Rapid cleaning equipment and method for deep groove ball bearing accessories
By designing a rapid cleaning equipment for deep groove ball bearing accessories, using components such as spray heads, rubber guide rollers and vibrators, the problems of cleaning dead corners and waste of water resources in the existing technology are solved, and efficient and environmentally friendly bearing accessories cleaning effects are achieved.
Patent Information
- Application Number
- CN202510491147.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-18
- Publication Date
- 2025-05-30
AI Technical Summary
The existing deep groove ball bearing accessories cleaning methods have problems such as wasting water resources, difficulty in solving the cleaning dead corners, and low water resource utilization, making it difficult to ensure cleaning efficiency and quality.
A rapid cleaning equipment for deep groove ball bearing accessories is designed, using cleaning channels, spray heads, rubber guide rollers and vibrators. Through multi-angle flushing of the nozzle, rubber guide roller assisted rolling and vibrator, the outer ring of the bearing is driven to vibrate, and combined with the frictional contact between the bristles and the outer ring of the bearing, the cleaning liquid and the outer ring of the bearing are achieved.
It effectively removes dust and dirt from the outer ring surface of the bearing, reduces cleaning dead corners, improves cleaning efficiency, reduces water resource consumption, and ensures cleaning quality.
Smart Images

Figure CN120054929A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of bearing component processing and component cleaning, and in particular to a deep groove ball bearing accessory rapid cleaning device and method. Background Art
[0002] Deep groove ball bearing parts, such as the outer ring, will accumulate a lot of dust and dirt on their inner and outer surfaces after being stored in the warehouse for a long time. Before assembly, these parts must be cleaned to ensure the performance and quality of the bearing. However, there are many problems with the existing cleaning methods.
[0003] The traditional manual flushing method is usually for operators to directly flush the accessories with a water pipe. This method not only wastes a lot of water resources, but also due to the limitations of manual operation, some parts of the accessories may not be fully cleaned, which easily forms cleaning dead corners and makes it difficult to ensure the consistency of the cleaning effect.
[0004] Another common cleaning method is to put a large number of accessories directly into a cleaning pool filled with a large amount of water, and use electric stirring to achieve the purpose of cleaning. However, as the number of cleanings increases, the water in the cleaning pool will gradually become turbid and cannot be used directly for cleaning, which makes the utilization rate of water resources low. In addition, in order to thoroughly clean the surface of the accessories, it is often necessary to rinse with clean water multiple times, which will undoubtedly further increase the water consumption, increase production costs, and not be in line with the concept of environmental protection.
[0005] In summary, how to effectively solve these problems existing in the cleaning process of deep groove ball bearing accessories, such as improving cleaning efficiency, reducing water consumption and ensuring cleaning quality, has become a difficult problem that needs to be overcome urgently. Summary of the invention
[0006] In order to solve the above technical problems, the present invention is achieved through the following technical solutions:
[0007] The present invention provides a deep groove ball bearing accessory rapid cleaning device, comprising:
[0008] Cleaning mechanism: It is equipped with a transversely penetrating cleaning channel, multiple nozzles located on both sides of the cleaning channel, and rubber guide rollers located on the upper and lower sides of the cleaning channel. The cleaning channel includes a feed port and a discharge port. The upstream side of the feed port is provided with an extension guide plate for introducing the outer ring of the bearing.
[0009] Elastic feeding assembly: located on the upstream side of the feed port, including a pushing cylinder, the pushing cylinder drives and connects the pushing shaft, and a pushing plate is elastically installed on the side of the pushing shaft facing the feed port.
[0010] Vibration limit component: Located on the downstream side of the discharge port, it includes a discharging cylinder and a vibrator fixedly connected to the output side of the discharging cylinder. A vibrating disk is arranged on the side of the vibrator facing the discharge port.
[0011] Photoelectric detector: Located below the vibration limit component, it is used to detect the falling outer ring of the bearing.
[0012] As a preferred technical solution of the cleaning device of the present invention: Brush hairs without blocked nozzles are provided on both sides of the cleaning channel, and the brush hairs are in frictional contact with the outer ring of the bearing in the cleaning channel.
[0013] As a preferred technical solution of the cleaning device of the present invention: The cleaning mechanism is provided with a liquid discharge groove, the liquid discharge groove is located below the rubber guide roller on the lower side of the cleaning channel, and a liquid discharge pipe communicated with the liquid discharge groove is also arranged on the bottom side of the cleaning mechanism.
[0014] As a preferred technical solution of the cleaning device of the present invention: A sleeve is movably installed at the side end of the pushing shaft rod, the pushing disk is fixed to the side end of the sleeve facing the feed port, and a spring is arranged in the sleeve between the pushing shaft rod and the pushing disk.
[0015] As a preferred technical solution of the cleaning device of the present invention: The pushing disk is provided with a clamping groove adapted to the outer ring side surface of the bearing outer ring.
[0016] As a preferred technical solution of the cleaning device of the present invention: The output end of the discharging cylinder is connected to a discharging shaft rod, the vibrator is fixedly installed at the side end of the discharging shaft rod, a limiting curved surface adapted to the outer ring side surface of the bearing outer ring is provided on the side surface of the vibrating disk facing the cleaning mechanism, and the vibrating disk is also provided with a vertical sliding surface located below the limiting curved surface.
[0017] As a preferred technical solution of the cleaning device of the present invention: The width dimension of the pushing disk is larger than the width dimension of the feed port, and the width dimension of the vibrating disk is larger than the width dimension of the discharge port.
[0018] The present invention also provides a method for quickly cleaning deep groove ball bearing accessories, including the following content:
[0019] S1. Multiple outer rings of bearings fall into the outer extension guide plate, the pushing cylinder drives the pushing disk to make a reciprocating motion, and pushes the multiple outer rings of bearings into the cleaning channel until the number of outer rings of bearings in the cleaning channel is full and there is one outer ring of bearing in the outer extension guide plate, and the pushing cylinder pauses. Among them, the full-load number of outer rings of bearings in the cleaning channel is set as n.
[0020] S2. The nozzles start to flush the outer rings of bearings in the cleaning channel, and at the same time the vibrator is started to drive the outer rings of bearings in the cleaning channel to vibrate continuously. Among them, the liquid spraying amount of the nozzles in the cleaning channel gradually decreases from the feed port area to the discharge port area.
[0021] S3. The vibrating duration of the outer ring of the bearing driven by the vibrator reaches the preset duration t max When this happens, the vibrator stops vibrating, and the feeding cylinder drives the vibrating disk away from the discharge port. Among them, the distance that the feeding cylinder drives the vibrating disk away from the discharge port of the cleaning channel is not less than D, and D is the outer diameter size of the outer ring of the bearing.
[0022] S4. The pushing cylinder drives the pushing disk to move towards the feeding port direction, and pushes a new outer ring of the bearing into the cleaning channel, and a vibration-cleaned outer ring of the bearing is discharged from the discharge port.
[0023] S5. After the photoelectric detector detects the signal of the outer ring of the bearing falling and blocking, the pushing cylinder drives the pushing disk away from the feeding port, and the feeding cylinder drives the vibrating disk to move towards the discharge port.
[0024] S6. A new outer ring of the bearing falls into or gets stuck between the pushing disk and the feeding port.
[0025] S7. The vibrator starts again, and the vibrating duration this time is shortened by t max / n compared with the previous vibrating duration. After reaching the vibrating duration, the vibrator stops vibrating.
[0026] S8. Repeat the content of steps S4, S5, S6, and S7 until the last outer ring of the bearing in the cleaning channel is vibrated and cleaned and discharged from the cleaning channel when the cleaning channel is full for the first time, and the vibrating duration of each subsequent vibration cleaning remains at t max / n.
[0027] Compared with the existing technology, the beneficial effects of the present invention are as follows:
[0028] 1. In the present invention, the outer ring of the bearing is driven to vibrate by the vibrator (the elastic design of the pushing disk also provides elastic limit support for the vibrator to drive the outer ring of the bearing to perform vibration cleaning), and the spray heads on both sides of the cleaning channel are used for multi-angle flushing, combined with the frictional contact between the brush bristles and the outer ring of the bearing, so that the cleaning liquid is in full contact with the outer ring of the bearing, enhancing the cleaning effect, effectively removing the dust and dirt on the surface of the outer ring of the bearing, and reducing the cleaning dead corners.
[0029] 2. In the present invention, the pushing cylinder is used to drive the pushing disk to quickly push multiple outer rings of the bearing into the cleaning channel, and the equipment can operate continuously during the cleaning process, and the vibrating duration design is optimized. For example, the first vibrating duration is t max , and each subsequent time is shortened by t max / n, and finally it stabilizes at t max / n, which not only ensures the cleaning degree of the outer ring of the bearing that just enters the cleaning channel, but also reduces the cleaning time of each subsequent single outer ring of the bearing, realizing efficient cleaning. Description of the Drawings
[0030] Figure 1This is a schematic diagram of the overall structure of the cleaning device in the present invention.
[0031] Figure 2 This is a schematic diagram of the internal structure of the cleaning device in the present invention from a top view.
[0032] Figure 3 This is a schematic diagram when the outer ring of the bearing after cleaning is discharged from the discharge port of the cleaning channel in the present invention.
[0033] Figure 4 This is a schematic diagram of the outer ring of the bearing entering between the feed port and the pusher plate in the present invention Figure 1 .
[0034] Figure 5 This is a schematic diagram of the outer ring of the bearing entering between the feed port and the pusher plate in the present invention Figure 2 .
[0035] Wherein: 1 - cleaning mechanism, 101 - cleaning channel, 1011 - feed port, 1012 - discharge port, 102 - spray head, 103 - brush bristles, 104 - rubber guide roller, 105 - outer extension guide plate, 106 - liquid discharge groove, 107 - liquid discharge pipe; 2 - outer ring of the bearing; 3 - elastic feeding component, 301 - pusher cylinder, 302 - pusher shaft rod, 303 - sleeve, 304 - pusher plate, 3041 - clamping groove, 305 - spring; 4 - vibration limiting component, 401 - discharging cylinder, 402 - discharging shaft rod, 403 - vibrator, 404 - vibrating plate, 4041 - limiting curved surface; 5 - photoelectric detector. Detailed implementation manners
[0036] In order to make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.
[0037] Embodiment 1. The present invention designs a rapid cleaning device for deep groove ball bearing accessories, in combination with Figure 1 , Figure 3 , mainly including a cleaning mechanism 1, an elastic feeding component 3, a vibration limiting component 4, and a photoelectric detector 5. The specific structural configuration is as follows:
[0038] Cleaning mechanism 1: In combination with Figure 1 , Figure 2 , Figure 3, there is a horizontally penetrating cleaning channel 101 inside, the cleaning channel includes a feed inlet 1011 and a discharge outlet 1012, and an extension guide plate 105 is installed on the upstream side of the feed inlet 1011 to guide the outer ring 2 of the bearing to smoothly enter the cleaning channel 101. A plurality of spray nozzles 102 are distributed on both sides of the cleaning channel 101, which can wash the outer ring 2 of the bearing from multiple angles. The rubber guide rollers 104 on the upper and lower sides not only play a role in supporting the outer ring 2 of the bearing, but also assist it to roll during the cleaning process to ensure more comprehensive cleaning. Brush hairs 103 that do not block the spray nozzles 102 are also provided on both side surfaces of the cleaning channel 101. The brush hairs 103 are in frictional contact with the outer ring 2 of the bearing inside the cleaning channel 101. When the spray nozzles 102 wash, the brush hairs 103 further enhance the cleaning effect and remove stubborn stains. In addition, the cleaning mechanism 1 is provided with a liquid discharge groove 106, which is located below the lower rubber guide roller 104 of the cleaning channel 101 and is used to collect the sewage generated during the cleaning process. A liquid discharge pipe 107 communicated with the liquid discharge groove 106 is configured at the bottom side of the cleaning mechanism 1 to facilitate the discharge of the sewage from the equipment.
[0039] Elastic feeding assembly 3: Combined with Figure 1 , Figure 3 , located on the upstream side of the feed inlet 1011, mainly consists of a pushing cylinder 301, a pushing shaft rod 302, a sleeve 303, a pushing plate 304 and a spring 305. The pushing cylinder 301 drives the pushing shaft rod 302 to move back and forth. The sleeve 303 is movably installed at the side end of the pushing shaft rod 302. Although the sleeve 303 and the pushing shaft rod 302 are movably connected, a limiting structure for preventing the sleeve 303 from falling off the pushing shaft rod 302 needs to be configured between the sleeve 303 and the pushing shaft rod 302. Such a limiting structure is relatively common in the prior art structures and will not be elaborated in this invention. The pushing plate 304 is fixed to the side end of the sleeve 303 facing the feed inlet 1011, and a spring 305 located between the pushing shaft rod 302 and the pushing plate 304 is configured inside the sleeve 303. Such an elastic design enables the pushing plate 304 to have a certain elastic buffer when pushing the outer ring 2 of the bearing, avoiding hard collision damage to the outer ring 2 of the bearing, and at the same time providing an elastic limiting support for the vibrator 403 to drive the outer ring 2 of the bearing to perform vibration cleaning. Combined with Figure 4 , the pushing plate 304 is provided with a clamping groove 3041 that matches the outer ring side surface of the outer ring 2 of the bearing, which can better clamp the outer ring 2 of the bearing, ensure the stability of the pushing process, and prevent it from shifting during the pushing process. Moreover, the width dimension of the pushing plate 304 is larger than the width dimension of the feed inlet 1011, which can effectively prevent the outer ring 2 of the bearing from slipping from both sides of the feed inlet 1011 during the pushing process.
[0040] Vibration limiting assembly 4: Combined with Figure 1 , Figure 3, located on the downstream side of the discharge port 1012, is composed of a discharging cylinder 401, a discharging shaft rod 402, a vibrator 403 and a vibrating disk 404. The output end of the discharging cylinder 401 is connected to the discharging shaft rod 402, and the vibrator 403 is fixedly installed on the side end of the discharging shaft rod 402. The width dimension of the vibrating disk 404 is larger than the width dimension of the discharge port 1012. A limiting curved surface 4041 that matches the outer ring side surface of the bearing outer ring 2 is provided on the side surface of the vibrating disk 404 facing the cleaning mechanism 1, which is used to limit the position of the bearing outer ring 2 during vibration to make it vibrate stably. The vibrating disk 404 is also provided with a vertical sliding surface located below the limiting curved surface 4041, and the vertical sliding surface is tangent to the limiting curved surface 4041. When the cleaned bearing outer ring 2 is discharged from the discharge port 1012 and falls on the vibrating disk 404, it can quickly slide down along the vertical sliding surface, which is convenient for subsequent collection.
[0041] Photoelectric detector 5: Combined with Figure 1 , Figure 3 , located below the vibration limiting assembly 4, its function is to detect the falling bearing outer ring 2. When the cleaned bearing outer ring 2 is discharged from the discharge port 1012 and blocks the signal of the photoelectric detector 5, the photoelectric detector 5 will send out a signal to trigger the action of subsequent equipment, such as controlling the movement of the pushing cylinder 301 and the discharging cylinder 401.
[0042] Embodiment 2. The present invention designs a rapid cleaning method for deep groove ball bearing accessories, and the specific cleaning method content is as follows:
[0043] Step 1, Preparation stage: A plurality of bearing outer rings 2 fall into the outer extension guide plate 105, and the pushing cylinder 301 drives the pushing disk 304 to make a reciprocating motion. Since the clamping groove 3041 of the pushing disk 304 matches the outer ring side surface of the bearing outer ring 2, the pushing disk 304 can smoothly push a plurality of bearing outer rings 2 into the cleaning channel 101. When the number of bearing outer rings 2 in the cleaning channel 101 is full (assuming the full load number is n) and there is still one bearing outer ring 2 in the outer extension guide plate 105, the pushing cylinder 301 pauses. At this time, the bearing outer rings 2 that are ready for cleaning in the cleaning channel 101 are prepared for the subsequent cleaning process.
[0044] Step 2, Cleaning and Vibration Stage: The nozzle 102 starts to flush the outer ring 2 of the bearing in the cleaning channel 101, and at the same time, the vibrator 403 is activated. The nozzle 102 sprays the cleaning liquid at multiple angles, cooperating with the frictional contact between the bristles 103 on both sides of the cleaning channel 101 and the outer ring 2 of the bearing, and the vibrator 403 drives the outer ring 2 of the bearing to vibrate continuously, enabling the cleaning liquid to fully contact the outer ring 2 of the bearing, enhancing the cleaning effect, and effectively removing the dust and dirt on the surface of the outer ring 2 of the bearing. Moreover, the liquid spraying volume of the nozzle 102 in the cleaning channel 101 gradually decreases from the feeding port 1011 area to the discharging port 1012 area. Such a design can reasonably distribute the cleaning liquid according to the cleaning degree of the outer ring 2 of the bearing. There is more dirt on the outer ring 2 of the bearing at the feeding port 1011, so the liquid spraying volume is large. As the cleaning progresses, the outer ring 2 of the bearing at the discharging port 1012 is relatively cleaner, and the liquid spraying volume decreases accordingly, realizing the reasonable utilization of the cleaning liquid.
[0045] Step 3, Completion of the First Vibration and Preparation for Discharging: Combined with Figure 3 , when the vibration time of the vibrator 403 driving the outer ring 2 of the bearing reaches the preset time t max , the vibrator 403 stops vibrating, but the nozzle 102 continues to spray and clean the outer ring 2 of the bearing. At this time, the discharging cylinder 401 drives the vibrating disk 404 away from the discharging port 1012, and the distance that the discharging cylinder 401 drives the vibrating disk 404 away from the discharging port 1012 of the cleaning channel 101 is not less than D (D is the outer diameter size of the outer ring 2 of the bearing), ensuring that there is enough space for the cleaned outer ring 2 of the bearing to be discharged and avoiding collision interference with the vibrating disk 404.
[0046] Step 4, Synchronous Feeding and Discharging: Combined with Figure 3 , the pushing cylinder 301 drives the pushing disk 304 to move towards the feeding port 1011 direction, and uses the clamping groove 3041 of the pushing disk 304 to push a new outer ring 2 of the bearing into the cleaning channel 101. Due to the limited space in the cleaning channel 101, while a new outer ring 2 of the bearing is being pushed in, a vibrated and cleaned outer ring 2 of the bearing is discharged from the discharging port 1012, realizing the continuity of the cleaning process.
[0047] Step 5, Equipment Action Control: Combined with Figure 3 、 Figure 4 , after the photoelectric detector 5 detects the signal of the outer ring 2 of the bearing falling and blocking, it indicates that a cleaned outer ring 2 of the bearing is discharged. At this time, the pushing cylinder 301 drives the pushing disk 304 away from the feeding port 1011 to prepare for the next feeding; the discharging cylinder 401 drives the vibrating disk 404 to move towards the discharging port 1012 and return to the initial position to prepare to receive the next cleaned outer ring 2 of the bearing.
[0048] Step 6, Feeding Preparation: Combined with Figure 4 、 Figure 5, a new outer bearing ring 2 falls or gets stuck between the pusher plate 304 and the feed inlet 1011, preparing for the next feeding operation.
[0049] Step Seven, subsequent vibration cleaning: The vibrator 403 starts again, and the vibration duration this time is shortened by t max / n. This is because as the cleaning progresses, the outer bearing rings 2 that subsequently enter the cleaning channel 101 have been partially cleaned previously, and the required cleaning time can be correspondingly shortened. After reaching the vibration duration this time, the vibrator 403 stops vibrating.
[0050] Step Eight, cyclic cleaning until completion: Repeat the content of Step Four, Step Five, Step Six, and Step Seven until the last outer bearing ring 2 at the first full load in the cleaning channel 101 completes vibration cleaning and is discharged from the cleaning channel 101. After that, the vibration cleaning duration each time is maintained at t max / n, achieving an efficient and stable cleaning process, and at the same time ensuring that all outer bearing rings 2 can be fully cleaned.
[0051] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, and improvements made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.
Claims
1. A deep groove ball bearing accessories rapid cleaning device, characterized in that: include: A cleaning mechanism (1): a cleaning channel (101) extending transversely therethrough, a plurality of nozzles (102) located on both sides of the cleaning channel (101), and rubber guide rollers (104) located on the upper and lower sides of the cleaning channel (101); the cleaning channel (101) comprises a feed inlet (1011) and a discharge outlet (1012); an extension guide plate (105) for introducing a bearing outer ring (2) is provided on the upstream side of the feed inlet (1011); An elastic feeding assembly (3): located at the upstream side of the feed inlet (1011), comprising a push cylinder (301), the push cylinder (301) drivingly connected to a push shaft (302), a push plate (304) being elastically mounted on the side of the push shaft (302) facing the feed inlet (1011); A vibration limiting assembly (4): located at the downstream side of the discharge port (1012), comprising a discharge cylinder (401), a vibrator (403) fixedly connected to the output side of the discharge cylinder (401), and a vibration plate (404) disposed on the side of the vibrator (403) facing the discharge port (1012); Photoelectric detector (5): located below the vibration limit assembly (4), used to detect the falling bearing outer ring (2).
2. A deep groove ball bearing accessories rapid cleaning device according to claim 1, characterized in that: Brushes (103) that do not block the nozzle (102) are provided on both sides of the cleaning channel (101), and the brushes (103) are in frictional contact with the outer ring (2) of the bearing in the cleaning channel (101).
3. The deep groove ball bearing accessories rapid cleaning device according to claim 1, characterized in that: The cleaning mechanism (1) is provided with a drainage groove (106), and the drainage groove (106) is located below the rubber guide roller (104) at the lower side of the cleaning channel (101). The bottom side of the cleaning mechanism (1) is also provided with a drainage pipe (107) connected to the drainage groove (106).
4. The deep groove ball bearing accessories rapid cleaning device according to claim 1, characterized in that: A sleeve (303) is movably mounted on the side end of the pushing shaft (302), and the pushing plate (304) is fixed to the side end of the sleeve (303) facing the feed port (1011). A spring (305) is arranged inside the sleeve (303) and is located between the pushing shaft (302) and the pushing plate (304).
5. A deep groove ball bearing accessories rapid cleaning device according to claim 1 or 4, characterized in that: The pushing plate (304) is provided with a locking groove (3041) that matches the outer ring side surface of the bearing outer ring (2).
6. The deep groove ball bearing accessories rapid cleaning device according to claim 1, characterized in that: The output end of the discharge cylinder (401) is connected to the discharge shaft (402), the vibrator (403) is fixedly mounted on the side end of the discharge shaft (402), the vibration plate (404) is provided with a limiting curved surface (4041) matching with the outer ring side of the bearing outer ring (2) on the side facing the cleaning mechanism (1), and the vibration plate (404) is also provided with a vertical sliding surface located below the limiting curved surface (4041).
7. The deep groove ball bearing accessories rapid cleaning device according to claim 1, characterized in that: The width of the pushing plate (304) is greater than the width of the feed port (1011), and the width of the vibration plate (404) is greater than the width of the discharge port (1012).
8. A method for quickly cleaning deep groove ball bearing parts, characterized in that: A deep groove ball bearing accessory rapid cleaning device according to any one of claims 1 to 7, comprising the following contents: S1. Multiple bearing outer rings (2) fall into the extension guide plate (105), and the push cylinder (301) drives the push plate (304) to make a reciprocating motion to push the multiple bearing outer rings (2) into the cleaning channel (101) until the number of bearing outer rings (2) in the cleaning channel (101) is full and there is one bearing outer ring (2) on the extension guide plate (105), and the push cylinder (301) stops moving; Wherein, the number of fully loaded outer rings (2) of the bearings in the cleaning channel (101) is assumed to be n; S2. The nozzle (102) starts to flush the outer ring (2) of the bearing in the cleaning channel (101), and at the same time, the vibrator (403) is started to drive the outer ring (2) of the bearing in the cleaning channel (101) to vibrate continuously; S3. The vibrator (403) drives the outer ring of the bearing (2) to vibrate for a predetermined time t max When the vibrator (403) stops vibrating, the discharge cylinder (401) drives the vibration plate (404) away from the discharge port (1012); S4. The push cylinder (301) drives the push plate (304) to move toward the feed port (1011), pushes a new bearing outer ring (2) into the cleaning channel (101), and discharges a vibration-cleaned bearing outer ring (2) from the discharge port (1012); S5. After the photoelectric detector (5) detects the falling shielding signal of the outer ring of the bearing (2), the pushing cylinder (301) drives the pushing plate (304) away from the feed port (1011), and the discharge cylinder (401) drives the vibration plate (404) to move toward the discharge port (1012); S6. A new bearing outer ring (2) falls into or is stuck between the push plate (304) and the feed port (1011); S7. The vibrator (403) is started again, and the duration of this vibration is shortened by t compared to the previous vibration duration. max / n, after the vibration duration is reached, the vibrator (403) stops vibrating; S8. Repeat the steps S4, S5, S6, and S7 until the last bearing outer ring (2) in the cleaning channel (101) is fully loaded for the first time and is vibrated and discharged from the cleaning channel (101). The duration of each subsequent vibration cleaning is maintained at t max / n.
9. A method for quickly cleaning deep groove ball bearing parts according to claim 8, characterized in that: In step S3, the discharge cylinder (401) drives the vibration plate (404) to be away from the discharge port (1012) of the cleaning channel (101) by a distance not less than D, wherein D is the outer diameter of the bearing outer ring (2).
10. A method for quickly cleaning deep groove ball bearing parts according to claim 8, characterized in that: The amount of liquid sprayed by the nozzle (102) in the cleaning channel (101) gradually decreases from the feed inlet (1011) area to the discharge outlet (1012) area.
Citation Information
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