Bisphenol A low-speed conveying system

Abstract

The invention discloses a bisphenol A low-speed conveying system, and relates to the technical field of conveying equipment, the bisphenol A low-speed conveying system comprises a conveying pipeline, a feeding pipe is arranged at the top of the conveying pipeline, and a discharging pipe is arranged at the bottom of the conveying pipeline; a connecting rope is arranged between every two adjacent transmission blocks; the transmission assembly drives the transmission block to slide on the transmission pipeline; a storage cavity is formed in the conveying block, a feeding port is formed in the top of the conveying block, and a discharging port is formed in the bottom of the conveying block. The transmission pipeline is slidably connected with an upper plugging plate; when the conveying block slides to the feeding port to be communicated with the feeding pipe, the control assembly controls the upper blocking plate to open the feeding pipe, and when the conveying block slides to the feeding port to be staggered with the feeding pipe, the control assembly controls the upper blocking plate to close the feeding pipe. And when the conveying block is conveyed to the discharging opening and communicates with the discharging pipe, the driving assembly drives the lower partition plate to open the discharging opening. According to the invention, the quantity of fragmentation of bisphenol A during transmission can be reduced.

Description

Technical Field

[0001] The present application relates to the technical field of transmission equipment, and in particular to a low-speed transmission system for bisphenol A. Background Art

[0002] Bisphenol A, also known as BPA, is an organic compound. Common bisphenol A mainly appears as white needle-shaped crystals or granular structures.

[0003] When bisphenol A is transported, pneumatic transmission systems are often used. During the transmission, the pneumatic transmission system drives bisphenol A to transport materials through high-speed airflow. Although the transportation efficiency is high, when the high-speed airflow drives bisphenol A to be transported, under the high-speed driving of the airflow, violent collisions are likely to occur between bisphenol A and between bisphenol A and the transmission pipeline, resulting in the breakage of bisphenol A.

[0004] Therefore, how to reduce the amount of BPA fragmentation during transmission becomes a problem that needs to be considered. Summary of the invention

[0005] In order to reduce the amount of bisphenol A fragmentation during transmission, the present application provides a bisphenol A low-speed conveying system.

[0006] The present application provides a bisphenol A low-speed conveying system, which adopts the following technical solution: A bisphenol A low-speed conveying system, comprising A transmission pipeline is connected end to end, a feed pipe is arranged at the top of the transmission pipeline, and a discharge pipe is arranged at the bottom of the transmission pipeline; A transmission block is slidably connected in the transmission pipeline, wherein there are a plurality of transmission blocks which are evenly spaced along the extension direction of the transmission pipeline, and a connecting rope is provided between the connected transmission blocks; A transmission component is arranged in the transmission pipeline, and the transmission component drives the transmission block to slide in the transmission pipeline; A storage cavity is formed in the transmission block, a feed port connected to the storage cavity is formed at the top of the transmission block, and a discharge port connected to the storage cavity is formed at the bottom of the transmission block; The transmission pipeline is slidably connected with an upper blocking plate for blocking the feed pipe; A control component is arranged on the transmission pipeline, and when the transmission block slides to the feed port and is connected with the feed pipe, the control component controls the upper blocking plate to open the feed pipe, and when the transmission block slides to the feed port and is misaligned with the feed pipe, the control component controls the upper blocking plate to close the feed pipe; The transmission block is hingedly provided with a lower partition for blocking the discharge port, and the transmission block is provided with a driving component. When the transmission block is transported to the discharge port and connected with the discharge pipe, the driving component drives the lower partition to open the discharge port.

[0007] By adopting the above technical solution, the transmission block slides along the transmission pipeline under the drive of the transmission component, and the storage cavity inside each transmission block can temporarily store bisphenol A. By opening and closing the feed port and the discharge port, the input and output of bisphenol A in the storage cavity are realized. At the same time, bisphenol A is stored in the transmission block, so that the possibility of collision between bisphenol A and the wall of the transmission pipeline during the transmission process is reduced, and during the storage process, bisphenol A is in a relatively static state in the transmission block, which reduces the possibility of collision between bisphenol A, so that the amount of bisphenol A fragmentation during the transmission process is greatly reduced.

[0008] Optionally, the driving assembly includes a driving block, a driving column and a driving spring; The transmission block is rotatably connected to a hinge shaft, the lower partition is fixed to the outer peripheral side of the hinge shaft, and the outer peripheral side of the hinge shaft is formed with a driving groove extending along a spiral track; The driving column is slidably connected to the transmission block, and the driving block is arranged on the outer peripheral side of the driving column and slidably connected to the driving groove; The driving spring is installed in the transmission block, and the driving spring drives the driving column to slide axially along the hinge axis on the transmission block; The transmission pipeline is formed with a receiving groove located above the discharge pipe. When the driving column is aligned with the receiving groove, the driving spring drives the driving column to be inserted into the receiving groove. At this time, the driving block slides in the driving groove, driving the hinge shaft to rotate to the lower partition to open the discharge port; The transmission pipeline is formed with a sliding surface for guiding the driving column to slide away from the receiving groove; When the driving column slides away from the containing groove, the hinge shaft rotates, driving the lower partition to flip and block the discharge port.

[0009] By adopting the above technical solution, when the transmission block slides to the discharge port and is aligned with the discharge pipe, the driving column is inserted into the receiving groove under the push of the driving spring, driving the hinge shaft to rotate, thereby opening the lower partition and allowing bisphenol A to be discharged smoothly. Subsequently, the driving column slides off the receiving groove under the guidance of the sliding surface, the hinge shaft rotates in the opposite direction, and the lower partition automatically resets to block the discharge port. This design not only improves the degree of automation, but also ensures the sealing and stability during the transportation process.

[0010] Optionally, a guiding surface connecting the discharge port and the side wall of the storage cavity is obliquely formed in the transmission block.

[0011] By adopting the above technical solution, the inclined guide surface helps bisphenol A to flow smoothly from the storage cavity to the discharge port inside the transmission block, reducing the accumulation and retention of materials during the transmission process and improving the transmission efficiency.

[0012] Optionally, the control assembly includes a control column and a control spring; A control groove connected to the feed pipe is formed on the transmission pipe, the diameter of the control groove is larger than the diameter of the feed pipe, and the upper blocking plate slides in the control groove; The control spring is installed in the control groove, and the control spring drives the upper blocking plate to block the feed pipe; The control column slides up and down on the upper blocking plate, and when the upper blocking plate slides, the control column and the feed pipe are misaligned; The bottom of the control column is formed with an arc surface structure, and the upper blocking plate is provided with a limiting member. When the arc surface structure of the control column protrudes downward from the upper blocking plate, the limiting member limits the control column from continuing to slide downward; A clearance groove is formed on the top groove wall of the control groove and away from the feed pipe. When the control column is aligned with the clearance groove, the transmission block pushes the control column to be inserted into the clearance groove. A sliding groove is formed on the outer peripheral side wall of the transmission block. When the transmission block slides until the control column is aligned with the sliding groove, the control column slides into the sliding groove and slides away from the control column through the sliding groove.

[0013] By adopting the above technical solution, the automatic control of the opening and closing of the feed pipe is realized through the cooperation of the control column, the control spring and the limiting member. When the transmission block slides until the control column is aligned with the slide slot, the control column slides into the slide slot and pushes the upper blocking plate to open the feed pipe, allowing bisphenol A to enter. When the transmission block continues to slide and the control column is disengaged from the slide slot, the upper blocking plate automatically resets under the action of the control spring to block the feed pipe. This design not only simplifies the operation process, but also improves the safety and efficiency of the system.

[0014] Optionally, the limiting member is a limiting block, the limiting block is arranged on the transmission block, and the control column is formed with a limiting groove for the limiting block to slide up and down.

[0015] By adopting the above technical solution, when the arc surface structure of the control column protrudes downward from the upper blocking plate, the limiting block limits the control column from further sliding down.

[0016] Optionally, a baffle ring is provided on the inner wall of the feed pipe, and the baffle ring is located above the control groove.

[0017] By adopting the above technical solution, bisphenol A is transported downward through the hollow position in the middle of the baffle ring, which is helpful to reduce the possibility of bisphenol A being brought into the control tank during the process of the upper sealing plate sealing the feed pipe.

[0018] Optionally, a transmission surface extending obliquely downward is formed on the top of the retaining ring.

[0019] By adopting the above technical solution, the inclined transmission surface further enhances the guiding effect of the baffle ring, so that bisphenol A can flow more smoothly into the transmission block after contacting the baffle ring.

[0020] Optionally, the transmission block is slidably connected with an upper baffle, and the transmission block is provided with a power spring for driving the upper baffle to block the feed port; The transmission block is formed with power grooves extending through both sides to the outside, and a power bar is formed on the inner peripheral side wall of the transmission pipe. When the transmission block approaches and is aligned with the feed port and the feed pipe, the power bar slides in the power groove; The upper partition is provided with a push block which slides up and down. When the power bar slides in the power groove, the power bar abuts against the push block and pushes the upper partition to open the feed port. Therefore, the transmission block is formed with a connection groove connected to the power groove, and the push block is inclined to form a push surface for the power bar to slide. When the push block is aligned with the connection groove, the power bar pushes the push block to slide into the connection groove; The transmission block is provided with an elastic reset block located in the connection groove. When the power bar moves away from the push block, the elastic reset block pushes the push block to be separated from the connection groove.

[0021] By adopting the above technical solution, the setting of the upper partition and the driving mechanism of the power spring enable the transmission block to automatically open the feed port and allow bisphenol A to enter when it slides to align with the feed pipe. The cooperation between the power bar and the push block realizes the precise control of the upper partition. When the power bar slides in the power groove, the push block is pushed and drives the upper partition to open the feed port; when the power bar moves away from the push block, the elastic reset block pushes the push block out of the connection groove, and the upper partition automatically blocks the feed port. This design not only improves the automation level of the system, but also ensures the sealing and stability during the transportation process.

[0022] Optionally, the transmission component includes a transmission motor, a transmission shaft, a transmission blade and a transmission belt; The outer wall of the transmission pipe is symmetrically provided with a bearing seat, the bearing seat is formed with a bearing groove connected to the transmission pipe, the transmission shaft is rotatably connected to the bearing seat and is located in the bearing groove, and the transmission leaves are evenly spaced and arranged on the outer peripheral side of the transmission shaft along the circumferential direction; The transmission belt is sleeved on the outer peripheral side of the transmission shaft, the transmission motor is arranged on the bearing seat, and the transmission motor drives the transmission shaft to rotate; When the transmission shaft rotates, the transmission blade drives the transmission block to slide on the transmission pipe.

[0023] By adopting the above technical solution, the transmission motor drives the transmission shaft to rotate, and the transmission blade drives the transmission block to slide in the transmission pipe. This design not only simplifies the transmission structure, but also improves the transmission efficiency and stability. At the same time, the design of the bearing seat and the bearing slot provides stable support for the rotation of the transmission shaft, further enhancing the reliability and durability of the system.

[0024] In summary, the present application includes at least one of the following beneficial effects: 1. By storing bisphenol A in the transmission block, the possibility of collision between bisphenol A and the wall of the transmission pipe during the transmission process is reduced. In addition, during the storage process, bisphenol A is in a relatively static state in the transmission block, which reduces the possibility of collision between bisphenol A and greatly reduces the amount of bisphenol A fragmentation during the transmission process; 2. Bisphenol A is transported downward through the hollow middle position of the baffle ring, which is helpful to reduce the possibility of bisphenol A being brought into the control tank during the process of the upper sealing plate sealing the feed pipe. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 is a schematic diagram of the external structure of an embodiment of the present application; Figure 2 This is a schematic diagram of the internal structure of the bearing seat in the embodiment of the present application; Figure 3 is a schematic diagram of an internal cross-section of an embodiment of the present application; Figure 4 is a schematic diagram of the connection structure between the transmission block and the transmission pipeline in an embodiment of the present application; Figure 5 This is a schematic diagram of the connection structure between the lower baffle and the transmission block in the embodiment of the present application; Figure 6 is a schematic diagram of the connection structure between the driving column and the hinge shaft in an embodiment of the present application; Figure 7 It is a schematic diagram of the external structure of the transmission block in an embodiment of the present application.

[0026] Figure numerals: 1, transmission pipeline; 11, feed pipe; 12, discharge pipe; 121, retaining ring; 122, transmission surface; 13, upper blocking plate; 14, receiving groove; 141, sliding surface; 15, control groove; 151, yielding groove; 16, power bar; 17, bearing seat; 171, bearing groove; 2, transmission block; 21, upper partition; 211, push block; 212, push surface; 22, feed port; 23, discharge port; 24, lower partition; 241, hinge shaft; 242, drive Moving groove; 25, power groove; 251, connecting groove; 252, elastic reset block; 26, storage cavity; 261, guide surface; 27, slide groove; 28, limiting block; 29, power spring; 3, transmission component; 31, transmission motor; 32, transmission shaft; 33, transmission leaf; 3, transmission belt; 4, control component; 41, control column; 411, limiting groove; 42, control spring; 5, driving component; 51, driving block; 52, driving column; 53, driving spring; 6, connecting rope. DETAILED DESCRIPTION

[0027] The following is combined with Figure 1-7 This application is described in further detail.

[0028] The present application embodiment discloses a low-speed delivery system for bisphenol A. Figure 1 The low-speed conveying system includes a transmission pipeline 1, which is a circular tubular structure and connected end to end, and a transmission cavity is formed in the transmission pipeline 1. A feed pipe 11 is connected and fixed to the top of the transmission pipeline 1, and the feed pipe 11 is connected and fixed to the feed hopper of bisphenol A, and is used to input bisphenol A into the transmission cavity. A discharge pipe 12 is connected and fixed to the bottom of the transmission pipeline 1, and the discharge pipe 12 is connected and fixed to the discharge hopper. During the transmission process, bisphenol A is input from the feed pipe 11 and output from the discharge pipe 12, so that the transmission of bisphenol A is realized.

[0029] See also Figure 1 and Figure 2 The low-speed conveying system also includes a transmission block 2 and a transmission assembly 3. The transmission block 2 is a cylindrical structure. The transmission block 2 slides in the transmission pipe 1. The outer peripheral side wall of the transmission block 2 is in sliding contact with the peripheral side wall of the transmission cavity. There are multiple transmission blocks 2 and they are evenly spaced along the extension direction of the transmission pipe 1. The connected transmission blocks 2 are connected and fixed with a connecting rope 6. When in use, the transmission blocks 2 are linked by the connecting rope 6.

[0030] The transmission component 3 is arranged in the transmission pipeline 1. When in use, the transmission component drives the transmission block 2 to slide in the transmission cavity to transmit bisphenol A. The transmission component includes a transmission motor 31, a transmission shaft 32, a transmission blade 33 and a transmission belt 3; two bearing seats 17 are symmetrically fixed on the outer wall of the transmission pipeline 1, and a bearing groove 171 is formed in the bearing seat 17. The bearing groove 171 penetrates the pipe wall of the transmission pipeline 1 and is connected to the transmission cavity. The transmission shaft 32 corresponds to the bearing seat 17 one by one. The transmission shaft 32 is rotatably connected to the bearing seat 17 and is located in the bearing groove 171. The transmission blade 33 is fixedly connected to the outer peripheral side of the transmission shaft 32. There are multiple transmission blades 33 and they are evenly spaced along the circumferential direction. The transmission blade 33 extends into the transmission cavity. When the transmission shaft 32 rotates, the transmission blade 33 pushes the transmission block 2, so that the transmission block 2 slides in the transmission pipeline 1.

[0031] The transmission belt 3 is connected end to end and is sleeved on the outer circumference of two relative transmission shafts 32. The transmission motor 31 is fixedly mounted on the bearing seat 17. The output shaft of the transmission motor 31 is rotatably connected to the bearing seat 17 and is fixedly connected to the transmission shaft 32. When in use, the transmission motor 31 is started to drive the corresponding transmission shaft 32 to rotate, and at the same time, the other transmission shaft 32 is linked through the transmission belt 3, so that the transmission block 2 enters a motion state. In the embodiment of the present application, the output shaft of the transmission motor 31 is in a low-speed rotation state.

[0032] See also Figure 3 A storage chamber 26 is formed in the transmission block 2 for storing bisphenol A. A feed port 22 is formed at the top of the transmission block 2, and the feed port 22 is connected to the storage chamber 26. A discharge port 23 is formed at the bottom of the transmission block 2, and the discharge port 23 is connected to the storage chamber 26. The transmission pipeline 1 is slidably connected with an upper blocking plate 13, and the upper blocking plate 13 is used to block the side pipe port connecting the feed pipe 11 and the transmission chamber.

[0033] See also Figure 3 and Figure 4 The low-speed conveying system further includes a control component 4. When the transmission block 2 moves to the point where the feed port 22 is aligned with the feed pipe 11, the control component 4 controls the upper blocking plate 13 to open the feed pipe 11, so that bisphenol A is fed into the storage chamber 26 through the feed port 22. At the same time, when the transmission block 2 slides to the point where the feed port 22 is misaligned with the feed pipe 11, the control component 4 controls the upper blocking plate 13 to block the feed pipe 11.

[0034] The control assembly 4 includes a control column 41 and a control spring 42. A control groove 15 is formed on the transmission pipeline 1, and the control groove 15 is connected to the feed pipe 11. The diameter of the notch of the control groove 15 is larger than the diameter of the feed pipe 11, and the upper blocking plate 13 slides in the control groove 15, and the area of ​​the upper blocking plate 13 is larger than the area of ​​the pipe mouth of the feed pipe 11.

[0035] The control spring 42 is installed in the control groove 15, with one end of the control spring 42 abutting against the upper blocking plate 13, and the other end abutting against the groove wall of the control groove 15. When the control spring 42 is released, the upper blocking plate 13 is driven to slide to abut against the groove wall of the control groove 15 away from the control spring 42, thereby blocking the feed pipe 11 and limiting the input of bisphenol A into the transmission cavity when the feed pipe 11 is not aligned with the feed port 22.

[0036] The control column 41 slides up and down on the upper blocking plate 13 , and the control column 41 and the feed pipe 11 are offset, thereby reducing the possibility of the control column 41 and the feed pipe 11 being intertwined when the upper blocking plate 13 slides to open the feed pipe 11 .

[0037] The control column 41 has an arc surface structure formed at the bottom, the upper blocking plate 13 is fixedly connected with the limiting block 28, and a limiting groove 411 is formed on the vertical side wall of the control column 41, and the limiting block 28 slides in the limiting groove 411. When the upper blocking plate 13 blocks the feed pipe 11, the limiting block 28 abuts against the top groove wall of the limiting groove 411, and the arc surface structure protrudes downward to the outside of the upper blocking plate 13, limiting the control column 41 from sliding further downward, and at the same time, the top of the control column 41 abuts against the top groove wall of the control groove 15.

[0038] The top groove wall of the control groove 15 is connected to form a clearance groove 151, and the clearance groove 151 is far away from the position of the feed pipe 11. When the transmission block 2 slides past the pipe mouth of the feed pipe 11, the transmission block 2 abuts against the arc surface structure of the control column 41, driving the upper blocking plate 13 to slide and open the feed pipe 11, and at this time, the feed pipe 11 and the feed port 22 are partially connected. Then the upper blocking plate 13 continues to slide, so that when the control column 41 approaches the clearance groove 151, the feed pipe 11 and the feed port 22 are completely aligned; when the upper blocking plate 13 slides until the control column 41 and the clearance groove 151 are relatively aligned, the feed pipe 11 and the feed port 22 are misaligned. At this time, when the transmission block 2 continues to slide, it pushes the control column 41 to insert into the clearance groove 151, so that the transmission block 2 can slide past the control column 41. A slide groove 27 is formed on the outer peripheral side wall of the top of the transmission block 2. The slide groove 27 penetrates the transmission block 2 axially to the outside of the transmission block 2, and the groove wall on one side of the slide groove 27 is adjacent to the end face of the transmission block 2. When the transmission block 2 slides to push the control column 41 into the clearance groove 151 and the transmission block 2 continues to slide, the control column 41 is aligned with the slide groove 27. At this time, the control column 41 slides into the slide groove 27 under the action of gravity, and then the control spring 42 is elastically released to push the upper blocking plate 13 to slide toward the feeding pipe 11 to block the feeding pipe 11.

[0039] When the feed pipe 11 is connected to the feed port 22 and the upper blocking plate 13 opens the feed pipe 11, bisphenol A enters the storage chamber 26 through the feed port 22. A baffle ring 121 is fixedly connected to the inner wall of the feed pipe 11, and the baffle ring 121 is located above and adjacent to the control groove 15. A transmission surface 122 is formed on the top of the baffle ring 121, and the transmission surface 122 extends downwardly at an angle. The bisphenol A in the feed pipe 11 is transmitted to the middle position of the baffle ring 121 through the transmission surface 122, and then transported downward through the middle hollow position of the baffle ring 121, which is conducive to reducing the possibility of bisphenol A being brought into the control groove 15 during the process of the upper blocking plate 13 blocking the feed pipe 11.

[0040] See also Figure 5 and Figure 6 The transmission block 2 is rotatably connected to a hinge shaft 241, and a lower partition 24 is fixedly connected to the outer peripheral side of the hinge shaft 241. The transmission block 2 is provided with a driving assembly 5, and the transmission block 2 is transported to the discharge port 23 (the discharge port 23 is at Figure 3 When the transmission block 2 is transported to the discharge port 23 and is misaligned with the discharge pipe 12, the lower partition 24 is driven by the driving component 5 to block the discharge port 23.

[0041] The driving assembly 5 includes a driving block 51, a driving column 52 and a driving spring 53. A driving groove 242 is formed on the outer circumference of the hinge shaft 241, and the driving groove 242 extends along a spiral track. The driving column 52 is slidably connected to the transmission block 2, and the driving column 52 is parallel to the hinge shaft 241. The driving block 51 is fixedly connected to the outer circumference of the driving column 52, and the driving block 51 protrudes into the driving groove 242, and the driving block 51 is slidably connected to the driving groove 242.

[0042] The driving spring 53 is installed in the transmission block 2, one end of the driving spring 53 abuts against one end of the driving column 52, and the other end abuts against the transmission block 2. When the driving spring 53 is elastically released, the driving column 52 is driven to slide axially along the hinge shaft 241 on the transmission block 2. At this time, the driving block 51 slides in the driving groove 242, driving the lower partition 24 to flip.

[0043] See also Figure 3 and Figure 5 The transmission pipeline 1 is formed with a receiving groove 14, and the receiving groove 14 is located at the discharge pipe 12 (the discharge pipe 12 is Figure 1 When the transmission block 2 slides in the transmission chamber, the driving column 52 slides on the wall of the transmission chamber, and the lower partition 24 blocks the discharge port 23. When the transmission block 2 moves to the discharge port 23 and communicates with the discharge pipe 12, the driving column 52 is aligned with the receiving groove 14. At this time, the driving spring 53 drives the driving column 52 to insert into the receiving groove 14, driving the driving block 51 to slide in the driving groove 242 (the driving groove 242 is in Figure 6The hinge shaft 241 rotates, driving the lower partition 24 to open the discharge port 23. At this time, the bisphenol A in the storage chamber 26 enters the discharge pipe 12 through the discharge port 23, thereby realizing the discharge of bisphenol A. A guide surface 261 is formed obliquely in the transmission block 2. The guide surface 261 connects the discharge port 23 and the side wall of the storage chamber 26. The bisphenol A is guided by the guide surface 261 to slide toward the discharge port 23, thereby accelerating the discharge speed of bisphenol A.

[0044] The transmission pipeline 1 is formed with a sliding surface 141 connecting the groove wall of the receiving groove 14 away from the groove and the wall of the transmission cavity. The transmission block 2 slides so that the discharge port 23 is connected to the discharge pipe 12 (the discharge pipe 12 is Figure 1 During the phase dislocation process (marked in the middle), the driving column 52 slides on the sliding surface 141, guiding the driving column 52 to slide away from the accommodating groove 14. At this time, the hinge shaft 241 rotates, driving the lower partition 24 to flip and block the discharge port 23.

[0045] See also Figure 3 In order to make the transmission block 2 adapt to the extension trajectory of the transmission pipeline 1 and reduce the possibility of bisphenol A pouring out due to the change in the direction of the feed port 22 of the transmission block 2 during the sliding process, the transmission block 2 is slidably connected with an upper partition 21, and the feed port 22 is blocked by the upper partition 21.

[0046] The transmission block 2 is provided with a power spring 29 , one end of the power spring 29 abuts against the upper partition 21 , and the other end abuts against the transmission block 2 . When the power spring 29 is elastically released, the upper partition 21 is driven to block the feed port 22 .

[0047] See also Figure 7 The transmission block 2 is formed with a power groove 25 , which extends along the axial direction of the transmission block 2 and penetrates to the outside of the transmission block 2 .

[0048] See also Figure 3 A power bar 16 is fixedly connected to the inner side wall of the transmission pipeline 1. When the transmission block 2 approaches and slides until the feed port 22 is aligned with the feed pipe 11, the power bar 16 slides in the power groove 25 (the power groove 25 is Figure 7 (marked in the middle).

[0049] See also Figure 7 The upper partition 21 slides up and down with a push block 211. When the upper partition 21 slides, it drives the push block 211 to slide in the power groove 25. The push block 211 is inclined to form a push surface 212. When the power bar 16 slides in the power groove 25, the power bar 16 (the power bar 16 is Figure 3 The power bar 16 pushes the upper partition 21 to slide through the push block 211, and the feed port 22 is opened (the feed port 22 is Figure 3 (marked in the middle).

[0050] The transmission block 2 forms a connection groove 251, which is connected to the power groove 25. The notch of the connection groove 251 is located on the side wall of the power groove 25 close to the storage cavity 26. Figure 3 The push block 211 is pushed to slide until the push block 211 is aligned with the connection groove 251, and the power bar 16 slides on the push surface 212 to push the push block 211 into the connection groove 251. The transmission block 2 is fixed with an elastic reset block 252, which is located in the connection groove 251. When the push block 211 slides into the connection groove 251, the elastic reset block 252 enters a compressed state. When the feed port 22 passes through the feed pipe 11 (the feed pipe 11 is in Figure 3 When the power bar 16 passes through the push block 211 and separates, the elastic reset block 252 is elastically released, pushing the push block 211 out of the connecting groove 251, and the power spring 29 enters the elastic release state, pushing the upper partition 21 to block the feed port 22.

[0051] The implementation principle of a low-speed delivery system of bisphenol A in the present application embodiment is as follows: During transportation, the transmission motor 31 is started, so that the transmission block 2 moves in the transmission pipeline 1. When the transmission block 2 moves so that the feed port 22 is close to the feed pipe 11 and is connected, the upper partition 21 opens the feed port 22, and then the upper blocking plate 13 opens the feed pipe 11 during the process of the feed port 22 and the feed pipe 11 being connected, and the bisphenol A in the feed pipe 11 is stored in the storage chamber 26 through the feed port 22; then the transmission block 2 continues to move, so that when the feed port 22 and the feed pipe 11 are misaligned, the upper blocking plate 13 blocks the feed pipe 11, and when the feed port 22 is away from the feed pipe 11, the upper partition 21 blocks the feed port 22. Finally, when the transmission block 2 moves to the discharge port 23 and is connected to the discharge pipe 12, the lower partition 24 opens the discharge port 23, and the bisphenol A in the storage chamber 26 enters the discharge pipe 12 from the discharge port 23, thereby realizing the output of bisphenol A.

[0052] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A bisphenol A low-speed delivery system, characterized in that: include A transmission pipeline (1) connected end to end, wherein a feed pipe (11) is provided at the top of the transmission pipeline (1), and a discharge pipe (12) is provided at the bottom of the transmission pipeline (1); A transmission block (2) is slidably connected in the transmission pipeline (1); there are a plurality of transmission blocks (2) which are evenly spaced along the extension direction of the transmission pipeline (1); and a connecting rope (6) is provided between connected transmission blocks (2); A transmission component, arranged on the transmission pipeline (1), wherein the transmission component drives the transmission block (2) to slide on the transmission pipeline (1); A storage cavity (26) is formed in the transmission block (2), a feed port (22) connected to the storage cavity (26) is formed at the top of the transmission block (2), and a discharge port (23) connected to the storage cavity (26) is formed at the bottom of the transmission block (2); The transmission pipeline (1) is slidably connected to an upper blocking plate (13) for blocking the feed pipe (11); A control component (4) is arranged on the transmission pipeline (1); when the transmission block (2) slides to the feed port (22) and is connected to the feed pipe (11), the control component (4) controls the upper blocking plate (13) to open the feed pipe (11); when the transmission block (2) slides to the feed port (22) and is misaligned with the feed pipe (11), the control component (4) controls the upper blocking plate (13) to close the feed pipe (11); The transmission block (2) is hingedly provided with a lower partition (24) for blocking the discharge port (23), and the transmission block (2) is provided with a driving component (5). When the transmission block (2) is transported to the discharge port (23) and connected to the discharge pipe (12), the driving component (5) drives the lower partition (24) to open the discharge port (23).

2. A bisphenol A low-speed delivery system according to claim 1, characterized in that: The driving assembly (5) comprises a driving block (51), a driving column (52) and a driving spring (53); The transmission block (2) is rotatably connected to a hinge shaft (241), the lower partition plate (24) is fixed to the outer peripheral side of the hinge shaft (241), and a driving groove (242) extending along a spiral track is formed on the outer peripheral side of the hinge shaft (241); The driving column (52) is slidably connected to the transmission block (2); the driving block (51) is arranged on the outer peripheral side of the driving column (52) and is slidably connected to the driving groove (242); The driving spring (53) is installed in the transmission block (2), and the driving spring (53) drives the driving column (52) to slide axially on the transmission block (2) along the hinge shaft (241); The transmission pipe (1) is formed with a receiving groove (14) located above the discharge pipe (12); when the driving column (52) is aligned with the receiving groove (14), the driving spring (53) drives the driving column (52) to be inserted into the receiving groove (14); at this time, the driving block (51) slides in the driving groove (242), driving the hinge shaft (241) to rotate to the lower partition (24) to open the discharge port (23); The transmission pipe (1) is formed with a sliding surface (141) for guiding the driving column (52) to slide away from the accommodating groove (14); When the driving column (52) slides away from the containing groove (14), the hinge shaft (241) rotates, driving the lower partition plate (24) to flip over and block the discharge port (23).

3. A bisphenol A low-speed delivery system according to claim 2, characterized in that: A guide surface (261) is formed obliquely inside the transmission block (2) and connects the discharge port (23) and the side wall of the storage cavity (26).

4. A bisphenol A low-speed delivery system according to claim 1, characterized in that: The control assembly (4) comprises a control column (41) and a control spring (42); The transmission pipeline (1) is formed with a control groove (15) which is in communication with the feed pipe (11); the diameter of the notch of the control groove (15) is larger than the diameter of the feed pipe (11); and the upper blocking plate (13) slides in the control groove (15); The control spring (42) is installed in the control groove (15), and the control spring (42) drives the upper blocking plate (13) to block the feed pipe (11); The control column (41) slides up and down on the upper blocking plate (13), and when the upper blocking plate (13) slides, the control column (41) and the feed pipe (11) are misaligned; The control column (41) has a curved surface structure formed at the bottom, and the upper blocking plate (13) is provided with a limiting member, and when the curved surface structure of the control column (41) protrudes downward from the upper blocking plate (13), the limiting member limits the control column (41) from continuing to slide downward; A clearance groove (151) is formed on the top groove wall of the control groove (15) and at a position away from the feed pipe (11), and when the control column (41) is aligned with the clearance groove (151), the transmission block (2) pushes the control column (41) to be inserted into the clearance groove (151); A sliding groove (27) is formed on the outer peripheral side wall of the transmission block (2), and when the transmission block (2) slides until the control column (41) is aligned with the sliding groove (27), the control column (41) slides into the sliding groove (27) and slides away from the control column (41) through the sliding groove (27).

5. A bisphenol A low-speed delivery system according to claim 4, characterized in that: The limiting member is a limiting block (28), the limiting block (28) is arranged on the transmission block (2), and the control column (41) is formed with a limiting groove (411) for the limiting block (28) to slide up and down.

6. A bisphenol A low-speed delivery system according to claim 4, characterized in that: The inner wall of the feed pipe (11) is provided with a retaining ring (121), and the retaining ring (121) is located above the control groove (15).

7. A bisphenol A low-speed conveying system according to claim 6, characterized in that: A transmission surface (122) extending obliquely downward is formed on the top of the retaining ring (121).

8. A bisphenol A low-speed delivery system according to claim 1, characterized in that: The transmission block (2) is slidably connected to an upper partition plate (21), and the transmission block (2) is provided with a power spring (29) for driving the upper partition plate (21) to block the feed port (22); The transmission block (2) is formed with power grooves (25) on both sides extending through to the outside, and a power bar (16) is formed on the inner peripheral side wall of the transmission pipe (1). When the transmission block (2) approaches and is aligned with the feed port (22) and the feed pipe (11), the power bar (16) slides in the power groove (25); The upper partition (21) is provided with a push block (211) that slides up and down, and when the power bar (16) slides in the power groove (25), the power bar (16) abuts against the push block (211) and pushes the upper partition (21) to open the feed port (22); Therefore, the transmission block (2) is formed with a connection groove (251) connected to the power groove (25), the pushing block (211) is inclined to form a pushing surface (212) for the power bar (16) to slide, and when the pushing block (211) and the connection groove (251) are aligned relative to each other, the power bar (16) pushes the pushing block (211) to slide into the connection groove (251); The transmission block (2) is provided with an elastic reset block (252) located in the connection groove (251); when the power bar (16) moves away from the push block (211), the elastic reset block (252) pushes the push block (211) to separate from the connection groove (251).

9. A bisphenol A low-speed delivery system according to claim 1, characterized in that: The transmission component comprises a transmission motor (31), a transmission shaft (32), transmission blades (33) and a transmission belt (3); The outer wall of the transmission pipe (1) is symmetrically provided with a bearing seat (17), the bearing seat (17) is formed with a bearing groove (171) communicating with the transmission pipe (1), the transmission shaft (32) is rotatably connected to the bearing seat (17) and is located in the bearing groove (171), and the transmission leaves (33) are evenly spaced along the circumferential direction and arranged on the outer peripheral side of the transmission shaft (32); The transmission belt (3) is sleeved on the outer peripheral side of the transmission shaft (32), the transmission motor (31) is arranged on the supporting seat (17), and the transmission motor (31) drives the transmission shaft (32) to rotate; When the transmission shaft (32) rotates, the transmission blades (33) drive the transmission block (2) to slide on the transmission pipe (1).

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