A kind of pole hook temporary storage conveying rail mechanism

Abstract

This invention relates to the field of carrying pole hook technology and discloses a temporary carrying pole hook conveying track mechanism, including a three-dimensional truss assembly. A slide rail assembly is securely supported on the inner side of the three-dimensional truss assembly, and the top of the slide rail assembly slidably carries multiple sets of carrying pole hook assemblies. A support frame is provided at the output end of the slide rail assembly, and a damping mechanism is supported at one end of the support frame. This temporary carrying pole hook conveying track mechanism uses a piston-type damping structure composed of a damping impeller assembly, a first ratchet ring, a second ratchet ring, a piston plate, and a return spring. This structure converts the downward impact force of the carrying pole hook assembly into the axial compression displacement of the piston plate. Combined with gas damping and spring rebound, it achieves flexible buffering. Simultaneously, the repulsive structure of the first and second magnets assists in pushing the slider, avoiding jamming caused by insufficient impact force. Furthermore, a synchronous belt assembly connects the damping impeller assembly and the propulsion impeller assembly, realizing the mechanical linkage function of buffering and propulsion actions.

Description

Technical Field

[0001] This invention relates to the field of carrying pole hook technology, and more specifically to a carrying pole hook temporary storage and conveying track mechanism. Background Technology

[0002] The carrying pole hook temporary storage and conveying track mechanism is a special device used in the suspended conveyor production line for the temporary storage and turnover of workpieces using carrying pole hooks. It generally uses a three-dimensional truss assembly as the overall support foundation, and carries a slide rail assembly to form a continuous conveying path. The carrying pole hook assembly is the core unit that carries the workpiece and slides along the track. It is usually equipped with a buffer structure and a cleaning structure, which are used to reduce the impact kinetic energy at the end of the conveying and to ensure the cleanliness of the workpiece, respectively. It is an important component of the suspended production logistics system for connecting processes and temporarily storing workpieces.

[0003] The existing gravity-fed sliding hook temporary storage and conveying tracks suffer from core problems of insufficient operational stability and functional integration. These tracks rely on the workpiece's own weight to slide down an inclined slide rail, with the sliding components simply resting on the top surface of the rail. During sliding, lateral swaying is prone to occur, which can lead to derailment in severe cases. The end of the track often uses a rigid barrier to buffer the impact, but repeated impacts over a long period can cause component deformation and wear, shortening the equipment's lifespan. At the same time, dirt easily accumulates on the surface of the hook after repeated use. Existing equipment often has a separate cleaning station, which cannot be precisely synchronized with the conveying rhythm. This increases the equipment's footprint and cost, and also poses a risk of cross-contamination due to untimely cleaning.

[0004] Therefore, developing an integrated flat-pole hook temporary storage and conveying track mechanism that combines stable limiting, linkage buffering and synchronous cleaning functions is a technical problem that urgently needs to be solved in this field. Summary of the Invention

[0005] The purpose of this invention is to provide a temporary storage and conveying track mechanism for a carrying pole hook, which can effectively solve the technical problems mentioned in the background art.

[0006] To achieve the above objectives, the technical solution adopted by the present invention is as follows: This invention provides a temporary storage and conveying track mechanism for a carrying pole hook, comprising: A three-dimensional truss assembly, wherein a slide rail assembly is fastened to the inner side of the three-dimensional truss assembly, and the top of the slide rail assembly slides and carries multiple sets of flat bar hook assemblies; The output end of the slide rail assembly is provided with a support frame, and one end of the support frame is supported by a damping mechanism. The damping mechanism is used to buffer and block the downward impact force of the spreader hook assembly. The other end of the support frame supports a cleaning mechanism, and the outside of the cleaning mechanism supports a propulsion mechanism.

[0007] Preferably, the slide rail assembly includes a support slide rail and a limiting stop rail. The bottom of the support slide rail is fastened to the three-dimensional truss assembly, and a limiting stop rail is simultaneously provided directly below the support slide rail. The support slide rail is a track structure that is inclined downward and rotates, with an inclination angle of 3° to 15°.

[0008] Preferably, the carrying pole hook assembly includes a support slider, a limiting block, and a hook body. The support slider is slidably supported on the top of the support slide rail, and the bottom of the support slider is provided with a hook body. The side of the support slider is provided with a limiting block that is adapted to the limiting stop rail. A first magnet is provided on one side of the top of the support slider, and a second magnet is provided at the top of the support frame near the position below the input end of the damping mechanism, and the first magnet and the second magnet repel each other.

[0009] Preferably, the damping mechanism includes a damping impeller assembly, a support cylinder, and a synchronous belt assembly. The support cylinder is fastened to a support frame. The central shaft of the damping impeller assembly is connected to a bearing at one end of the support cylinder. A first ratchet ring is provided at one end of the central shaft of the damping impeller assembly extending into the support cylinder. A synchronous belt assembly is provided at the other end of the central shaft of the damping impeller assembly. A piston chamber is provided inside the support cylinder, and a piston plate is slidably provided on the inner wall of the piston chamber. A second ratchet ring that is compatible with the first ratchet ring is provided at one end of the piston plate near the first ratchet ring. Multiple sets of springs that are fastened to the inner wall of the piston chamber are provided at the other end of the piston plate. The output end of the support cylinder is connected to the outside.

[0010] Preferably, the damping impeller assembly is located at the end of the support slide rail ramp, and the number of blades in the damping impeller assembly is equal to the number of ratchet teeth in the first ratchet ring. The maximum arc length of the interval between two adjacent sets of blades in the damping impeller assembly is the same as the top width of the support slider.

[0011] Preferably, the outer side of the second ratchet ring is uniformly provided with protrusions, and the inside of the support cylinder is provided with a limiting groove that matches the protrusions.

[0012] Preferably, the cleaning mechanism includes a cleaning chamber with inlets and outlets on both sides of the cleaning chamber that pass through along the conveying direction of the slide rail assembly, for supporting the slide rail and the sliding block to pass through and out. The bottom of the cleaning chamber is provided with a collection chamber, and the output end of the collection chamber is connected to a drain pipe. Cleaning spray pipes are symmetrically provided at both ends of the cleaning chamber. A solenoid valve is provided on the outside of the cleaning chamber, and the output end of the solenoid valve is connected to the cleaning spray pipe. The input end of the solenoid valve is provided with a water inlet pipe connected to an external water source.

[0013] Preferably, the propulsion mechanism includes a support chamber that is fastened to the outside of the cleaning chamber. The support chamber is equipped with a propulsion impeller assembly, and the central shaft of the propulsion impeller assembly is drivenly connected to a synchronous belt assembly. The central shaft of the propulsion impeller assembly is rotatably connected to a bearing in the support chamber, and a ratchet unit is provided at one end of the central shaft of the propulsion impeller assembly.

[0014] Preferably, each blade of the propulsion impeller assembly is provided with a sensing block at its end, and a proximity switch is fastened to the outside of the cleaning box, with the sensing end of the proximity switch corresponding to the sensing block.

[0015] Preferably, the proximity switch is electrically connected to the solenoid valve, and the opening and closing of the solenoid valve is controlled by the proximity switch.

[0016] In summary, this application includes at least one of the following beneficial technical effects: 1. This invention utilizes a piston-type damping structure composed of a damping impeller assembly, a first ratchet ring, a second ratchet ring, a piston plate, and a return spring. This structure converts the downward impact force of the flat lever hook assembly into the axial compression displacement of the piston plate. Combined with gas damping and spring rebound, it achieves flexible buffering. Simultaneously, the repulsive structure of the first and second magnets assists in pushing the slider, preventing jamming caused by insufficient impact force. Furthermore, a synchronous belt assembly connects the damping impeller assembly and the propulsion impeller assembly, realizing the mechanical linkage between the buffering and propulsion actions. This allows the workpiece to continue moving without an additional drive source.

[0017] 2. This invention utilizes a double-layer slide rail structure with upper and lower supporting slide rails and limiting rails, forming a sliding fit with the spreader hook assembly. The supporting slider overlaps the top surface of the supporting slide rail to bear gravity and complete the guiding sliding. The limiting block extending from the side synchronously fits the outer side of the limiting rail to form lateral constraint. While retaining the characteristics of gravity-driven downward conveying, it achieves the lateral limiting function of the sliding component, effectively preventing the supporting slider from swinging and deviating during sliding, structurally eliminating derailment failure, and ensuring the operational stability of the conveying process.

[0018] 3. This invention utilizes a triggering structure where the sensing block at the end of the impeller blades and the proximity switch work together to output a signal at the synchronous node when the propulsion hook assembly enters the cleaning chamber. This signal controls the opening and closing of the cleaning spray nozzle by the solenoid valve, achieving precise synchronization between the cleaning process and the conveying rhythm. The propulsion hook assembly is sprayed for cleaning and disinfection as it slides through, and the wastewater is collected and treated centrally through the bottom collection chamber and drain pipe. This invention integrates buffering, propulsion, and cleaning functions into one unit, eliminating the risk of cross-contamination and improving the overall integration and operating efficiency of the equipment. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0020] Figure 2 for Figure 1 An enlarged schematic diagram of the structure at point A.

[0021] Figure 3 This is a schematic diagram of the installation structure at the damping mechanism, propulsion mechanism, and cleaning mechanism in this invention. Figure 1 .

[0022] Figure 4 This is a schematic diagram of the installation structure at the damping mechanism, propulsion mechanism, and cleaning mechanism in this invention. Figure 2 .

[0023] Figure 5 This is a cross-sectional view of the damping mechanism in this invention.

[0024] Figure 6 This is an exploded view of the damping mechanism in this invention.

[0025] Figure 7 This is a schematic diagram of the connecting component at the piston plate in this invention.

[0026] Figure 8 This is a schematic diagram of the connecting components at the cleaning box in this invention.

[0027] Figure 9 This is a schematic diagram of the position and structure of the propulsion impeller assembly and the flat lever hook assembly in this invention.

[0028] Figure label: 100. Three-dimensional truss assembly; 200. Slide rail assembly; 300. Carrying pole hook assembly; 400. Damping mechanism; 500. Cleaning mechanism; 600. Support frame; 700. Propulsion mechanism; 201. Support rail; 202. Limiting rail; 301. Supporting slider; 302. Limiting block; 303. Hook body; 304. First magnet; 305. Second magnet; 401. Damping impeller assembly; 402. Support cylinder; 403. Synchronous belt assembly; 404. First ratchet ring; 405. Piston plate; 406. Second ratchet ring; 407. Spring; 408. Limiting groove; 409. Piston chamber; 410. Protrusion; 501. Cleaning chamber; 502. Solenoid valve; 503. Water inlet pipe; 504. Drain pipe; 505. Proximity switch; 506. Collection chamber; 507. Cleaning nozzle; 701. Support chamber; 702. Propulsion impeller assembly; 703. Induction block. Detailed Implementation

[0029] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. Obviously, the following embodiments are merely preferred embodiments of the present invention and are not intended to limit the present invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0030] Example 1 like Figures 1 to 9 As shown, this embodiment provides a temporary storage and conveying track mechanism for a carrying pole hook, including: The three-dimensional truss assembly 100 has a slide rail assembly 200 securely supported on its inner side. The slide rail assembly 200 includes a support slide rail 201 and a limiting stop rail 202. The bottom of the support slide rail 201 is securely connected to the three-dimensional truss assembly 100. The limiting stop rail 202 is simultaneously provided directly below the support slide rail 201. The support slide rail 201 is a track structure that is inclined downward and rotates, with an inclination angle of 3° to 15°.

[0031] The three-dimensional truss assembly 100 is composed of multiple sets of steel pipes distributed at equal intervals and is firmly connected to the ground or wall. The bottom of the support slide rail 201 is supported by the three-dimensional truss assembly 100. The support slide rail 201 is distributed downwards from top to bottom along a set inclination angle on the inner side of the three-dimensional truss assembly 100, and the end of the support slide rail 201 is a straight section.

[0032] The top of the slide rail assembly 200 slides and supports multiple sets of flat pole hook assemblies 300. The flat pole hook assembly 300 includes a support slider 301, a limiting block 302, and a hook body 303. The support slider 301 is slidably supported on the top of the support slide rail 201. The bottom of the support slider 301 is provided with a hook body 303. The side of the support slider 301 is provided with a limiting block 302 that is adapted to the limiting stop rail 202.

[0033] The support slider 301 is slidably suspended on the top of the support rail 201. Initially, the support slider 301 is propelled by the external chain actuation plate and slides into the sloping area of ​​the support rail 201. Under its own weight, it slides downward along the support rail 201. During the sliding process, since the top of the support slider 301 only overlaps the top of the support rail 201, the support slider 301 will swing. At this time, the limiting block 302 slides against the outside of the limiting rail 202, thereby limiting the support slider 301 and preventing it from swinging off the rail.

[0034] The output end of the slide rail assembly 200 is provided with a support frame 600. One end of the support frame 600 supports a damping mechanism 400. The damping mechanism 400 is used to buffer and block the downward impact force of the flat-pole hook assembly 300. The damping mechanism 400 includes a damping impeller assembly 401, a support cylinder 402, and a synchronous belt assembly 403. The support cylinder 402 is fastened to the support frame 600. The central shaft of the damping impeller assembly 401 is connected to a bearing at one end of the support cylinder 402, and the end of the central shaft of the damping impeller assembly 401 extending into the support cylinder 402 is provided with a damping mechanism 400. The device includes a first ratchet ring 404, a synchronous belt assembly 403 at the other end of the central shaft of the damping impeller assembly 401, a piston chamber 409 inside the support cylinder 402, and a piston plate 405 slidably mounted on the inner wall of the piston chamber 409. The piston plate 405 has a second ratchet ring 406 that is compatible with the first ratchet ring 404 at one end near the first ratchet ring 404, and multiple sets of springs 407 that are fastened to the inner wall of the piston chamber 409 at the other end of the piston plate 405. The output end of the support cylinder 402 is connected to the outside.

[0035] When the support slider 301 continues to slide along the support slide rail 201 to the end of the support slide rail 201, the support slider 301 generates an impact force on the damping impeller assembly 401. This impact force drives the damping impeller assembly 401 to rotate, and the rotation of the damping impeller assembly 401 drives the first ratchet ring 404 to rotate as well. The first ratchet ring 404 and the second ratchet ring 406 mesh with each other. The rotation of the first ratchet ring 404 applies a pushing force to the second ratchet ring 406. The second ratchet ring 406 is limited by the support cylinder 402 and cannot rotate. Under the pushing force of the first ratchet ring 404, it can only contract into the support cylinder 402, thereby driving the piston plate 405 to slide into the piston cavity 409. The sliding displacement of the piston plate 405 compresses the gas inside the piston cavity 409 and discharges it through the output end of the support cylinder 402.

[0036] A first magnet 304 is provided on one side of the top of the support slider 301, and a second magnet 305 is provided at the top of the support frame 600 near the input end of the damping mechanism 400. The first magnet 304 and the second magnet 305 repel each other. When the support slider 301 slides to fit the damping impeller assembly 401, the first magnet 304 driven by the support slider 301 is displaced to the area between the second magnet 305 and the damping impeller assembly 401. This causes the second magnet 305 to generate a repulsive force on the first magnet 304, which in turn pushes the support slider 301 to continue to move. This prevents the first magnet 304 from having insufficient impact force to drive the damping impeller assembly 401 to rotate during the downward movement, thus ensuring that the overall structure of the carrying pole hook assembly 300 can operate smoothly.

[0037] At this time, as the piston plate 405 slides, the compression spring 407 generates a rebound force. When a set of support sliders 301 slides past the area of ​​the damping impeller assembly 401, the damping impeller assembly 401 and the first ratchet ring 404 rotate one step. At this time, the first ratchet ring 404 no longer squeezes the second ratchet ring 406, so that the second ratchet ring 406 is reset under the rebound force of the spring 407. At the same time as the piston plate 405 is reset, the piston displacement of the piston plate 405 draws in external gas to replenish the interior of the piston chamber 409. Through the damping structure of the first ratchet ring 404, the piston plate 405 and the second ratchet ring 406, the buffering function of the instantaneous impact force when the support slider 301 slides down is realized.

[0038] During the process of the support slider 301 impacting the damping impeller assembly 401, the impact force of the support slider 301 is converted into the piston power of the piston plate 405 through the rotation of the damping impeller assembly 401.

[0039] The damping impeller assembly 401 is located at the end of the ramp of the support slide rail 201, and the number of blades of the damping impeller assembly 401 is equal to the number of ratchet teeth of the first ratchet ring 404. The maximum arc length of the interval between two adjacent sets of blades in the damping impeller assembly 401 is the same as the top width of the support slider 301.

[0040] The second ratchet ring 406 has protrusions 410 evenly distributed on its outer side. The support cylinder 402 has a limiting groove 408 that matches the protrusions 410 inside. During the displacement of the second ratchet ring 406, the protrusions 410 are driven to follow the displacement. At this time, the protrusions 410 are limited by the limiting groove 408 and slide inside the limiting groove 408, and in the opposite direction, the second ratchet ring 406 is restricted from rotating.

[0041] The other end of the support frame 600 supports the cleaning mechanism 500, and the outside of the cleaning mechanism 500 supports the propulsion mechanism 700. The propulsion mechanism 700 includes a support chamber 701 that is fastened to the outside of the cleaning box 501. The inside of the support chamber 701 is provided with a propulsion impeller assembly 702. The central shaft of the propulsion impeller assembly 702 is rotatably connected to the bearing of the support chamber 701, and a ratchet unit is provided at one end of the central shaft of the support chamber 701. The ratchet unit is used to prevent the support chamber 701 from rotating in the opposite direction.

[0042] A synchronous belt assembly 403 is provided at the other end of the central shaft of the damping impeller assembly 401. The central shaft of the propulsion impeller assembly 702 is connected to the synchronous belt assembly 403. The synchronous belt assembly 403 enables the damping impeller assembly 401 and the propulsion impeller assembly 702 to rotate synchronously. The rotation of the propulsion impeller assembly 702 further pushes the flat bar hook assembly 300 in the bottom area of ​​the propulsion impeller assembly 702 to continue sliding along the support slide rail 201 into the cleaning mechanism 500 for cleaning.

[0043] The cleaning mechanism 500 includes a cleaning chamber 501. The cleaning chamber 501 has inlets and outlets on both sides that pass through the conveying direction of the slide rail assembly 200, which are used to support the slide rail 201 and the sliding block 301 to pass through. The bottom of the cleaning chamber 501 has a collection chamber 506, and the output end of the collection chamber 506 is connected to a drain pipe 504. The two ends of the cleaning chamber 501 are symmetrically provided with cleaning spray pipes 507. The outside of the cleaning chamber 501 is provided with a solenoid valve 502. The output end of the solenoid valve 502 is connected to the cleaning spray pipe 507. The input end of the solenoid valve 502 is provided with a water inlet pipe 503 that is connected to an external water source.

[0044] The blades of the impeller assembly 702 are equipped with sensing blocks 703 at their ends. A proximity switch 505 is fastened to the outside of the cleaning box 501, and the sensing end of the proximity switch 505 corresponds to the sensing block 703.

[0045] The proximity switch 505 is electrically connected to the solenoid valve 502, and the opening and closing of the solenoid valve 502 is controlled by the proximity switch 505.

[0046] At this time, as the impeller assembly 702 rotates, it pushes the support slider 301 at the front end of the impeller assembly 702 blades, causing the support slider 301 to slide into the cleaning chamber 501. At the same time, as the impeller assembly 702 blades rotate, the sensing block 703 rotates accordingly, causing the proximity switch 505 to generate an electrical signal for identification, and transmit the electrical signal to the controller, thereby controlling the solenoid valve 502 to open once.

[0047] With the opening of the solenoid valve 502, the external water source is delivered to the interior of the cleaning nozzle 507 through the water inlet pipe 503. The water is then sprayed out through the cleaning nozzle 507 to clean the support slider 301, limit block 302, and hook body 303 that have slid into the cavity of the cleaning box 501. This achieves the cleaning and disinfection function of the carrying pole hook assembly 300 before use, thus avoiding cross-contamination.

[0048] After the carrying pole hook assembly 300 is cleaned and disinfected by the clean water sprayed from the cleaning nozzle 507, the wastewater falls into the collection chamber 506 and is discharged and recycled through the drain pipe 504.

[0049] It should be noted that the height of the back of the support compartment 701 is higher than the height of the receiving end of the proximity switch 505, thereby ensuring that the proximity switch 505 can recognize the signal of the sensing block 703.

[0050] It will be apparent to those skilled in the art that the present invention is not limited to the details of the above exemplary embodiments, and that the present invention can be implemented in other specific forms without departing from the spirit or essential characteristics of the present invention. Therefore, the embodiments should be regarded as exemplary and non-limiting in all respects.

[0051] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment includes only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A temporary storage and conveying track mechanism for a carrying pole hook, characterized in that, include: A three-dimensional truss assembly (100) has a slide rail assembly (200) fastened to its inner side, and the top of the slide rail assembly (200) slides and carries multiple sets of flat bar hook assemblies (300). The output end of the slide rail assembly (200) is provided with a support frame (600), and one end of the support frame (600) is supported by a damping mechanism (400). The damping mechanism (400) is used to buffer and block the downward impact force of the flat bar hook assembly (300). The other end of the support frame (600) supports a cleaning mechanism (500), and the outside of the cleaning mechanism (500) supports a propulsion mechanism (700).

2. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 1, characterized in that, The slide rail assembly (200) includes a support slide rail (201) and a limiting stop rail (202). The bottom of the support slide rail (201) is fastened to the three-dimensional truss assembly (100). The limiting stop rail (202) is simultaneously provided directly below the support slide rail (201). The support slide rail (201) is a track structure that is tilted downward and rotates, with an inclination angle of 3° to 15°.

3. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 2, characterized in that, The carrying pole hook assembly (300) includes a support slider (301), a limiting block (302), and a hook body (303). The support slider (301) is slidably supported on the top of the support slide rail (201). The bottom of the support slider (301) is provided with a hook body (303). The side of the support slider (301) is provided with a limiting block (302) that is adapted to the limiting stop rail (202). A first magnet (304) is provided on one side of the top of the support slider (301). A second magnet (305) is provided at the top of the support frame (600) near the input end of the damping mechanism (400). The first magnet (304) and the second magnet (305) repel each other.

4. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 1, characterized in that, The damping mechanism (400) includes a damping impeller assembly (401), a support cylinder (402), and a synchronous belt assembly (403). The support cylinder (402) is fastened to the support frame (600). The central shaft of the damping impeller assembly (401) is connected to one end of the support cylinder (402) by a bearing. A first ratchet ring (404) is provided at one end of the central shaft of the damping impeller assembly (401) extending into the support cylinder (402). A synchronous belt assembly is provided at the other end of the central shaft of the damping impeller assembly (401). The support cylinder (402) has a piston chamber (409) inside, and a piston plate (405) is slidably provided on the inner wall of the piston chamber (409). The piston plate (405) has a second ratchet ring (406) that is adapted to the first ratchet ring (404) at one end near the first ratchet ring (404), and multiple sets of springs (407) that are fastened to the inner wall of the piston chamber (409) at the other end of the piston plate (405). The output end of the support cylinder (402) is connected to the outside.

5. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 4, characterized in that, The damping impeller assembly (401) is located at the end of the ramp of the support slide rail (201), and the number of blades of the damping impeller assembly (401) is equal to the number of ratchet teeth of the first ratchet ring (404). The maximum arc length between two adjacent sets of blades in the damping impeller assembly (401) is the same as the top width of the support slider (301).

6. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 4, characterized in that, The second ratchet ring (406) has protrusions (410) evenly distributed on its outer side, and the support cylinder (402) has a limiting groove (408) that matches the protrusions (410) inside.

7. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 4, characterized in that, The cleaning mechanism (500) includes a cleaning chamber (501). The cleaning chamber (501) has inlet and outlet ports on both sides that are connected along the conveying direction of the slide rail assembly (200) to support the slide rail (201) and the sliding block (301) to pass through and out. The bottom of the cleaning chamber (501) is provided with a collection chamber (506), and the output end of the collection chamber (506) is connected to a drain pipe (504). The two ends of the cleaning chamber (501) are symmetrically provided with cleaning spray pipes (507). The outside of the cleaning chamber (501) is provided with a solenoid valve (502). The output end of the solenoid valve (502) is connected to the cleaning spray pipe (507). The input end of the solenoid valve (502) is provided with a water inlet pipe (503) connected to an external water source.

8. The temporary storage and conveying track mechanism for a carrying pole hook according to claim 7, characterized in that, The propulsion mechanism (700) includes a support chamber (701) fastened to the outside of the cleaning chamber (501). The support chamber (701) is provided with a propulsion impeller assembly (702), and the central shaft of the propulsion impeller assembly (702) is connected to the synchronous belt assembly (403) for transmission. The central shaft of the propulsion impeller assembly (702) is rotatably connected to the support chamber (701) bearing, and a ratchet unit is provided at one end of the central shaft of the propulsion impeller assembly (702).

9. A temporary storage and conveying track mechanism for a carrying pole hook according to claim 8, characterized in that, The blades of the propulsion impeller assembly (702) are all provided with sensing blocks (703), and a proximity switch (505) is fastened to the outside of the cleaning box (501). The sensing end of the proximity switch (505) corresponds to the sensing block (703).

10. A temporary storage and conveying track mechanism for a carrying pole hook according to claim 9, characterized in that, The proximity switch (505) is electrically connected to the solenoid valve (502), and the opening and closing of the solenoid valve (502) is controlled by the proximity switch (505).

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