Intelligent cleaner for motor bearing steel balls

Abstract

The utility model provides an intelligent cleaner for motor bearing steel balls, which relates to the technical field of bearing steel ball production equipment and comprises a base and steel balls to be cleaned, the inner wall of the top of the base is slidably connected with a base, a rail base plate is fixed at the top of the base, and an arc-shaped rail is fixed at the top of the rail base plate. A suction cup mounting mode is adopted to solve the problems that motor bearing steel balls are often cleaned by a high-pressure water gun to remove pollutants, stains formed by mixing dust, cutting fluid, anti-rust oil and the like in the pollutants often have remarkable viscosity, the stains are firmly attached to the surfaces of the steel balls due to the viscosity, the stains are difficult to completely remove even after being scoured by the high-pressure water gun, and the service life of the motor bearing steel balls is prolonged. In addition, the stains are high in viscosity and large in coverage area, the expected cleaning effect is often difficult to achieve by using a high-pressure water gun or similar common cleaning equipment, and although the equipment can be used for treating common pollution conditions, the cleaning capacity of the equipment is limited when the equipment is used for treating the large-area and viscous stains, and the high-standard cleaning requirement cannot be met.

Description

TECHNICAL FIELD

[0001] The utility model relates to bearing steel ball production equipment technical field especially relates to a motor bearing steel ball intelligent cleaning device. BACKGROUND

[0002] Motor bearing steel ball is an important part in motor, and the motor bearing steel ball will be contaminated by cutting fluid, rust-proof oil, dust and other pollutants in the machining process. These pollutants have a direct impact on the performance and life of the bearing. Through thorough cleaning, the running efficiency of the bearing can be effectively improved and its service life can be prolonged. The steel balls in production need to remove all the tiny metal particles, dust and other foreign matters left over from the machining process. These tiny pollutants may cause wear or failure when the bearing is running. A clean bearing surface can effectively reduce the risk of corrosion and wear. Especially in a humid environment, residual chemicals may accelerate the corrosion process of the bearing.

[0003] In the prior art, the degree of cleanliness of the motor bearing steel ball during the production process is crucial to its performance and life. High-pressure water guns are often used to clean these parts to remove cutting fluid, rust-proof oil and dust and other pollutants generated during the machining process. However, among these pollutants, especially those stains formed by the mixture of dust, cutting fluid and rust-proof oil, often have significant stickiness. This stickiness makes the stains firmly adhere to the surface of the steel ball, and even after being washed by a high-pressure water gun, it is difficult to completely remove them. In addition, these stains not only have strong stickiness, but also have a large coverage area, which means that the cleaning work needs to be more meticulous and thorough. However, using a high-pressure water gun or similar ordinary cleaning equipment often fails to achieve the desired cleaning effect. Although these devices can handle general pollution, they have limited cleaning ability when faced with large-area and sticky stains, and cannot meet the high-standard cleaning requirements. SUMMARY

[0004] The utility model aims at solving the shortcomings in the prior art and provides a motor bearing steel ball intelligent cleaning device.

[0005] In order to achieve the above object, the utility model discloses the following technical scheme: a motor bearing steel ball intelligent cleaning device, including base and steel ball to be cleaned, the base top inner wall sliding connection has the bottom base, the bottom base top is fixed with the rail base plate, the rail base plate top is fixed with the arc track, the rail base plate top is fixed with the base column, the base column top is fixed with the shaft ring, the shaft ring inner wall rotation is connected with the driving shaft, the driving shaft one end is fixed with the output, the driving shaft other end is fixed with the inclined plate, the inclined plate one end is fixed with the inclined shaft, the inclined shaft circumferential surface rotation is connected with the negative pressure air storehouse spare, the negative pressure air storehouse spare circumferential surface is seted up with the mounting groove, the mounting groove inner wall is fixed with the auxiliary plate, the mounting groove inner wall is fixed with the air valve spare, the air valve spare bottom is fixed with the sucking disc, in the prior art, the cleaning degree of motor bearing steel ball in the production process is important to its performance and life, high pressure water gun is often used to clean these parts to remove cutting fluid, rust preventive oil and dust and other pollutants generated in the processing, however, among these pollutants, especially those stains formed by dust mixed with cutting fluid, rust preventive oil, often have significant viscosity, the viscosity makes the stains firmly adhere to the steel ball surface, even after the flushing of high pressure water gun, is also difficult to completely remove, in addition, these stains not only have strong viscosity, but also have a larger coverage area, which means that the cleaning work needs to be more detailed and thorough, however, using high pressure water gun or similar ordinary cleaning equipment often difficult to achieve the expected cleaning effect, although these devices can handle general pollution, but when facing large area and viscous stains, its cleaning capacity is limited, and cannot meet the high standard cleaning demand, in view of this kind of problem, the utility model adopts the mode of installing sucking disc to solve, when the staff needs to clean the stubborn stains on the surface of steel ball, the negative pressure air storehouse spare is started, the inner wall of negative pressure air storehouse spare is provided with motor and turbine, when the motor drives the turbine to rotate at high speed, negative pressure is generated in the negative pressure air storehouse spare, then the steel ball to be cleaned is contacted with the sucking disc, the sucking disc is adsorbed and fixed to the steel ball to be cleaned by the negative pressure generated by the negative pressure air storehouse spare, then the external motor is connected with the output, so that the motor drives the driving shaft to rotate, drives the inclined plate end to draw a circular track along the central axis of the driving shaft, makes the inclined shaft draw a circle with its center as the center point, and drives the negative pressure air storehouse spare to also draw a spindle-shaped motion track with its center as the center point, so that the steel ball to be cleaned is continuously moved and rubbed in the arc track, and the orientation of the steel ball to be cleaned is changed, the stains on the surface of the steel ball are rubbed and scraped off, at the same time, the staff can continuously add water to the arc track, so that the water washes away the stains and carries away most of the heat generated by friction, improves the cleaning effect, when the pollution area on the surface of the steel ball accounts for a large proportion, the staff can turn over the steel ball to be cleaned after cleaning, and clean again, to improve the work efficiency.

[0006] Preferably, one end of the arc-shaped track is fixed with a resisting ring, in the prior art, when the surface of the steel ball is covered with too much dirt, these dirt including cutting fluid left by machining, rust-proof oil and dust and particles adsorbed in the process or storage, these substances often have great viscosity and density, which significantly increases the friction coefficient between the steel ball and the arc-shaped track in the cleaning device, the increased friction force hinders the movement of the steel ball on the arc-shaped track, which not only affects the cleaning effect, but also in some cases causes the steel ball to move unstably or even stop, reducing the cleaning efficiency, due to the increase of the friction force, the connection between the steel ball and the suction cup will be separated due to the inability to withstand excessive force, the suction cup is responsible for firmly fixing the steel ball to ensure its safety and stability during the entire cleaning process, however, if the friction force exceeds the bearing capacity of the suction cup, the steel ball will accidentally fall off during the cleaning process, once the steel ball falls off from the suction cup, it will fall outside the cleaning device, the falling of the steel ball will impact the device and damage the sensitive parts of the device, at the same time, it also poses a safety risk to the surrounding operators, in view of such problems, the utility model adopts the way of installing the resisting ring to solve the problem, when the steel ball falls off from the suction cup, due to the limitation of the arc-shaped track, the steel ball will only fly out from both ends of the arc-shaped track, so that the steel ball collides with the resisting ring, the resisting ring is made of metal material and has the characteristic of elastic deformation, the resisting ring provides buffer through elastic deformation and prevents the steel ball from falling out of the arc-shaped track, the soft resistance is used instead of hard collision, so that the service life of the device is improved.

[0007] Preferably, the bottom base is fixed with T-shaped pieces on both sides, and the surface of the T-shaped pieces slides with the inner wall of the top of the base, in the prior art, many intelligent cleaners are designed with fixed capacity and size limit, which can only process steel balls of specific size, when the steel balls are too small or too large, these devices cannot provide effective cleaning, resulting in incomplete cleaning or cleaning failure, and inappropriate steel ball size causes excessive wear and even damage to the mechanical parts inside the cleaner, especially when a large steel ball is sent into a device designed with small capacity, in view of such problems, the utility model adopts the way of installing T-shaped pieces to solve the problem, when the staff needs to clean steel balls of different sizes, the bottom base is only pulled out upward and a new adaptive bottom base is replaced, at the same time, the T-shaped pieces can prevent the bottom base from shaking in the base, so that the application range of the device is improved.

[0008] Preferably, the inner wall of the arc-shaped track is provided with a water drain, and the edge of one end of the water drain is provided with a channel end bevel, which prevents water from staying on the inner wall of the arc-shaped track for too long, and the channel end bevel prevents dirt from blocking the outlet, thereby improving the service life of the device.

[0009] Preferably, the bottom of the base is fixed with a rubber pad, and the bottom of the rubber pad is provided with a cross-shaped anti-skid groove, thereby improving the stability of the device.

[0010] Preferably, the base surface is provided with a handle slot, facilitating staff carrying and improving user experience.

[0011] Preferably, the top edge of the base is provided with a weight-reducing cut edge, reducing the self-weight and production cost.

[0012] Beneficial effects:

[0013] 1. In the prior art, the cleaning degree of motor bearing steel balls in the production process is crucial to their performance and service life. High-pressure water guns are often used to clean these parts to remove cutting fluid, rust-proof oil and dust and other pollutants generated during the machining process. However, among these pollutants, especially those stains formed by the mixture of dust and cutting fluid and rust-proof oil, often have significant adhesion. This adhesion makes the stains firmly adhere to the surface of the steel balls, and even after being washed by a high-pressure water gun, it is difficult to completely remove them. In addition, these stains not only have strong adhesion, but also have a large coverage area, which means that the cleaning work needs to be more detailed and thorough. However, using a high-pressure water gun or similar ordinary cleaning equipment often fails to achieve the desired cleaning effect. These devices can handle general pollution, but when faced with large-area and sticky stains, their cleaning ability is limited and cannot meet high-standard cleaning needs. To solve this problem, the utility model adopts the installation of a suction cup, which realizes the following functions when an operator needs to clean stubborn stains on the surface of a steel ball: starting a negative pressure air chamber, the inner wall of which is provided with a motor and a turbine; when the motor drives the turbine to rotate at high speed, negative pressure is generated inside the negative pressure air chamber; the suction cup is then brought into contact with the steel ball to be cleaned, so that the suction cup is adsorbed and fixed to the steel ball to be cleaned by the negative pressure generated by the negative pressure air chamber; an external motor is then connected to the output end, so that the motor drives the rotation of the main shaft, which drives the end of the inclined plate to draw a circular trajectory along the outer central axis of the main shaft, causing the inclined shaft to draw a circle with its center as the center point, and simultaneously driving the negative pressure air chamber to also draw a spindle-shaped motion trajectory with its center as the center point. This allows the steel ball to be cleaned to constantly change its orientation while being continuously moved and rubbed in the arc-shaped track, thereby rubbing and scraping off the stains on the surface of the steel ball. At the same time, the operator can continuously add water to the arc-shaped track, which can wash away the stains and carry away most of the heat generated by friction, thereby improving the cleaning effect. When the pollution area on the surface of the steel ball is relatively large, the operator can flip the steel ball to be cleaned after cleaning and clean it again to improve work efficiency.

[0014] 2、In the prior art, when the surface of the steel ball is covered with too much dirt, including cutting fluid left by machining, rust-proof oil, and dust and particles adsorbed during processing or storage, these substances often have great viscosity and density, significantly increasing the friction coefficient between the steel ball and the arc-shaped track in the cleaning device, and the increased friction force hinders the movement of the steel ball on the arc-shaped track, which not only affects the cleaning effect, but also in some cases causes the steel ball to move unstably or even stop, reducing the cleaning efficiency. Due to the increase in friction, the connection between the steel ball and the suction cup, which is responsible for firmly fixing the steel ball to ensure its safety and stability during the entire cleaning process, may be broken due to the inability to withstand excessive force. However, if the friction force exceeds the bearing capacity of the suction cup, the steel ball may accidentally fall off during the cleaning process. Once the steel ball falls off the suction cup, it will fall outside the cleaning device, causing impact on the device and damaging sensitive parts of the device, and also posing a safety risk to the surrounding operators. To solve such problems, the utility model adopts the installation of a resistance ring, which realizes that when the steel ball falls off the suction cup, it will only fly out from both ends of the arc-shaped track due to the limitation of the arc-shaped track, so that the steel ball collides with the resistance ring. The resistance ring is made of metal and has the characteristic of elastic deformation. The resistance ring provides cushioning through elastic deformation and prevents the steel ball from falling out of the arc-shaped track. By replacing hard collision with soft resistance, the service life of the device is improved.

[0015] 3、In the prior art, many intelligent cleaning devices are designed with fixed capacity and size limitations, and can only handle steel balls of a specific size. When the steel balls are too small or too large, these devices cannot provide effective cleaning, resulting in incomplete cleaning or no cleaning at all. Inappropriate steel ball size leads to excessive wear and even damage to the mechanical parts inside the cleaning device. In particular, when oversized steel balls are fed into a device designed with a smaller capacity, the utility model solves such problems by installing a T-shaped piece, which realizes that when the staff needs to clean steel balls of different sizes, they only need to pull out the base and replace it with a new one that fits. At the same time, the T-shaped piece can prevent the base from shaking in the base, improving the application range of the device. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 is a schematic diagram of the three-dimensional structure of the utility model;

[0017] Figure 2 is a schematic diagram of the three-dimensional structure of the utility model's driving shaft;

[0018] Figure 3 is a schematic diagram of the three-dimensional structure of the utility model's rubber pad;

[0019] Figure 4 is a schematic diagram of the three-dimensional structure of the utility model's drain;

[0020] Figure 5 It is the three-dimensional structure schematic view of the auxiliary plate.

[0021] Legend:

[0022] 1, base; 101, weight-reducing edge; 102, handle groove; 103, steel ball to be cleaned; 2, bottom base; 201, track base plate; 202, arc-shaped track; 203, base column; 204, shaft ring; 205, driving shaft; 206, inclined plate; 207, output end; 208, inclined shaft; 209, negative pressure air chamber piece; 2010, mounting groove; 2011, air valve piece; 2012, auxiliary plate; 2013, suction cup; 3, resisting ring; 301, waterway; 302, way end bevel; 4, T-shaped piece; 5, rubber pad; 501, cross anti-skid groove. DETAILED DESCRIPTION

[0023] In order to make the technical means, creative features, purposes and effects realized by the utility model easy to understand, the utility model is further described below in combination with specific embodiments and drawings, but the following embodiments are only preferred embodiments of the utility model, not all. Based on the embodiments in the embodiments, other embodiments obtained by those skilled in the art without creative labor belong to the protection scope of the utility model.

[0024] The specific embodiments of the utility model are described below in combination with the drawings. Specific embodiments:

[0026] Reference Figures 1-5The utility model provides a motor bearing steel ball intelligence cleaner, including base 1 and the steel ball 103 of cleaning, base 1 top inner wall sliding connection has the bottom base 2, and the bottom base 2 top is fixed with the rail base plate 201, and the rail base plate 201 top is fixed with the arc rail 202, and the rail base plate 201 top is fixed with the base column 203, and the base column 203 top end is fixed with the shaft ring 204, and the shaft ring 204 inner wall rotation is connected with the driving shaft 205, and the driving shaft 205 one end is fixed with the output end 207, and the driving shaft 205 other end is fixed with the inclined plate 206, and the inclined plate 206 one end is fixed with the inclined shaft 208, and the inclined shaft 208 circumferential surface rotation is connected with the negative pressure air storehouse spare 209, and the negative pressure air storehouse spare 209 circumferential surface is set up with the installation groove 2010, and the installation groove 2010 inner wall is fixed with the auxiliary plate 2012, and the installation groove 2010 inner wall is fixed with the air valve spare 2011, and the air valve spare 2011 bottom is fixed with the sucking disc 2013, and the cleaning degree of motor bearing steel ball in production process is important to its performance and life, and high pressure water gun is often used to clean these parts to remove cutting fluid, rust preventive oil and dust and other pollutants generated in the processing, however, these pollutants, especially those by dust and cutting fluid, rust preventive oil mixed and become stains, often have significant viscosity, and this viscosity makes the stains adhere firmly on the steel ball surface, even after the flushing of high pressure water gun, is also difficult to completely remove, in addition, these stains not only have strong viscosity, and the coverage area is also larger, which means that the cleaning work needs to be more careful and thorough, but using high pressure water gun or similar ordinary cleaning equipment often is difficult to achieve the expected cleaning effect, these devices although can handle general pollution, but when facing large area and viscous stains, its cleaning ability is limited, cannot satisfy the high standard cleaning demand, adopt the mode of installing sucking disc 2013, realize when the staff needs to clean the stubborn stains on the surface of steel ball, start negative pressure air storehouse spare 209, the inner wall of negative pressure air storehouse spare 209 is equipped with motor and turbine, when motor drives turbine high-speed rotation, negative pressure is generated in the negative pressure air storehouse spare 209, then make the steel ball 103 to be cleaned and sucking disc 2013 contact, make sucking disc 2013 rely on the negative pressure generated by negative pressure air storehouse spare 209 and adsorb and fix the steel ball 103 to be cleaned, then connect the external motor and output end 207, make motor drive driving shaft 205 rotation, drive the end of inclined plate 206 to draw a circular track with the central axis of driving shaft 205, make inclined shaft 208 draw a circle with its center as the center point, and negative pressure air storehouse spare 209 also draw a spindle-shaped motion track with its center as the center point, make the steel ball 103 to be cleaned change its orientation while constantly moving and rubbing in arc rail 202, rub and scrape the stains on the surface of steel ball, at the same time, the staff can constantly add water to arc rail 202, make water wash away the stains, and take away most of the heat generated by friction, improve the cleaning effect, when the pollution area of steel ball surface accounts for a large proportion, the staff can turn over the steel ball 103 to be cleaned after cleaning, clean again, reach the effect of improving work efficiency.

[0027] The arc-shaped track 202 is fixed with a resisting ring 3 at one end. When the surface of the steel ball is covered with too much dirt, including cutting fluid left by machining, rust-proof oil, and dust and particles adsorbed during processing or storage, these substances often have great viscosity and density, significantly increasing the friction coefficient between the steel ball and the arc-shaped track 202 in the cleaning device. The increased friction force will hinder the movement of the steel ball on the arc-shaped track 202, which not only affects the cleaning effect, but in some cases can cause the steel ball to move unstably or even stop, reducing the cleaning efficiency. Due to the increase in friction, the connection between the steel ball and the suction cup 2013, which is responsible for securely fixing the steel ball to ensure its safety and stability during the entire cleaning process, may be broken due to the inability to withstand excessive force. However, if the friction force exceeds the bearing capacity of the suction cup 2013, the steel ball will accidentally fall off during the cleaning process. Once the steel ball falls off the suction cup 2013, it will fall outside the cleaning device, causing impact on the device and damaging sensitive parts of the device, and also posing a safety risk to the surrounding operators. The installation of the resisting ring 3 solves this problem, realizing that when the steel ball falls off the suction cup 2013, it will only fly out from both ends of the arc-shaped track 202 due to the restriction of the arc-shaped track 202, causing the steel ball to collide with the resisting ring 3. The resisting ring 3 is made of metal and has the characteristic of elastic deformation. The resisting ring 3 provides cushioning through elastic deformation and prevents the steel ball from falling out of the arc-shaped track 202. By replacing hard collision with soft resistance, the service life of the device is improved. The base 2 is fixed with a T-shaped piece 4 on both sides, and the surface of the T-shaped piece 4 slides with the inner wall of the top of the base 1. Many intelligent cleaners are designed with fixed capacity and size limits, and can only handle steel balls of a specific size. When the steel ball is too small or too large, these devices cannot provide effective cleaning, resulting in incomplete cleaning or no cleaning at all. Inappropriate steel ball size can cause excessive wear and even damage to the mechanical parts inside the cleaner, especially when a large steel ball is sent into a device designed with a small capacity. The installation of the T-shaped piece 4 solves this problem, realizing that when the staff needs to clean steel balls of different sizes, they only need to pull the base 2 upwards and replace it with a new one that fits the base 2. At the same time, the T-shaped piece 4 can prevent the base 2 from shaking in the base 1, improving the application range of the device. The inner wall of the arc-shaped track 202 is provided with a drainage channel 301, and the edge of one end of the drainage channel 301 is provided with a channel end bevel 302 to prevent water from staying on the inner wall of the arc-shaped track 202 for too long. The channel end bevel 302 prevents dirt from blocking the outlet, improving the service life of the device. The base 1 is fixed with a rubber pad 5 at the bottom, and the bottom of the rubber pad 5 is provided with a cross-shaped anti-skid groove 501 to improve the stability of the device. The surface of the base 1 is provided with a handle slot 102 to facilitate the staff to carry it, improving the user experience. The top edge of the base 1 is provided with a weight-reducing cut edge 101 to reduce the weight and production cost.

[0028] The utility model discloses a working principle: when the staff needs to clean the stubborn stain on the surface of steel ball, starts negative pressure air storehouse spare 209, and the inner wall of negative pressure air storehouse spare 209 is equipped with motor and turbine, when the motor drives the high -speed rotation of turbine, generates the negative pressure in the inside of negative pressure air storehouse spare 209, again contacts the steel ball 103 of cleaning with sucking disc 2013, makes sucking disc 2013 rely on the negative pressure adsorption fixed steel ball 103 of cleaning of negative pressure air storehouse spare 209 generation, again connects the external motor with output end 207, makes the motor drive main shaft 205 rotation, drives the inclined plate 206 end to draw a circular track with main shaft 205 outer center axis, makes the inclined shaft 208 with the center of itself as the center point both ends draw a circle, simultaneously drives negative pressure air storehouse spare 209 also with the center of itself as the center point, both ends do spindle shape movement track, make steel ball 103 of cleaning in arc track 202 constantly move friction, change its orientation constantly, scrape the stain on the surface of steel ball, simultaneously the staff can constantly add water in arc track 202, make water wash away the stain, simultaneously take away most of the heat generated by friction, improve the cleaning effect, when the steel ball surface pollution area accounts for more, the staff can turn over steel ball 103 of cleaning after cleaning, cleans again.

[0029] In the utility model, unless another definite provision and limitation, first feature is in the "on" or "under" of second feature can include that first and second features are directly contacted, also can include that first and second features are not directly contacted but are contacted through other features between them. Moreover, first feature is in "on", "above" and "upper surface" of second feature includes that first feature is directly above and obliquely above second feature, or only indicates that the horizontal height of first feature is higher than second feature. First feature is in "under", "below" and "lower surface" of second feature includes that first feature is directly below and obliquely below second feature, or only indicates that the horizontal height of first feature is less than second feature.

[0030] The basic principle, main features and advantages of the utility model are shown and described above. The skilled in the art should understand that the utility model is not limited by the above examples, and the above examples and descriptions in the specification are only preferred examples of the utility model and do not limit the utility model, and various changes and improvements of the utility model fall within the scope of the utility model. The scope of protection of the utility model is defined by the appended claims and their equivalents.

Claims

1. A smart cleaner for steel balls in motor bearings, comprising a base (1) and steel balls (103) to be cleaned, characterized in that: The base (1) has a base (2) slidably connected to its inner top wall. A track base plate (201) is fixed to the top of the base (2). An arc-shaped track (202) is fixed to the top of the track base plate (201). A base column (203) is fixed to the top of the track base plate (201). A collar (204) is fixed to the top of the base column (203). A drive shaft (205) is rotatably connected to the inner wall of the collar (204). An output end (207) is fixed to one end of the drive shaft (205). 05) An inclined plate (206) is fixed at the other end. An inclined shaft (208) is fixed at one end of the inclined plate (206). A negative pressure air chamber component (209) is rotatably connected to the circumference of the inclined shaft (208). An installation groove (2010) is opened on the circumference of the negative pressure air chamber component (209). An auxiliary plate (2012) is fixed on the inner wall of the installation groove (2010). An air valve component (2011) is fixed on the inner wall of the installation groove (2010). A suction cup (2013) is fixed at the bottom of the air valve component (2011).

2. The intelligent cleaner for motor bearing steel balls according to claim 1, characterized in that: One end of the arc-shaped track (202) is fixed with a resistance ring (3).

3. The intelligent cleaner for motor bearing steel balls according to claim 1, characterized in that: T-shaped parts (4) are fixed on both sides of the base (2), and the surface of the T-shaped parts (4) slides against the inner wall of the top of the base (1).

4. The intelligent cleaner for motor bearing steel balls according to claim 1, characterized in that: The inner wall of the arc-shaped track (202) is provided with a drainage channel (301), and one end edge of the drainage channel (301) is set as a channel end bevel (302).

5. The intelligent cleaner for motor bearing steel balls according to claim 1, characterized in that: A rubber pad (5) is fixed to the bottom of the base (1), and a cross anti-slip groove (501) is provided on the bottom of the rubber pad (5).

6. The intelligent cleaner for motor bearing steel balls according to claim 1, characterized in that: The base (1) has a handle groove (102) on its surface.

7. The intelligent cleaner for motor bearing steel balls according to claim 1, characterized in that: The top edge of the base (1) is set as a weight-reducing cut edge (101).

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