embedded docking rod (19) in contact with the inner side upwards, thereby allowing the embedded docking rod (19) and the bearing docking part (20) of the bearing object to move upwards along the inside of the equipment; S4: Simultaneously, the docking structure of the upper spherical second nested part (21) of the embedded docking rod (19) allows the bearing docking part (20) to adaptively move in multiple angles according to the position of the internal bearing object during the centrifugal rotation process, and uniformly separate the multi-directional materials. With the pre-set through hole (26) on the outside, the ejected liquid can be effectively separated.

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