Full-automatic cleaning and drying equipment for precise linear guide rail

Abstract

The invention relates to a guide rail cleaning technology in the technical field of full-automatic cleaning, in particular to precise linear guide rail full-automatic cleaning and drying equipment which comprises a communicating base, a spraying assembly is communicated with the communicating base and comprises an air bellow of a conical structure, one end of the air bellow is communicated with the communicating base, and an air gathering opening is formed in the other end of the air bellow. A rotary cleaning assembly driven by air blown out of the air gathering opening to rotate is arranged in the air gathering opening. A driving fan of the foaming assembly is driven to rotate through air of a second flow dividing channel, then a packing auger is driven to rotate in a conveying barrel through a connecting rod and a transmission assembly, a cleaning agent is pressed to a foaming spray head, automatic conveying and foaming of the cleaning agent are achieved, the cleaning agent is mixed through rotation of the packing auger, and the foaming efficiency is improved. And the uniformity and the foaming effect of the cleaning agent are improved. And the foamed cleaning agent can be more uniformly coated on the inner wall of the guide rail, so that a good cleaning basis is provided for subsequent rolling and brushing.

Description

Technical Field

[0001] The invention relates to a guide rail cleaning technology in the field of full-automatic cleaning technology, and in particular to a precision linear guide rail full-automatic cleaning and drying device. Background Art

[0002] After the precision linear guide has been used for a period of time, some impurities will adhere to its outer surface, which will affect the subsequent sliding of the sliding seat on the precision linear guide. Therefore, in order to ensure the normal operation of the equipment and the processing accuracy of the product, the precision linear guide needs to be cleaned regularly. After cleaning, it is also necessary to dry it to prevent the precision linear guide from rusting, thereby extending its service life.

[0003] For equipment that uses jet force for cleaning, during the process of cleaning the guide rail, if the main direction of the jet is mainly towards the forward direction of the guide rail, the positions on both sides of the guide rail are often easily overlooked, which may lead to incomplete cleaning. In addition, simply relying on jet force for cleaning may be powerless when facing stubborn oil stains, and the cleaning effect may be poor.

[0004] Based on this, the present invention discloses a fully automatic cleaning and drying device for a precision linear guide rail. Summary of the invention

[0005] In order to solve the problem that when the guide rail is cleaned by jet force, in order to overcome the problem that the cleaning on both sides is not thorough and the oil stains are difficult to remove, a special cleaning agent needs to be used to enhance the cleaning effect. The present invention provides a fully automatic cleaning and drying device for a precision linear guide rail, which comprises a guide rail body and a mounting seat slidably arranged on the guide rail body, wherein a jet cleaning device is arranged in the mounting seat, and a connecting pipe is connected to the jet cleaning device;

[0006] Preferably, one end of the connecting pipe away from the mounting seat is connected to a connecting seat, and the connecting seat is connected to an injection assembly;

[0007] Wherein, the injection assembly includes a bellows with a conical structure, one end of the bellows is connected with the connecting seat, and the other end of the bellows is provided with an air gathering port, and a rotating cleaning assembly driven to rotate by the wind blown out of the air gathering port is arranged in the air gathering port, and the rotating cleaning assembly includes a spray pipe that rotates and sprays toward the inner wall of the guide rail body; preferably, one end of the spray pipe passes through the rotating ring and is connected with the air gathering port, and the other end of the spray pipe is L-shaped and faces the radial direction of the rotating ring, and the end of the spray pipe blows in the radial direction of the rotating ring away from the center of the circle;

[0008] A foaming component for spraying foaming cleaning agent driven by the wind flow in the bellows is arranged at the bottom of the bellows, and the foaming component includes a driving fan arranged at the bottom of the bellows and symmetrically rotatably arranged on both sides of the installation box, the top of the driving fan is exposed in the bottom of the bellows, and the driving fans are connected by a first connecting rod arranged in the installation box, and a conveying component is arranged on the first connecting rod, one end of the conveying component is connected to the cleaning agent box arranged at the bottom of the bellows, and the other end is symmetrically connected to foaming nozzles spraying to the inner walls on both sides of the guide body.

[0009] The delivery assembly includes a delivery cylinder fixedly connected to the installation box, one end of the delivery cylinder is connected to the bottom of the cleaning agent box, and the other end is adjacent to the first connecting rod and is closed. An auger is rotatably arranged in the delivery cylinder, and infusion tubes are symmetrically connected on both sides of the end of the delivery cylinder away from the cleaning agent box. The infusion tubes are conical in structure, and the inner diameter of the end of the infusion tube away from the delivery cylinder is larger than the inner diameter of the end of the infusion tube located in the delivery cylinder. The end of the infusion tube away from the delivery cylinder extends to the inner wall of one side of the guide rail body outside the installation box, and the end of the infusion tube located outside the installation box is connected to the foaming nozzle.

[0010] Compared with the prior art, the present invention has the following beneficial effects:

[0011] 1. In this kind of fully automatic cleaning and drying equipment for precision linear guide rails, a conical-structured bellows and air gathering port are provided, and the air flow is divided into a mainstream flow and an auxiliary flow in cooperation with a diverter plate. The mainstream flow is blown out strongly through the air gathering port, and at the same time, the rotating cleaning component is driven to rotate, so that the wind can be fully utilized and form a rotating cleaning force, which not only enhances the cleaning effect, but also effectively solves the problem of incomplete cleaning on both sides of the inner wall of the guide rail. The rotating jet pipe can continuously apply a rotating blowing force to both sides of the inner wall of the guide rail, making the cleaning more uniform and in-depth, greatly improving the problem of cleaning dead corners.

[0012] 2. In this kind of precision linear guide fully automatic cleaning and drying equipment, the rotating cleaning component not only realizes the rotational utilization of airflow through the design of vortex fan and rotating ring, but also cleverly arranges the injection pipe to guide part of the airflow to the radial direction of the inner wall of the guide rail, which not only enhances the coverage of the cleaning wind, but also makes the stubborn impurities subject to multi-directional forces through the rotating blowing force, making them easier to fall off, thereby improving the cleaning efficiency and cleanliness.

[0013] 3. In this kind of fully automatic cleaning and drying equipment for precision linear guides, the setting of the wind gathering hood further improves the cleaning effect. It uses the gathering effect of the conical structure to gather and enhance the airflow after passing through the vortex fan and the jet pipe, and then blows it out obliquely to the bottom of the guide rail, forming a cleaning force that bursts out in all directions. This design not only strengthens the cleaning of the bottom of the guide rail, but also cooperates with the wind force of the jet pipe to achieve comprehensive cleaning inside the guide rail.

[0014] 4. In this kind of precision linear guide rail automatic cleaning and drying equipment, the wind in the second diversion channel drives the driving fan of the foaming component to rotate, and then drives the auger to rotate in the conveying cylinder through the connecting rod and the transmission component, and the cleaning agent is pressed to the foaming nozzle, which not only realizes the automatic delivery and foaming of the cleaning agent, but also mixes the cleaning agent through the rotation of the auger, thereby improving the uniformity and foaming effect of the cleaning agent. The foamed cleaning agent can be more evenly coated on the inner wall of the guide rail, providing a good cleaning foundation for the subsequent roller brush. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0016] Figure 2 It is a structural schematic diagram of the spray cleaning equipment of the present invention;

[0017] Figure 3 It is a structural cross-sectional view of the injection assembly of the present invention;

[0018] Figure 4 The second structural cross-sectional view of the injection assembly of the present invention;

[0019] Figure 5 It is a structural cross-sectional view of the wind collecting cover of the present invention;

[0020] Figure 6 It is a structural schematic diagram of the rotary cleaning assembly tube of the present invention;

[0021] Figure 7 It is a structural schematic diagram of the diverter plate of the present invention;

[0022] Figure 8 It is a schematic structural diagram of the foaming component of the present invention;

[0023] Fig. 9 It is a structural cross-sectional view of the installation box of the present invention;

[0024] Fig.10 for Fig. 9 A magnified view of the structure at center A;

[0025] Fig.11 It is a schematic structural diagram of the foaming component of the present invention;

[0026] Fig.12 It is a structural sectional view of the delivery tube of the present invention.

[0027] The meaning of each number in the figure is:

[0028] 1. Guide rail body; 2. Mounting seat; 3. Spray cleaning equipment; 4. Connecting pipe; 5. Connecting seat; 6. Spraying assembly; 7. Cleaning agent box; 8. Foaming assembly;

[0029] 61. bellows; 62. air collecting port; 63. diverter plate; 64. rotary cleaning assembly; 65. mounting cylinder; 66. air collecting cover; 67. first notch;

[0030] 641, bracket; 642, rotating rod; 643, vortex fan; 644, rotating ring; 645, injection pipe;

[0031] 81. Installation box; 82. Second notch; 83. First connecting rod; 84. Driving fan; 85. Second connecting rod; 86. Bevel gear transmission assembly; 87. Gear transmission assembly; 88. Conveying assembly;

[0032] 881. Delivery tube; 882. Auger; 883. Infusion tube; 884. Foaming nozzle. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] In the existing method of cleaning the guide rails by jet force, in order to overcome the problems of incomplete cleaning on both sides and difficulty in removing oil stains, a special cleaning agent must be used to enhance the cleaning effect.

[0035] To this end, the present invention provides a fully automatic cleaning and drying device for precision linear guide rails. Figure 1 As shown, it includes a guide rail body 1 and a mounting seat 2 slidably arranged on the guide rail body 1, a spray cleaning device 3 is arranged in the mounting seat 2, the spray cleaning device 3 is connected to a connecting pipe 4, the connecting pipe 4 is connected to a connecting seat 5 at one end away from the mounting seat 2, and the connecting seat 5 is connected to a spray assembly 6.

[0036] It should be added that a corresponding roller brush, wiping and drying device is also provided in the mounting seat 2 at the rear end of the spray assembly 6 along the cleaning direction of the guide rail body 1. The roller brush device is used to cooperate with the foaming cleaning agent sprayed on the inner walls of both sides of the guide rail body 1 mentioned below to clean the inner wall of the guide rail body 1. With the cleaning agent, the roller brush device can clean oil stains and other impurities more thoroughly and conveniently. After the roller brush is cleaned with the cleaning agent, the cleaning agent is wiped off by the wiping device and then dried by the drying device to ensure that the guide rail body 1 is clean, dry and tidy.

[0037] Specifically, the spray assembly 6 includes a bellows 61 with a conical structure, one end of the bellows 61 is connected to the connecting seat 5, and the other end of the bellows 61 is provided with an air gathering port 62. The bottom of the bellows 61 is a horizontal structure, and the bottom of the bellows 61 is symmetrically fixed with diverter plates 63 on both sides of the air gathering port 62. The bellows 61 is divided into a first diverter channel located in the middle part and a second diverter channel located on both sides of the first diverter channel through the diverter plates 63. The first diverter channel is arranged opposite to the air gathering port 62. A rotating cleaning assembly 64 driven to rotate by the wind blown out of the air gathering port 62 is arranged in the air gathering port 62, and the wind blowing out of the air gathering port 62 is blown out of the air gathering port 62. Figure 4 It can also be seen that the second diversion channel is also a conical structure, so that the first diversion channel is the mainstream channel, and most of the airflow flows out through the first diversion channel. When it reaches the air gathering port 62, the airflow is stronger. Since the second diversion channel is smaller and is only located at the bottom, a conical channel is formed by means of the structural characteristics of the bellows 61 and the diversion plate 63 to compensate for the problem of insufficient wind force in the second diversion channel. At the same time, all the wind eventually converges to the air gathering port 62 and then flows out through the air gathering port 62, so that there is enough strong wind to drive the rotating cleaning component 64.

[0038] That is to say, the conical wind box 61 cooperates with the diverter plate 63 to divide the airflow into a first diverter channel (main channel) and a second diverter channel (compensation channel). The first channel concentrates the wind to drive the rotating cleaning component 64, and the second channel maintains the wind stability through the conical compensation structure to ensure that the overall wind output of the air gathering port 62 is strong. This design not only ensures the high intensity of the main cleaning wind, but also avoids the attenuation of the wind on both sides through diversion compensation, so that the rotating cleaning component 64 obtains a stable driving force, and at the same time provides a power source for the foaming component 8, realizing efficient allocation of wind resources.

[0039] Among them, the rotating cleaning component 64 includes a bracket 641 fixed on the bellows 61, and a rotating rod 642 is rotatably connected to the bracket 641. The rotating rod 642 is concentric with the air gathering port 62, and the end of the rotating rod 642 located in the air gathering port 62 is a conical structure, which can reduce wind resistance. The part of the rotating rod 642 located in the air gathering port 62 is fixedly connected to the vortex fan 643, and the end of the rotating rod 642 located in the air gathering port 62 is fixedly connected to the end of the rotating rod 642 located at the air gathering port 62 away from the connecting seat 5 is fixedly connected to a rotating ring 644, which is adapted to the air gathering port 62, and a plurality of injection pipes 645 are evenly arranged on the rotating rod 642 around its center.

[0040] One end of the injection pipe 645 is connected to the air gathering port 62, and the other end is in an L-shaped structure and blows in the radial direction of the rotating ring 644 away from its center. When the wind in the bellows 61 is finally blown out through the air gathering port 62, it will drive the vortex fan 643 to rotate, thereby driving the rotating ring 644 to rotate through the rotating rod 642. The rotation of the rotating ring 644 will cause the injection pipe 645 thereon to rotate, and one end of the injection pipe 645 passes through the rotating ring 644 and is connected to the air gathering port 62, and the other end of the injection pipe 645 is in an L-shaped structure and faces the radial direction of the rotating ring 644, and the end of the injection pipe 645 blows in the radial direction of the rotating ring 644 away from its center.

[0041] In this way, part of the wind blown out from the air gathering port 62 will enter the injection pipe 645 after passing through the vortex fan 643, and then be blown radially outward from the rotating ring 644. The rotating ring 644 is in a rotating state, which will drive the injection pipe 645 to rotate as well, thereby causing both sides of the inner wall of the guide rail body 1 to be subjected to a continuous rotating blowing force. Moreover, the cleaning wind blown out from the injection pipe 645 is in a rotating state, which can greatly improve the dead angle problem in the guide rail body 1, and the rotating blowing force allows some stubborn impurities to be subjected to multi-directional blowing force, which is more conducive to their shedding.

[0042] That is to say, when the wind force of the air gathering port 62 drives the vortex fan 643 to rotate, the rotating rod 642 and the jet pipe 645 are driven to rotate synchronously, and the end of the L-shaped jet pipe 645 continuously blows the airflow in a rotating manner to the inner walls of both sides of the guide rail body 1. The rotating airflow forms a multi-directional flushing effect, so that the impurities in the dead corners of the side walls of the guide rail are periodically impacted, and combined with the subsequent roller brush device to assist in cleaning the foaming cleaning agent, the removal efficiency of oil stains and stubborn impurities is significantly improved.

[0043] Furthermore, a circular flow port is opened in the center of the rotating ring 644, and a mounting tube 65 adapted to the flow port is fixedly connected to the bracket 641. One side of the rotating ring 644 is rotatably connected to the end of the air collecting port 62 and is sealed. The other end of the mounting tube 65 is rotatably connected to one end of the bellows 61 and is sealed. The other end of the mounting tube 65 is fixedly connected to a wind collecting hood 66, one end of the wind collecting hood 66 is connected to the mounting tube 65, and the other end is arranged obliquely toward the bottom of the guide rail body 1, and the wind collecting hood 66 has a conical structure, and the inner diameter of the end of the wind collecting hood 66 away from the mounting tube 65 is smaller than the inner diameter of the end connected to the mounting tube 65.

[0044] In combination with the above, it can be clearly known from such an arrangement that the wind passing through the air collecting port 62 blows toward the vortex fan 643, causing it to rotate, and then the wind passes through the vortex fan 643 and reaches the position of the rotating ring 644, wherein most of the wind flows into the mounting tube 65 through the circulation port, while the wind located around the circulation port is blown to the inner walls on both sides of the guide body 1 through the injection pipe 645. Since the wind passing through the mounting tube 65 is the main cleaning wind, after passing through the vortex fan 643 and the injection pipe 645 and taking away a part of the kinetic energy, the wind force is increased again through the gathering effect of the conical structure of the air collecting cover 66, so that the main wind blows to the bottom of the guide body 1. Since the end of the air collecting cover 66 is inclined toward the inner bottom of the guide body 1, when the wind hits the inner bottom of the guide body 1, it will burst out to the surroundings, and further cooperate with the increase of the wind blowing to the inner walls on both sides of the guide body 1 by the above-mentioned injection pipe 645, so that the entire guide body 1 is fully cleaned by the strong cleaning wind.

[0045] That is, after the main channel airflow passes through the installation tube 65 and enters the wind collecting cover 66, it is accelerated by its conical structure and obliquely impacts the bottom of the guide rail. After the impact, the airflow spreads to the surroundings, forming a superposition effect with the lateral airflow of the rotating injection tube 645. This design allows the impurities accumulated at the bottom of the guide rail to be dispersed by concentrated wind force, and guided to both sides by the diffused airflow, and cooperates with the infiltration effect of the foaming cleaning agent to achieve all-round coverage and cleaning of the inner wall of the guide rail body 1.

[0046] However, it is not enough to rely solely on wind power for cleaning. Some impurities such as oil stains need to be cleaned with the help of cleaning agents. Therefore, a foaming component 8 is provided at the bottom of the bellows 61 for spraying foaming cleaning agents driven by the wind flow in the bellows 61. The foaming component 8 includes a driving fan 84 arranged at the bottom of the bellows 61 and symmetrically rotatably arranged on both sides of the installation box 81. A first notch 67 is provided at the bottom of the bellows 61 at the position of the second diversion channel, and a corresponding second notch 82 is provided at the installation box 81 below the first notch 67. The top of the driving fan 84 passes through the second notch 82 and the first notch 67 and the top of the driving fan 84 is exposed in the bottom of the bellows 61. The driving fans 84 are connected by a first connecting rod 83 arranged in the installation box 81, and a conveying component 88 is provided on the first connecting rod 83.

[0047] Among them, the conveying component 88 includes a conveying cylinder 881 fixedly connected to the installation box 81, one end of the conveying cylinder 881 is connected to the bottom of the cleaning agent box 7, and the other end is adjacent to the first connecting rod 83 and is closed. A screw dragon 882 is rotatably arranged in the conveying cylinder 881, and the two sides of the end of the conveying cylinder 881 away from the cleaning agent box 7 are symmetrically connected with infusion tubes 883. The infusion tubes 883 are conical in structure, and the inner diameter of the end of the infusion tube 883 away from the conveying cylinder 881 is larger than the inner diameter of the end of the infusion tube 883 located in the conveying cylinder 881. The end of the infusion tube 883 away from the conveying cylinder 881 extends to the inner wall of one side of the guide body 1 outside the installation box 81, and the end of the infusion tube 883 located outside the installation box 81 is connected to the foaming nozzle 884.

[0048] Specifically, the foaming component 8 also includes a second connecting rod 85 rotatably arranged in the installation box 81, a bevel gear transmission assembly 86 is arranged at one end of the second connecting rod 85, and a gear transmission assembly 87 is arranged at the other end of the second connecting rod 85. The second connecting rod 85 is connected to the first connecting rod 83 through the bevel gear transmission assembly 86, and the second connecting rod 85 is connected to the end of the auger 882 away from the cleaning agent box 7 through the gear transmission assembly 87. The first connecting rod 83 drives the auger 882 to rotate through the bevel gear transmission assembly 86 and the gear transmission assembly 87.

[0049] Combined with the structural introduction of the second shunt channel described above, it can be seen that the wind through the second shunt channel blows toward the driving fan 84. Since the driving fan 84 does not need a relatively strong wind, it can drive the driving fan 84 to rotate. Therefore, the structure of the shunt plate 63 and the bellows 61 is combined to compensate for the wind force so that the wind in the second shunt channel can drive the driving fan 84 to rotate, and then the driving fan 84 rotates to drive the first connecting rod 83 to rotate. The first connecting rod 83 converts the longitudinal rotation into the lateral rotation through the transmission of the bevel gear transmission assembly 86 and the second connecting rod 85, so that the auger 882 rotates in the conveying cylinder 881, thereby the cleaning agent box 7 is The cleaning agent is pressed into the infusion tube 883, and through the setting of the auger 882, because the auger 882 is in a rotating state, the cleaning agent can be further mixed during the transportation process and finally enter the infusion tube 883. The infusion tube 883 is set in an inverted cone structure, which can reduce the pressure of the cleaning agent that finally enters the foaming nozzle 884, which is conducive to the foaming effect of the foaming nozzle 884. The setting of the foaming nozzle 884 can make the cleaning agent fill the inner walls on both sides of the guide rail body 1 in the form of foaming, and finally spread to the bottom of the guide rail body 1, so that the coating effect of the cleaning agent is more uniform, which is convenient for subsequent rolling brushing.

[0050] That is to say, the wind-driven driving fan 84 of the second flow distribution channel rotates, and the auger 882 is driven to rotate through the first connecting rod 83, the bevel gear transmission assembly 86 and the gear transmission assembly 87, so that the cleaning agent is pressed from the cleaning agent box 7 into the inverted cone infusion tube 883, and sprayed out through the foaming nozzle 884 in atomized form. This mechanical linkage does not require an additional power source, and uses wind-driven driving to achieve continuous delivery and foaming of the cleaning agent. After the foaming agent evenly covers the inner wall of the guide rail, it further penetrates the oily gaps through the rolling brush device, significantly improving the utilization rate of the cleaning agent and the decontamination effect.

[0051] In summary, a roller brush, a wiping device and a drying device are sequentially arranged behind the injection assembly 6 to form a continuous process of "cleaning-brushing-wiping-drying". The roller brush device uses a foaming agent to soften the oil stains and then physically brushes them. The wiping device removes the residual liquid film. Finally, the drying device completely eliminates the water stains. This integrated design avoids manual intervention and ensures that the guide rail body 1 completes deep cleaning and drying at one time to meet the high cleanliness requirements of the precision linear guide. Through the synergistic effect of the diversion optimization of the bellows 61, the multi-directional flushing of the rotating cleaning assembly 64, the bottom reinforcement of the wind collecting hood 66, the automatic foaming of the foaming assembly 8 and the integrated post-processing process, the equipment realizes the comprehensive cleaning of the inner wall and dead corners of the guide rail body 1, while taking into account the energy utilization efficiency and the degree of automation, thereby effectively solving the problem that when the existing jet force is used to clean the guide rail, in order to overcome the problems of incomplete cleaning on both sides and difficult removal of oil stains, a special cleaning agent needs to be used to enhance the cleaning effect.

[0052] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and descriptions are only preferred examples of the present invention and are not intended to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A fully automatic cleaning and drying device for a precision linear guide rail, comprising a guide rail body (1) and a mounting seat (2) slidably arranged on the guide rail body (1), a spray cleaning device (3) being arranged in the mounting seat (2), and a connecting pipe (4) being connected to the spray cleaning device (3), characterized in that: The connecting pipe (4) is provided with an injection assembly (6); Wherein, the spray assembly (6) comprises a bellows (61) having a conical structure, and a rotating cleaning assembly (64) is arranged inside the bellows (61); A foaming assembly (8) is arranged at the bottom of the bellows (61) and is driven by wind flow in the bellows (61) to spray foaming cleaning agent. The foaming assembly (8) comprises a driving fan (84) arranged at the bottom of the bellows (61) and symmetrically rotatably arranged on both sides of the installation box (81). The top of the driving fan (84) is exposed inside the bottom of the bellows (61). The driving fans (84) are connected to each other via a first connecting rod (83) arranged in the installation box (81). A conveying assembly (88) is arranged on the first connecting rod (83). One end of the conveying assembly (88) is connected to a cleaning agent box (7) arranged at the bottom of the bellows (61), and the other end is symmetrically connected to foaming nozzles (884) on both sides of the inner wall of the guide rail body (1).

2. The fully automatic cleaning and drying equipment for precision linear guides according to claim 1 is characterized in that: One end of the bellows (61) is connected to the connecting pipe (4) via a connecting seat (5), and the other end of the bellows (61) is provided with an air gathering port (62), and a rotating cleaning assembly (64) is arranged in the air gathering port (62); the bottom of the bellows (61) is a horizontal structure, and the bottom of the bellows (61) is symmetrically provided with diverter plates (63) located on both sides of the air gathering port (62); the bellows (61) diverts the air of the bellows (61) into a first diverter channel located in the middle part and second diverter channels located on both sides of the first diverter channel via the diverter plates (63), and the first diverter channel is arranged directly opposite the air gathering port (62).

3. The fully automatic cleaning and drying equipment for precision linear guides according to claim 1 is characterized in that: The rotating cleaning component (64) includes a spray pipe (645) that rotates and sprays toward the inner wall of the guide rail body (1). The rotating cleaning component (64) includes a bracket (641) fixedly mounted on the bellows (61). A rotating rod (642) is rotatably connected to the bracket (641). The rotating rod (642) is concentric with the air gathering port (62). A vortex fan (643) is fixedly connected to the portion of the rotating rod (642) located inside the air gathering port (62). A rotating ring (644) is fixedly connected to the end of the rotating rod (642) located away from the connecting seat (5) at the air gathering port (62). The rotating ring (644) is adapted to the air gathering port (62). A plurality of spray pipes (645) are evenly arranged on the rotating rod (642) around its center.

4. The fully automatic cleaning and drying equipment for precision linear guides according to claim 3 is characterized by: One end of the rotating rod (642) located in the air gathering port (62) is a conical structure.

5. The fully automatic cleaning and drying equipment for precision linear guide rails according to claim 3 is characterized by: One end of the injection pipe (645) passes through the rotating ring (644) and is connected to the air gathering port (62); the other end of the injection pipe (645) is in an L-shaped structure facing the radial direction of the rotating ring (644), and the end of the injection pipe (645) blows in a direction of the rotating ring (644) away from its center in the radial direction.

6. The fully automatic cleaning and drying equipment for precision linear guide rails according to claim 5 is characterized in that: A circular flow opening is provided at the center of the rotating ring (644); a mounting tube (65) adapted to the flow opening is fixedly connected to the bracket (641); one side of the rotating ring (644) is rotatably connected to the end of the air collecting port (62) and is sealed; the other end of the mounting tube (65) is rotatably connected to one end of the mounting tube (65) and is sealed; the other end of the mounting tube (65) is fixedly connected to an air collecting cover (66); one end of the air collecting cover (66) is connected to the mounting tube (65), and the other end is arranged obliquely toward the bottom of the guide rail body (1).

7. The fully automatic cleaning and drying equipment for precision linear guide rails according to claim 6 is characterized in that: The wind collecting cover (66) has a conical structure, and the inner diameter of one end of the wind collecting cover (66) away from the mounting tube (65) is smaller than the inner diameter of the other end connected to the mounting tube (65).

8. The fully automatic cleaning and drying equipment for precision linear guide rails according to claim 2 is characterized in that: The bottom of the bellows (61) is provided with a first notch (67) at the position of the second flow diversion channel, the installation box (81) is provided with a corresponding second notch (82) below the first notch (67), and the top of the driving fan (84) passes through the second notch (82) and the first notch (67).

9. The fully automatic cleaning and drying equipment for precision linear guide rails according to claim 8, characterized in that: The delivery assembly (88) comprises a delivery cylinder (881) fixedly connected to the installation box (81); one end of the delivery cylinder (881) is connected to the bottom of the cleaning agent box (7); the other end is adjacent to the first connecting rod (83) and is closed; a screwdriver (882) is rotatably arranged in the delivery cylinder (881); two sides of one end of the delivery cylinder (881) away from the cleaning agent box (7) are symmetrically connected to infusion tubes (883); the infusion tubes (883) are conical in structure; the inner diameter of one end of the infusion tube (883) away from the delivery cylinder (881) is larger than the inner diameter of one end of the infusion tube (883) located in the delivery cylinder (881); the end of the infusion tube (883) away from the delivery cylinder (881) extends to the outside of the installation box (81) and faces the inner wall of one side of the guide rail body (1); and the end of the infusion tube (883) located outside the installation box (81) is connected to the foaming nozzle (884).

10. The fully automatic cleaning and drying equipment for precision linear guide rails according to claim 9, characterized in that: The foaming component (8) further comprises a second connecting rod (85) rotatably arranged in the mounting box (81); a bevel gear transmission component (86) is arranged at one end of the second connecting rod (85); a gear transmission component (87) is arranged at the other end of the second connecting rod (85); the second connecting rod (85) is connected to the first connecting rod (83) via the bevel gear transmission component (86); the second connecting rod (85) is connected to an end of the auger (882) away from the cleaning agent box (7) via the gear transmission component (87); the first connecting rod (83) drives the auger (882) to rotate via the bevel gear transmission component (86) and the gear transmission component (87).

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