A carbon fiber bicycle wheel hub automatic grinding device and use method thereof

Abstract

The present invention discloses an automatic grinding device for a carbon fiber bicycle hub and a method for using the same, and belongs to the field of automatic grinding of hubs. The device includes an operating table with a mounting plane thereon; a dust collecting component detachably mounted on the mounting plane, and includes a dust collecting box detachably mounted on the mounting plane. The automatic grinding device for a carbon fiber bicycle hub and a method for using the same, through the arranged positioning rotating component, after the staff puts the carbon fiber bicycle hub on the rotating disk, can support the hub through multiple sets of inner panels, open the clamping cylinder, so that the clamping cylinder can push the clamping block to perform a circumferential clamping and positioning operation on the inner arc surface of the carbon fiber bicycle hub, and the arranged inner panels can support the carbon fiber bicycle hub on the one hand, and can also perform a falling operation of the debris during the support process on the other hand.

Description

Technical Field

[0001] The invention belongs to the field of automatic wheel hub grinding, and in particular relates to an automatic grinding device for a carbon fiber bicycle wheel hub and a use method thereof. Background Art

[0002] A carbon fiber bicycle hub is a component installed on a frame or wheel to support the tire and bear the load. The hub is usually composed of a hub frame, spokes and a hub. The hub frame is used to install the tire and cooperate with the brake caliper to control the speed of the bicycle. The main function of the spokes is to connect the hub frame and the hub. At the same time, the tightness of the spokes will also affect the stability of the bicycle to a certain extent. The function of the hub is to install the hub and spokes on the frame. After the production of the carbon fiber bicycle hub is completed, the surface of the carbon fiber bicycle hub needs to be ground so that the produced hub meets the production standards. How to quickly grind the carbon fiber bicycle hub and deal with the debris during the grinding process has become a technical problem that needs to be solved urgently.

[0003] The present invention seeks to alleviate or at least mitigate such problems or deficiencies by providing a new or otherwise improved automated wheel hub grinding. Summary of the invention

[0004] In view of one or more of the above defects or improvement needs in the prior art, the present invention provides an automatic grinding device for a carbon fiber bicycle hub and a method for using the same, which has the advantages of being easy to quickly grind a carbon fiber bicycle hub and easy to handle the debris generated by grinding.

[0005] To achieve the above-mentioned object, the present invention provides an automatic grinding device for a carbon fiber bicycle wheel hub, which includes an operating table having a mounting plane thereon;

[0006] A dust collecting component is detachably mounted on the mounting plane, and includes a dust collecting box, which is detachably mounted on the mounting plane. The dust collecting box is provided with two groups of lining plates and one group of partition plates from top to bottom. An inclined plate is detachably mounted on the two groups of lining plates, and the inclined plate is connected to the dust collecting box. A material discharge notch is formed between the two groups of lining plates. A breathable mesh plate is detachably arranged on the top of the dust collecting box, and a disc hole is provided on the breathable mesh plate.

[0007] A positioning and rotating member for positioning and rotating the carbon fiber bicycle wheel hub, which is detachably installed in the vacuum cleaner case, and the positioning and rotating member can block the disc hole;

[0008] A knocking member, which is detachably mounted on the vacuum cleaner case, is respectively connected to the air-permeable mesh plate and the vacuum cleaner case, and is connected to the positioning rotating member, and can be triggered when the positioning rotating member moves, and can knock the vacuum cleaner case and the air-permeable mesh plate when the positioning rotating member is triggered;

[0009] A bearing member for bearing the grinding debris of the carbon fiber bicycle wheel hub, which is detachably arranged on the partition plate, and the bearing member is flush with the highest point of the lining plate at the initial position, and the bearing member can block the material discharge gap, and after the grinding debris of the carbon fiber bicycle wheel hub on the bearing member is accumulated, the bearing member can be driven to descend along the material discharge gap;

[0010] A linkage blocking member for blocking the bearing member, which is detachably installed in the vacuum cleaner case, and which conflicts with the bearing member in an initial position, and can be triggered when the bearing member descends;

[0011] A transposition blowing component, which is detachably installed in the vacuum cleaner case, has three groups of spoilers therein, and the power of the three groups of spoilers is enhanced in sequence. In an initial state, the first group of spoilers is aligned with the bottom of the bearing member, the transposition blowing component and the linkage blocking component are in contact with each other and can be triggered when the linkage blocking component moves for the first time, so that the second group of spoilers is transformed to the position of the first group of spoilers, and when the linkage blocking component moves for the second time, the third group of spoilers is transformed to the position of the second group of spoilers;

[0012] A two-axis adjustment component is detachably mounted on the mounting plane and is capable of surrounding the dust collecting component;

[0013] The invention discloses a grinding component for grinding a carbon fiber bicycle wheel hub, which is detachably mounted on the two-axis adjusting component.

[0014] As a further improvement of the present invention, the positioning and rotating member includes a first mounting base plate, which is detachably mounted in the vacuum cleaner housing;

[0015] a second mounting substrate, which is detachably mounted on the first mounting substrate;

[0016] A first driving motor is detachably arranged on the first mounting substrate, and an output end of the first driving motor can pass through the first mounting substrate. A driving wheel is detachably mounted on the output end of the first driving motor, and a connecting belt is removably wound around the driving wheel;

[0017] A worm reducer is detachably mounted on the second mounting base plate, and a driven wheel is detachably arranged on an output end of the worm reducer, and the driven wheel can be bypassed by the connecting belt;

[0018] A rotating disk is detachably mounted on the other output end of the turbine reducer, and the rotating disk can block the disk hole. A plurality of sets of inner panels are detachably mounted in the rotating disk, and a blanking notch is formed between every two sets of inner panels.

[0019] A plurality of groups of clamping cylinders can be detachably mounted on the rotating disk, and the plurality of groups of clamping cylinders are distributed in an array about the center of a cross-sectional circle of the rotating disk. A sleeve ring can be detachably mounted on each group of the clamping cylinders, and the sleeve ring is detachably connected to the rotating disk. A clamping block can also be detachably mounted on the output end of each group of the clamping cylinders.

[0020] As a further improvement of the present invention, the knocking component includes a first connecting frame, which is detachably mounted on the air-permeable mesh plate, a first knocking rod is slidably arranged in the first connecting frame, and a first limit block is integrally formed on the first knocking rod;

[0021] A first knocking machine frame is detachably mounted on a tail end of the first knocking rod, and a first knocking wheel is rotatably arranged in the first knocking machine frame;

[0022] A second knocking machine frame is detachably mounted on the other end of the first knocking rod, and a second knocking wheel is rotatably arranged in the second knocking machine frame;

[0023] A first spring, which is removably disposed on the first knocking rod;

[0024] A guide rod is detachably mounted in the driven wheel, and a cam is detachably mounted on the guide rod, wherein an arc segment of the cam and the first striking wheel are in conflict with each other;

[0025] An extension rod detachably mounted on the first striking machine frame;

[0026] The second connecting frame is detachably mounted on the vacuum cleaner case, and a second knocking rod is slidably arranged inside the frame, a second limiting block is detachably mounted on the second knocking rod, a wedge block is detachably arranged on one tail end of the second knocking rod, a slope is provided on the wedge block, and in an initial state, the lowest point of the slope contacts with the extension rod, a baffle is also detachably mounted on the wedge block, a pushing block is detachably mounted on the other tail end of the second knocking rod, and a second spring is also removably mounted on the second knocking rod.

[0027] As a further improvement of the present invention, the first connecting machine frame is H-shaped, and has a first light plate on the first connecting machine frame. In the initial state, the first limit block and the first light plate of the first connecting machine frame are in conflict with each other, the first spring is located below the first light plate and the first spring is located above the first knocking machine frame, and the second connecting machine frame is H-shaped, and has a second light plate on the second connecting machine frame. In the initial state, the second limit block and the second light plate are in conflict with each other, the second spring is located above the second light plate and the second spring is located below the first knocking machine frame.

[0028] As a further improvement of the present invention, the bearing member includes a lower sleeve, which is detachably mounted on the partition plate, and the lower sleeve can pass through the partition plate, and a lower isolation net is provided at the lower end outlet of the lower sleeve;

[0029] A bearing plate, on which an upper sleeve is detachably mounted, and the upper sleeve can pass through the bearing plate, an upper isolation net is provided at the upper end entrance of the upper sleeve, the upper sleeve can pass into the lower sleeve, a buffer rod is also detachably mounted on the bearing plate, and the buffer rod can pass through the partition plate, and a third spring is removably sleeved on the buffer rod;

[0030] The bottom rod is detachably mounted on one end of the buffer rod passing through the partition plate, and a resisting wheel is rotatably arranged on the bottom rod.

[0031] As a further improvement of the present invention, the linkage blocking member includes a blocking base, which is detachably mounted on the vacuum cleaner housing, on which a blocking rod is slidably arranged, and a blocking block is detachably mounted on one end of the blocking rod;

[0032] a blocking plate, which is detachably mounted on the other end of the blocking rod, and the blocking plate has a transition surface, a first step surface and a second step surface from top to bottom, the transition surface, the first step surface and the second step surface are distributed in a stepped shape, the first step surface is located on the right side of the third spring, the second step surface is located on the right side of the first step surface, and in an initial state, the transition surface and the abutment wheel abut against each other;

[0033] a fourth spring, which is slidably mounted on the blocking rod and is located between the blocking base and the blocking plate, and in an initial state, the fourth spring is in a compressed state;

[0034] The tooth plate is detachably mounted on the blocking plate and is at the same height as the second step surface.

[0035] As a further improvement of the present invention, a first resistance gasket is detachably installed on the transition surface, and the size of the first resistance gasket is matched with the size of the transition surface; a second resistance gasket is detachably installed on the first step surface, and the size of the second resistance gasket is matched with the size of the first step surface; a third resistance gasket is provided on the second step surface, and the size of the third resistance gasket is matched with the size of the second step surface.

[0036] As a further improvement of the present invention, the transposition air blowing component includes a first chassis, which is detachably mounted in the vacuum cleaner case, on which a first rotating shaft is rotatably arranged, and on which a first driving wheel is detachably arranged, and the first driving wheel and the toothed plate are meshed with each other;

[0037] A second driving wheel is detachably mounted on the first rotating shaft and is located above the first driving wheel. A tightening belt is removably sleeved on the second driving wheel.

[0038] A second chassis is detachably mounted in the vacuum cleaner case, a second rotating shaft is rotatably arranged on the chassis, a third driving wheel is detachably mounted on the second rotating shaft, and the third driving wheel can be passed around by the tightening belt, a driving disc is detachably mounted on the second rotating shaft, a swing arm is detachably mounted on the driving disc, and a lever is detachably arranged on the swing arm;

[0039] A third bottom plate is detachably mounted in the vacuum cleaner case, on which a plug rod is detachably arranged, on which a top plate is detachably mounted, and the second rotating shaft can pass through the top plate;

[0040] A transposition wheel is rotatably arranged on the top plate, and the transposition wheel is provided with four groups of arc grooves along its outer circumference, and the arc grooves are in close contact with the outer circumference of the driving plate, and the transposition wheel is provided with four groups of toggle grooves, and the size of the toggle grooves is adapted to the toggle rod;

[0041] A base plate, which is detachably mounted on the transposition wheel;

[0042] The spoiler includes a second drive motor which is detachably mounted on the base plate, and a fan blade is detachably mounted on the output end of the second drive motor; the fan blade is located below the lower sleeve, and there is a predetermined gap between the fan blade and the bottom of the lower sleeve.

[0043] As a further improvement of the present invention, the two-axis adjustment component includes a first adjustment base, which is detachably mounted on the mounting plane, and a slide rail is detachably mounted on the first adjustment base;

[0044] A second adjustment base is detachably arranged on the installation plane, a first installation frame is detachably arranged on the second adjustment base, a third drive motor is detachably mounted on one end of the first installation frame, an output end of the third drive motor can pass through the first installation frame, and a first screw rod is detachably arranged on the output end of the third drive motor;

[0045] A first ball bearing base is slidably arranged in the first mounting frame and can be penetrated by the first screw rod;

[0046] A second mounting frame is detachably mounted on the first ball bearing base, a slider capable of sliding on a slide rail is detachably arranged at the bottom of the second mounting frame, a fourth drive motor is detachably mounted on the second mounting frame, and an output end of the fourth drive motor can be inserted into the second mounting frame, and a second screw rod is detachably arranged on the output end of the fourth drive motor;

[0047] A second ball bearing base is slidably arranged on the second mounting frame and can be penetrated by the second screw rod;

[0048] The grinding component includes a bonding plate, a bonding block is detachably mounted on the bottom of the bonding plate, and the bonding block is detachably connected to the second ball bearing base, a first slide cylinder is detachably mounted on the bonding plate, a second slide cylinder is detachably mounted on the output end of the first slide cylinder, and a connecting plate is detachably mounted on the output end of the second slide cylinder;

[0049] a fifth driving motor, which is detachably mounted on the connecting plate and can pass through the connecting plate, and a grinding wheel is detachably mounted on the output end of the fifth driving motor;

[0050] The lower material barrel is detachably mounted on the bottom of the connecting plate and can cover the grinding wheel. The inner circumference of the lower material barrel is also provided with a concave surface.

[0051] As a further improvement of the present invention, the method for using the automatic grinding device for carbon fiber bicycle hub is characterized in that:

[0052] S1. Loading and positioning and rotating the carbon fiber bicycle hub: loading the carbon fiber bicycle hub into the positioning and rotating component, and after the positioning and rotating component is turned on, the carbon fiber bicycle hub can be positioned and rotated;

[0053] S2. Positioning the entire grinding component: opening the two-axis adjustment component to adjust the grinding component in four directions: front, back, left, and right;

[0054] S3, grinding operation on the carbon fiber bicycle wheel hub: after the grinding component is turned on, the grinding wheel in the grinding component can be transported to the top of the carbon fiber bicycle wheel hub and fit with the carbon fiber bicycle wheel hub, and after the fifth driving motor is turned on, the carbon fiber bicycle wheel hub can be ground;

[0055] S4, performing an adsorption operation on the debris from grinding the carbon fiber bicycle hub: opening the first set of spoilers so that the spoilers introduce the airflow into the dust suction component through the bearing component, forming a negative pressure in the dust suction component, and adsorbing the debris on the air permeable mesh plate and falling from the positioning rotating component through the pressure difference;

[0056] S5. Triggering operation of the bearing member: when the gravity value of the debris on the bearing member reaches the first predetermined value, the bearing plate can be driven to move downward as a whole, and the linkage blocking member can be triggered to move rightward for the first time and the bearing member can be blocked for the second time at the same time. After the linkage blocking member moves rightward for the first time, the transposition blowing member can be triggered to trigger. When the transposition blowing member is triggered for the first time, the second group of spoilers can be quickly changed to the position of the first group of spoilers to enhance the negative pressure effect in the bearing member and the dust suction member, so as to increase the adsorption of the debris on the bearing member. After the debris on the bearing member rises from the first predetermined value to the second predetermined value, the bearing plate can be driven to move downward again as a whole, and the linkage blocking member can be triggered to move rightward for the second time and the bearing member can be blocked for the third time at the same time. After the linkage blocking member moves rightward for the second time, the transposition blowing member can be triggered to be triggered. When the transposition blowing member is triggered for the second time, the third group of spoilers can be quickly changed to the position of the second group of spoilers, so as to enhance the negative pressure effect in the bearing member and the dust suction member again, so as to increase the adsorption operation of the debris on the bearing member again.

[0057] S6. Knocking operation on the vacuum cleaner case and the breathable mesh plate: after the positioning rotating component is turned on, the knocking component can be triggered to operate in conjunction. First, the breathable mesh plate is knocked so that the debris falling into the mesh holes of the breathable mesh plate can fall into the vacuum cleaner component to prevent blockage in the mesh holes of the breathable mesh plate. While knocking the breathable mesh plate, the vacuum cleaner case can be knocked at the same time so that the debris on the side wall of the vacuum cleaner case can fall off in time.

[0058] In general, compared with the prior art, the above technical solution conceived by the present invention has the following beneficial effects:

[0059] 1. The automatic grinding device for a carbon fiber bicycle hub and the method for using the same of the present invention, through the arranged positioning rotating components, after the staff puts the carbon fiber bicycle hub on the rotating disk, they can support the operation through multiple sets of inner embedded plates, turn on the clamping cylinder, so that the clamping cylinder can push the clamping block to perform a circumferential clamping and positioning operation on the inner arc surface of the carbon fiber bicycle hub, so that the upper end of the carbon fiber bicycle hub is exposed, and after turning on the first driving motor, the driving wheel can be driven to rotate, and the turbine reducer and the rotating disk can be driven to rotate at the same time, so as to change the position of the carbon fiber bicycle hub during grinding, and the arranged inner embedded plates can support the carbon fiber bicycle hub on the one hand, and on the other hand, the slag can be dropped during the support process;

[0060] 2. The automatic grinding device for carbon fiber bicycle hub and the use method thereof of the present invention, through the arranged knocking component, when the staff turns on the first drive motor, it can synchronously drive the linkage of the knocking component and synchronously drive the guide rod to rotate. After the guide rod rotates, when the raised section of the cam touches the first knocking wheel, it can drive the first knocking wheel to push up, and at the same time, the second knocking wheel touches the inner bottom surface of the breathable mesh plate, and the first spring is compressed, which can effectively prevent the mesh holes of the breathable mesh plate from being blocked, and can avoid the spoiler from adsorbing the debris in the mesh holes of the breathable mesh plate due to the blockage in the mesh holes of the breathable mesh plate. After the debris in the mesh holes of the breathable mesh plate is blocked, the adsorption area of ​​the breathable mesh plate will be reduced, and the debris will stay on the breathable mesh plate and cannot be adsorbed. At the same time, it can synchronously drive the extension rod to move upward. When the extension rod moves upward, the extension rod can also move upward on the inclined surface of the wedge-shaped block, so that the pushing block moves right, so that the pushing block can knock the side wall of the dust collector case, so that the debris on the side wall of the dust collector case can quickly flow into the bearing component through the inclined plate, which can avoid the accumulation of debris on the side wall of the dust collector case. When the arc segment of the cam contacts the first knocking wheel, the first knocking wheel can move downward and return to its initial position under the action of the rebound force of the first spring. In addition, under the action of the rebound force of the second spring, the pushing block returns to its initial position, and periodically knocks the air permeable mesh plate and the side wall of the dust collector case in turn. In addition, the baffle plate can prevent the extension rod from falling off the inclined surface of the wedge-shaped block, making it impossible to drive the pushing block to knock.

[0061] 3. The automatic grinding device for carbon fiber bicycle wheel hub of the present invention and the method for using the same can drive the entire bearing plate to move downward when the gravity value of the debris on the bearing plate reaches a first predetermined value through the arranged bearing member. At the same time, the downward movement of the buffer rod can drive the resistance wheel to move downward. In addition, the third spring is compressed, and the linkage blocking member is triggered to move rightward for the first time and the resistance wheel can be blocked for the second time. After the linkage blocking member moves rightward for the first time, the transposition blowing member can be triggered to be triggered. When the transposition blowing member is triggered for the first time, the second set of spoilers can be quickly changed to The first group of spoilers are positioned to enhance the negative pressure effect in the bearing member and the dust suction member, so as to increase the suction operation of the debris on the bearing member. When the debris on the bearing plate rises from the first predetermined value to the second predetermined value, the bearing plate can be driven to move downward again as a whole, and the resistance wheel continues to move downward. In addition, the third spring is compressed for the second time, and the resistance wheel touches the bottom of the dust suction box and no longer moves. At the same time, the linkage blocking member is triggered to move rightward for the second time and the bearing member can be blocked for the third time. After the linkage blocking member moves rightward for the second time, the transposition blowing member can be triggered;

[0062] 4. The automatic grinding device for carbon fiber bicycle hub and the method of using the same of the present invention are arranged such that the fourth spring is initially in a compressed state through the arranged linkage blocking member. When the transition surface contacts the abutting wheel, the tooth plate is stationary. After the abutting wheel moves downward for the first time, it is equivalent to making the abutting wheel detach from the transition surface. When the abutting wheel detaches from the transition surface and the abutting wheel comes into contact with the first step surface, the blocking plate is equivalent to being unlocked. At this time, the fourth spring pushes the blocking plate to move rightward, thereby driving the tooth plate to move rightward for a certain distance to trigger the abutting wheel to move rightward for a certain distance. The transposition operation of the transposition blowing member is to convert the second group of spoilers to the first group of spoilers. In addition, after the conflict wheel moves down for the second time, it is equivalent to causing the conflict wheel to disengage from the first step surface. When the conflict wheel disengages from the first step surface and comes to fit with the second step surface, the blocking plate is equivalent to being unlocked. At this time, the fourth spring pushes the blocking plate to continue to move right, so as to drive the toothed plate to move right again by one end distance, so as to trigger the transposition operation of the transposition blowing member, so as to convert the third group of spoilers to the second group of spoilers.

[0063] 5. The automatic grinding device for a carbon fiber bicycle wheel hub of the present invention and the method for using the same increase the friction between the contact wheel and the transition surface, the first step surface and the second step surface respectively by laying out the first resistance pad, the second resistance pad and the third resistance pad. On the one hand, the stability of the contact between the contact wheel and the transition surface, the first step surface and the second step surface can be enhanced. On the other hand, the falling time of the contact wheel can be delayed, so that the bearing plate can fall for the first time and the second time after receiving more debris. The action time of the first spoiler, the second spoiler and the third spoiler can be increased, so as to extend the action time of the first spoiler, the second spoiler and the third spoiler respectively, so as to improve the adsorption effect of the debris on the breathable mesh plate and the positioning rotating member;

[0064] 6. The automatic grinding device for carbon fiber bicycle hub and the method for using the same can drive the first driving wheel to rotate when the tooth plate moves right for the first time through the arranged transposition blowing member, and at the same time drive the second driving wheel to rotate to drive the third driving wheel to rotate, so as to drive the driving plate to rotate. After the driving plate rotates, the lever can swing, and when the lever penetrates into the shifting groove, the transposition wheel can be rotated for a distance, so that the second group of spoilers rotates to the vicinity of the first group of spoilers, so as to enhance the load-bearing member and The negative pressure effect in the dust suction component can increase the suction operation of the debris on the load-bearing component, which can effectively prevent a large amount of debris from accumulating on the load-bearing component, thereby reducing the suction effect of the first group of spoilers and the suction effect of the debris. Similarly, when the tooth plate moves right for the second time, the shifting lever can be driven again to shift the shifting wheel, so that the third group of spoilers can be rotated and shifted to the vicinity of the second group of spoilers, so as to further enhance the negative pressure effect in the load-bearing component and the dust suction component, so as to increase the suction effect of the debris on the load-bearing component.

[0065] 7. The automatic grinding equipment for carbon fiber bicycle hubs and the method of using the same of the present invention can further enhance the adsorption and debris removal operation of the transposition blowing component through the combined effect of the knocking component and the transposition blowing component. When the debris in the mesh of the air-permeable mesh is clogged, the adsorption area of ​​the air-permeable mesh will be reduced, and the debris will remain on the air-permeable mesh and cannot be adsorbed. The knocking component can, on the one hand, knock and remove the debris in the mesh of the air-permeable mesh, thereby avoiding the intensity of manual cleaning of the debris in the mesh of the air-permeable mesh and the intensity of manual cleaning of the debris on the inner wall of the vacuum cleaner. On the other hand, the adsorption area of ​​the air-permeable mesh can be restored. This gain effect can further enhance the overall adsorption of the debris on the air-permeable mesh by the transposition blowing component. BRIEF DESCRIPTION OF THE DRAWINGS

[0066] Figure 1It is a schematic diagram of the overall structure of the automatic grinding device for carbon fiber bicycle hub of the present invention;

[0067] Figure 2 It is a structural schematic diagram of the automatic grinding device for carbon fiber bicycle wheel hub of the present invention viewed from another angle;

[0068] Figure 3 A top view of the automatic grinding device for carbon fiber bicycle hub of the present invention;

[0069] Figure 4 It is a schematic structural diagram of the combination of the two-axis adjustment component and the grinding component of the present invention;

[0070] Figure 5 It is a schematic diagram of the overall structure of the grinding component of the present invention;

[0071] Figure 6 It is a structural schematic diagram of the dust collecting component and the positioning rotating component of the present invention when they are combined;

[0072] Figure 7 This is a disassembled view of the dust collecting component and the positioning rotating component of the present invention when they are combined;

[0073] Figure 8 It is a structural schematic diagram of the combination of the positioning rotating component and the striking component of the present invention;

[0074] Fig. 9 It is a schematic structural diagram of the overall positioning rotating component of the present invention;

[0075] Fig.10 It is a schematic diagram of the overall structure of the striking component of the present invention;

[0076] Fig.11 It is a partial schematic diagram of the striking component of the present invention;

[0077] Fig.12 It is a structural schematic diagram of the load-bearing component and the linkage blocking component of the present invention when they are combined;

[0078] Fig.13 It is a structural schematic diagram of the combination of the linkage blocking component and the transposition blowing component of the present invention;

[0079] Fig.14 It is a structural schematic diagram of the present invention when the linkage blocking component and the transposition blowing component are combined from another angle;

[0080] Fig.15 It is a schematic diagram of the overall structure of the transposition blowing component of the present invention.

[0081] In all the drawings, the same reference numerals represent the same technical features, specifically: 1. operating table; 2. dust suction member; 21. dust suction box; 22. lining plate; 23. inclined plate; 24. partition plate; 25. breathable mesh plate; 3. positioning rotating member; 31. first mounting base plate; 32. second mounting base plate; 33. first driving motor; 34. driving wheel; 35. connecting belt; 36. turbine reducer; 37. driven wheel; 38. rotating disk; 39. embedded plate; 391. clamping cylinder; 392. collar; 393. clamping block; 4. knocking member; 41. first connecting frame; 42. first knocking rod ; 43, the first limit block; 44, the first knocking machine frame; 45, the first knocking wheel; 46, the second knocking machine frame; 47, the second knocking wheel; 48, the first spring; 49, the guide rod; 491, the cam; 492, the extension rod; 493, the second connecting machine frame; 494, the wedge block; 495, the baffle; 496, the second knocking rod; 497, the second limit block; 498, the second spring; 499, the push block; 5, the bearing member; 51, the lower sleeve; 52, the bearing plate; 53, the upper sleeve; 54, the buffer rod; 55, the third spring; 56, the bottom rod; 57, the contact wheel; 6, the linkage blocking member; 61, the blocking member Block base; 62, blocking rod; 63, blocking block; 64, blocking plate; 65, fourth spring; 66, transition surface; 67, first step surface; 68, second step surface; 69, tooth plate; 7, transposition blasting member; 71, first chassis; 72, first rotating shaft; 73, first driving wheel; 74, second driving wheel; 75, tightening belt; 76, second chassis; 761, second rotating shaft; 762, third driving wheel; 763, driving disk; 764, swing arm; 765, lever; 77, third chassis; 771, plug rod; 772, top disk; 773, transposition wheel; 78, base disk; 79, second driving motor; 791. Fan blades; 8. Two-axis adjustment component; 81. First adjustment base; 811. Slide rail; 82. Second adjustment base; 83. First mounting frame; 831. Third drive motor; 832. First screw rod; 833. First ball bearing base; 84. Second mounting frame; 841. Fourth drive motor; 842. Second screw rod; 843. Second ball bearing base; 844. Sliding block; 9. Grinding component; 91. Laminating plate; 92. Laminating block; 93. First slide cylinder; 94. Second slide cylinder; 95. Connecting plate; 96. Fifth drive motor; 97. Grinding wheel; 98. Unloading barrel; 99. Concave surface. DETAILED DESCRIPTION

[0082] 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.

[0083] The terms used herein are only for describing specific embodiments and are not intended to limit the present invention. The terms "comprise", "include", etc. used herein indicate the existence of the features, steps, operations and / or components, but do not exclude the existence or addition of one or more other features, steps, operations or components.

[0084] All terms (including technical and scientific terms) used herein have the meanings commonly understood by those skilled in the art, unless otherwise defined. It should be noted that the terms used herein should be interpreted as having a meaning consistent with the context of this specification, and should not be interpreted in an idealized or overly rigid manner.

[0085] In the embodiment, Figure 1-15A carbon fiber bicycle wheel hub automatic grinding device is provided, which includes an operating table 1, on which there is a mounting plane; a dust collecting component 2, which is detachably mounted on the mounting plane, and includes a dust collecting box 21, which is detachably mounted on the mounting plane, and the dust collecting box 21 is equipped with two groups of lining plates 22 and a group of partition plates 24 from top to bottom, and an inclined plate 23 is detachably mounted on the two groups of lining plates 22, and the inclined plate 23 is connected to the dust collecting box 21, and a material discharge gap is formed between the two groups of lining plates 22, and a breathable mesh plate 25 is detachably arranged on the top of the dust collecting box 21, and a disc hole is provided on the breathable mesh plate 25; for automatically grinding the carbon fiber A positioning rotating member 3 for positioning and rotating the wheel hub of a bicycle, which is detachably installed in the dust collecting box 21, and the positioning rotating member 3 can block the disc hole; a knocking member 4, which is detachably installed on the dust collecting box 21, and the knocking member 4 is respectively connected to the air permeable mesh plate 25 and the dust collecting box 21, and the knocking member 4 is connected to the positioning rotating member 3, and the knocking member 4 can be triggered when the positioning rotating member 3 moves, and when the positioning rotating member 3 is triggered, the dust collecting box 21 and the air permeable mesh plate 25 can be knocked; a bearing member 5 for bearing the grinding debris of the carbon fiber bicycle wheel hub, which is detachably arranged On the partition plate 24, the bearing member 5 is flush with the highest point of the lining plate 22 in the initial position, and the bearing member 5 can block the feeding gap. After the carbon fiber bicycle wheel hub grinding debris accumulates on the bearing member 5, the bearing member 5 can be driven to descend along the feeding gap; the linkage blocking member 6 for blocking the bearing member 5 is detachably installed in the dust collector box 21, and it conflicts with the bearing member 5 in the initial position, and it can be triggered when the bearing member 5 descends; the shifting blowing member 7 is detachably installed in the dust collector box 21, and has three groups of spoilers therein, and the power of the three groups of spoilers is The shapes are enhanced in sequence. In the initial state, the first group of spoilers are aligned with the bottom of the bearing member 5, the transposition blowing member 7 and the linkage blocking member 6 are in contact with each other and the transposition blowing member 7 can be triggered when the linkage blocking member 6 moves for the first time, so that the second group of spoilers are transformed to the position of the first group of spoilers, and the third group of spoilers can be transformed to the position of the second group of spoilers when the linkage blocking member 6 moves for the second time; a two-axis adjusting member 8, which is detachably mounted on the mounting plane and can surround the dust suction member 2; a grinding member 9 for grinding a carbon fiber bicycle hub, which is detachably mounted on the two-axis adjusting member 8.

[0086] The overall idea on which the present invention is based is that, through the arrangement of the positioning rotating member 3, after the staff puts the carbon fiber bicycle hub on the rotating disk 38, they can support it through multiple sets of inner panels 39, turn on the clamping cylinder 391, so that the clamping cylinder 391 can push the clamping block 393 to perform a circular clamping and positioning operation on the inner arc surface of the carbon fiber bicycle hub, so that the upper end of the carbon fiber bicycle hub is exposed, and after turning on the first driving motor 33, the driving wheel 34 can be driven to rotate, and the turbine reducer 36 and the rotating disk 38 can be driven to rotate at the same time to change the position of the carbon fiber bicycle hub during grinding. The arrangement of the inner panels 39 can support the carbon fiber bicycle hub on the one hand, and on the other hand On the other hand, the slag can be dropped during the supporting process. By means of the arranged knocking component 4, when the first driving motor 33 is turned on, the knocking component 4 can be synchronously driven to be linked, and the guide rod 49 can be synchronously driven to rotate. After the guide rod 49 rotates, when the raised section of the cam 491 touches the first knocking wheel 45, the first knocking wheel 45 can be driven to be pushed up, and at the same time, the second knocking wheel 47 touches the inner bottom surface of the breathable mesh plate 25. At the same time, the first spring 48 is compressed, which can effectively prevent the blockage in the mesh of the breathable mesh plate 25, and can avoid the adsorption of the debris in the mesh of the breathable mesh plate 25 by the spoiler due to the blockage in the mesh of the breathable mesh plate 25. When the debris inside is blocked, the adsorption area of ​​the air-permeable mesh plate 25 will be reduced, and the debris will stay on the air-permeable mesh plate 25 and cannot be adsorbed. While the air-permeable mesh plate 25 is knocked, the extension rod 492 can be synchronously driven to move upward. While the extension rod 492 is moving upward, the extension rod 492 can also move upward on the inclined surface of the wedge block 494, so that the push block 499 moves to the right, so that the push block 499 knocks the side wall of the vacuum cleaner case 21, so that the debris on the side wall of the vacuum cleaner case 21 quickly passes through the inclined plate 23 and flows into the bearing member 5, which can avoid the accumulation of debris on the side wall of the vacuum cleaner case 21. When the arc segment of the cam 491 contacts the first knocking wheel 45, it can The first knocking wheel 45 moves downward and returns to the initial position under the rebound force of the first spring 48. In addition, the push block 499 returns to the initial position under the rebound force of the second spring 498, and periodically knocks the breathable mesh plate 25 and the side wall of the vacuum cleaner box 21 in turn. In addition, the baffle plate 495 can prevent the extension rod 492 from falling off the inclined surface of the wedge block 494, making it impossible to drive the push block 499 to knock. Through the support member 5, when the gravity value of the debris on the support plate 52 reaches the first predetermined value, the support plate 52 can be driven to move downward as a whole. At the same time, the downward movement of the buffer rod 54 can drive the resistance wheel 57 to move downward. In addition, the third spring 55 is compressed.At the same time, the linkage blocking component 6 is triggered to perform the first rightward displacement operation and the resistance wheel 57 is blocked for the second time. After the linkage blocking component 6 is displaced to the right for the first time, the transposition blowing component 7 can be triggered. When the transposition blowing component 7 is triggered for the first time, the second group of spoilers can be quickly changed to the position of the first group of spoilers to enhance the negative pressure effect in the bearing component 5 and the dust suction component 2, so as to increase the adsorption operation of the debris on the bearing component 5. After the debris on the bearing plate 52 rises from the first predetermined value to the second predetermined value, the bearing plate 52 can be driven to move downward again as a whole, and the resistance wheel 57 continues to move downward. In addition, the third spring 55 is compressed for the second time. At this time, the resistance wheel 57 touches the bottom of the dust suction chassis. 21 no longer moves, and at the same time triggers the linkage blocking member 6 to perform a second rightward displacement operation and can block the bearing member 5 for the third time. After the linkage blocking member 6 is displaced to the right for the second time, the transposition blowing member 7 can be triggered. Through the arranged linkage blocking member 6, the fourth spring 65 is in a compressed state at the beginning. When the transition surface 66 contacts the contact wheel 57, the tooth plate 69 is stationary. After the contact wheel 57 moves down for the first time, it is equivalent to making the contact wheel 57 disengage from the transition surface 66. When the contact wheel 57 disengages from the transition surface 66 until the contact wheel 57 comes to fit with the first step surface 67, the blocking plate 64 is equivalent to being unlocked. At this time, the fourth spring 65 pushes the blocking plate 64 to move right , to drive the toothed plate 69 to move right for a certain distance, to trigger the transposition operation of the transposition blowing component 7, to convert the second group of spoilers to the first group of spoilers. In addition, after the contact wheel 57 moves down for the second time, it is equivalent to causing the contact wheel 57 to disengage from the first step surface 67. When the contact wheel 57 disengages from the first step surface 67 and the contact wheel 57 comes to fit with the second step surface 68, the blocking plate 64 is equivalent to being unlocked. At this time, the fourth spring 65 pushes the blocking plate 64 to continue to move right, to drive the toothed plate 69 to move right again by an end distance, to trigger the transposition operation of the transposition blowing component 7, to convert the third group of spoilers to the second group of spoilers, through the first resistance gasket and the second resistance gasket and The third resistance gasket is used to increase the friction between the contact wheel 57 and the transition surface 66, the first step surface 67 and the second step surface 68. On the one hand, it can enhance the stability of the contact between the contact wheel 57 and the transition surface 66, the first step surface 67 and the second step surface 68. On the other hand, it can delay the falling time of the contact wheel 57, so that the carrier plate 52 can fall for the first time and the second time after receiving more debris, and the action time of the first spoiler, the second spoiler and the third spoiler can be increased, so as to extend the action time of the first spoiler, the second spoiler and the third spoiler respectively, so as to improve the adsorption effect of the debris on the breathable mesh plate 25 and the positioning rotating component 3. By arranging the transposition blowing component 7,When the tooth plate 69 moves to the right for the first time, the first driving wheel 73 can be driven to rotate, and at the same time, the second driving wheel 74 can be driven to rotate to drive the third driving wheel 762 to rotate, so as to drive the driving plate 763 to rotate. After the driving plate 763 rotates, the lever 765 can be made to swing. When the lever 765 penetrates into the toggle groove, the shifting wheel 773 can be toggled to rotate a certain distance, so that the second set of spoilers can be rotated to the vicinity of the first set of spoilers, so as to enhance the negative pressure effect in the bearing member 5 and the dust suction member 2, so as to increase the adsorption operation of the debris on the bearing member 5, and effectively prevent the accumulation of a large amount of debris on the bearing member 5, resulting in the reduction of the adsorption effect of the first set of spoilers and the reduction of the adsorption effect of the debris. Similarly, when the tooth plate 69 moves to the right for the second time, the lever 765 can be driven again to toggle the shifting wheel 773, so that the third set of spoilers can be rotated to the shifting wheel 773. The knocking member 4 is positioned near the second group of spoilers to further enhance the negative pressure effect in the bearing member 5 and the dust suction member 2, so as to increase the adsorption effect on the debris on the bearing member 5. The combination of the knocking member 4 and the transposition blasting member 7 can further enhance the adsorption and debris removal operation of the transposition blasting member 7. When the debris in the mesh of the air-permeable mesh plate 25 is blocked, the adsorption area of ​​the air-permeable mesh plate 25 will be reduced, and the debris will remain on the air-permeable mesh plate 25 and cannot be adsorbed. The knocking member 4 can, on the one hand, knock and remove the debris in the mesh of the air-permeable mesh plate 25, thereby avoiding the intensity of manual cleaning of the debris in the mesh of the air-permeable mesh plate 25, and also avoiding the intensity of manual cleaning of the debris on the inner wall of the dust suction box 21. On the other hand, the adsorption area of ​​the air-permeable mesh plate 25 can be restored. This gain effect can further enhance the overall adsorption operation of the transposition blasting member 7 on the debris on the air-permeable mesh plate 25.

[0087] Next, a more specific structure and construction is given to the positioning rotating member 3 as a whole for further explanation. The positioning rotating member 3 includes a first mounting base plate 31, which is detachably mounted in the vacuum cleaner case 21; a second mounting base plate 32, which is detachably mounted on the first mounting base plate 31; a first driving motor 33, which is detachably arranged on the first mounting base plate 31, and its output end can pass through the first mounting base plate 31, and a driving wheel 34 is detachably mounted on the output end of the first driving motor 33, and a connecting belt 35 is removably wound around the driving wheel 34; a turbine reducer 36, which is detachably mounted on the second mounting base plate 32, and a detachable connecting belt 35 is removably wound around an output end of the turbine reducer 36. A driven wheel 37 is arranged, and the driven wheel 37 can be bypassed by the connecting belt 35; a rotating disk 38 is detachably mounted on the other output end of the turbine reducer 36, and the rotating disk 38 can block the disk hole. A plurality of groups of inner panels 39 are detachably mounted in the rotating disk 38, and a blanking notch is formed between every two inner panels 39; a plurality of groups of clamping cylinders 391 are detachably mounted on the rotating disk 38, and the plurality of groups of clamping cylinders 391 are arranged in an array with respect to the center of the cross-sectional circle of the rotating disk 38, and a sleeve ring 392 is detachably mounted on each group of clamping cylinders 391, and the sleeve ring 392 is detachably connected to the rotating disk 38, and a clamping block 393 is detachably mounted on the output end of each group of clamping cylinders 391;

[0088] Next, the overall use principle of the positioning rotating component 3 is further explained. After the staff puts the carbon fiber bicycle hub on the rotating disk 38, they can support it through multiple sets of embedded plates 39, and turn on the clamping cylinder 391 so that the clamping cylinder 391 can push the clamping block 393 to perform a circular clamping and positioning operation on the inner arc surface of the carbon fiber bicycle hub, so that the upper end of the carbon fiber bicycle hub is exposed. After turning on the first drive motor 33, the active wheel 34 can be driven to rotate, and the turbine reducer 36 and the rotating disk 38 can be driven to rotate at the same time to change the position of the carbon fiber bicycle hub during grinding. The arranged embedded plates 39 can support the carbon fiber bicycle hub on the one hand, and on the other hand, the slag can be dropped during the support process.

[0089] Next, the knocking component 4 as a whole is given a more specific structure and construction for further explanation. The knocking component 4 includes a first connecting frame 41, which is detachably mounted on the breathable mesh plate 25, a first knocking rod 42 is slidably arranged in the first connecting frame 41, and a first limit block 43 is integrally formed on the first knocking rod 42; a first knocking frame 44, which is detachably mounted on one end of the first knocking rod 42, and a first knocking wheel 45 is rotatably arranged in the first knocking frame 44; a second knocking frame 46, which is detachably mounted on the other end of the first knocking rod 42, and a second knocking wheel 47 is rotatably arranged in the second knocking frame 46; a first spring 48, which is removably arranged on the first knocking rod 42; a guide rod 49, which is detachably mounted in the driven wheel 37, and is detachably mounted on the driven wheel 37 A cam 491 is installed, and the arc segment of the cam 491 conflicts with the first knocking wheel 45; an extension rod 492 is detachably installed on the first knocking machine frame 44; a second connecting machine frame 493 is detachably installed on the vacuum cleaner case 21, and a second knocking rod 496 is slidably arranged therein, a second limit block 497 is detachably installed on the second knocking rod 496, a wedge block 494 is detachably arranged on one tail end of the second knocking rod 496, and the wedge block 494 has an inclined surface, and the lowest point of the inclined surface conflicts with the extension rod 492 in the initial state, and a baffle 495 is also detachably installed on the wedge block 494, a push block 499 is detachably installed on the other tail end of the second knocking rod 496, and a second spring 498 is also removably arranged on the second knocking rod 496;

[0090] Next, the overall use principle of the knocking component 4 is further explained. When the staff turns on the first drive motor 33, it can synchronously drive the linkage of the knocking component 4 and the guide rod 49 to rotate. After the guide rod 49 rotates, when the raised section of the cam 491 touches the first knocking wheel 45, it can drive the first knocking wheel 45 to push up, and at the same time, the second knocking wheel 47 touches the inner bottom surface of the air-permeable mesh plate 25. At the same time, the first spring 48 is compressed, which can effectively prevent the blockage in the mesh of the air-permeable mesh plate 25, and avoid the adsorption of debris in the mesh of the air-permeable mesh plate 25 by the spoiler due to the blockage in the mesh of the air-permeable mesh plate 25. After the debris in the mesh of the air-permeable mesh plate 25 is blocked, the adsorption area of ​​the air-permeable mesh plate 25 will be reduced, and the debris will stay on the air-permeable mesh plate 25 and cannot be adsorbed. While the air-permeable mesh plate 25 is knocked, the extension rod 492 can be synchronously driven. When the extension rod 492 moves upward, the extension rod 492 can also move upward on the inclined surface of the wedge block 494, so that the push block 499 moves right, so that the push block 499 knocks the side wall of the vacuum cleaner case 21, so that the debris on the side wall of the vacuum cleaner case 21 quickly passes through the inclined plate 23 and flows onto the bearing member 5, which can avoid the accumulation of debris on the side wall of the vacuum cleaner case 21. 45, the first knocking wheel 45 can move downward and return to the initial position under the action of the rebound force of the first spring 48. In addition, the pushing block 499 returns to the initial position under the action of the rebound force of the second spring 498, and periodically knocks the breathable mesh plate 25 and the side wall of the vacuum cleaner box 21 in turn. In addition, the baffle 495 can prevent the extension rod 492 from falling off the inclined surface of the wedge block 494, making it impossible to drive the pushing block 499 to knock.

[0091] In some embodiments, more specifically, in order to enable the first spring 48 to be quickly compressed and rebounded during the upward movement of the first knocking wheel 45, and at the same time, in order to enable the push block 499 to quickly compress the second spring 498 and rebound during the rightward movement, the first connecting machine frame 41 is shaped like an H, and has a first light plate on the first connecting machine frame 41. In the initial state, the first limit block 43 and the first light plate of the first connecting machine frame 41 are in conflict with each other, the first spring 48 is located below the first light plate and the first spring 48 is located above the first knocking machine frame 44. The second connecting machine frame 493 is shaped like an H, and has a second light plate on the second connecting machine frame 493. In the initial state, the second limit block 497 and the second light plate are in conflict with each other, the second spring 498 is located above the second light plate and the second spring 498 is located below the first knocking machine frame 44.

[0092] Next, a more specific structure and construction is given to the whole of the bearing member 5 for further explanation. The bearing member 5 includes a lower sleeve 51, which is detachably mounted on the partition plate 24, and the lower sleeve 51 can pass through the partition plate 24, and a lower isolation net is provided at the lower end outlet of the lower sleeve 51; a bearing plate 52, on which an upper sleeve 53 is detachably mounted, and the upper sleeve 53 can pass through the bearing plate 52, and an upper isolation net is provided at the upper end inlet of the upper sleeve 53, and the upper sleeve 53 can pass into the lower sleeve 51, and a buffer rod 54 is also detachably mounted on the bearing plate 52, and the buffer rod 54 can pass through the partition plate 24, and a third spring 55 is removably sleeved on the buffer rod 54; a bottom rod 56, which is detachably mounted on one end of the buffer rod 54 passing through the partition plate 24, and a resisting wheel 57 is rotatably arranged on the bottom rod 56;

[0093] Next, the overall use principle of the bearing member 5 is further explained. When the gravity value of the debris on the bearing plate 52 reaches a first predetermined value, the bearing plate 52 can be driven to move downward as a whole. At the same time, the downward movement of the buffer rod 54 can drive the resistance wheel 57 to move downward. In addition, the third spring 55 is compressed, and the linkage blocking member 6 is triggered to move rightward for the first time and the resistance wheel 57 can be blocked for the second time. After the linkage blocking member 6 moves rightward for the first time, the transposition blowing member 7 can be triggered to be triggered. When the transposition blowing member 7 is triggered for the first time, the second group of spoilers can be quickly converted to the first group of spoilers. Position to enhance the negative pressure effect in the bearing member 5 and the dust collecting member 2, so as to increase the adsorption operation of the debris on the bearing member 5. After the debris on the bearing plate 52 rises from the first predetermined value to the second predetermined value, the bearing plate 52 can be driven to move downward again as a whole, and the resistance wheel 57 continues to move downward. In addition, the third spring 55 is compressed for the second time. At this time, the resistance wheel 57 touches the bottom of the dust collecting box 21 and no longer moves. At the same time, the linkage blocking member 6 is triggered to move to the right for the second time and the bearing member 5 can be blocked for the third time. After the linkage blocking member 6 moves to the right for the second time, the repositioning blowing member 7 can be triggered.

[0094] Next, a more specific structure and construction of the linkage blocking member 6 is given as a whole for further explanation. The linkage blocking member 6 includes a blocking base 61, which is detachably mounted on the vacuum cleaner case 21, on which a blocking rod 62 is slidably arranged, and a blocking block 63 is detachably mounted on one end of the blocking rod 62; a blocking plate 64, which is detachably mounted on the other end of the blocking rod 62, and the blocking plate 64 has a transition surface 66, a first step surface 67 and a second step surface 68 from top to bottom, and the transition surface 66, The first step surface 67 and the second step surface 68 are distributed in a stepped shape, the first step surface 67 is located on the right side of the third spring 55, and the second step surface 68 is located on the right side of the first step surface 67. In the initial state, the transition surface 66 and the abutment wheel 57 abut against each other; the fourth spring 65 is slidably mounted on the blocking rod 62, and is located between the blocking base 61 and the blocking plate 64. In the initial state, the fourth spring 65 is in a compressed state; the tooth plate 69 is detachably mounted on the blocking plate 64, and is at the same height as the second step surface 68;

[0095] Next, the overall working principle of the linkage blocking member 6 is further explained. Since the fourth spring 65 is in a compressed state at the beginning, when the transition surface 66 contacts the abutting wheel 57, the tooth plate 69 is stationary. After the abutting wheel 57 moves down for the first time, it is equivalent to causing the abutting wheel 57 to separate from the transition surface 66. When the abutting wheel 57 separates from the transition surface 66 and the abutting wheel 57 comes to fit with the first step surface 67, the blocking plate 64 is equivalent to being unlocked. At this time, the fourth spring 65 pushes the blocking plate 64 to move right, thereby driving the tooth plate 69 to move right for a certain distance to trigger the change. The blowing component 7 is displaced by the fourth spring 65, so as to drive the tooth plate 69 to move rightward again by one end, so as to trigger the displacement operation of the blowing component 7, so as to convert the third group of spoilers to the second group of spoilers.

[0096] In some embodiments, more specifically, a first resistance gasket is detachably mounted on the transition surface 66, and the size of the first resistance gasket matches the size of the transition surface 66, a second resistance gasket is detachably mounted on the first step surface 67, and the size of the second resistance gasket matches the size of the first step surface 67, and a third resistance gasket is provided on the second step surface 68, and the size of the third resistance gasket matches the size of the second step surface 68;

[0097] By arranging the first resistance gasket, the second resistance gasket and the third resistance gasket, the friction force between the contact wheel 57 and the transition surface 66, the first step surface 67 and the second step surface 68 can be increased. On the one hand, the stability of the contact between the contact wheel 57 and the transition surface 66, the first step surface 67 and the second step surface 68 can be enhanced. On the other hand, the falling time of the contact wheel 57 can be delayed, so that the supporting plate 52 can fall for the first time and the second time after receiving more debris, and the action time of the first spoiler, the second spoiler and the third spoiler can be increased, so as to extend the action time of the first spoiler, the second spoiler and the third spoiler respectively to improve the adsorption effect of the debris on the breathable mesh plate 25 and the positioning rotating member 3.

[0098] Next, the transposition blowing component 7 as a whole is given a more specific structure and construction for further explanation. The transposition blowing component 7 includes a first chassis 71, which is detachably installed in the vacuum cleaner case 21, and a first rotating shaft 72 is rotatably arranged on it, and a first driving wheel 73 is detachably arranged on the first rotating shaft 72, and the first driving wheel 73 and the toothed plate 69 are meshed with each other; a second driving wheel 74 is detachably installed on the first rotating shaft 72, which is located above the first driving wheel 73, and a tensioning belt 75 is removably sleeved on it; a second chassis 76, which is detachably installed in the vacuum cleaner case 21, and a second rotating shaft 761 is rotatably arranged on it, and a third driving wheel 762 is detachably installed on the second rotating shaft 761, and the third driving wheel 762 can be bypassed by the tensioning belt 75, and a driving disk 763 is also detachably installed on the second rotating shaft 761, and a swing arm is detachably installed on the driving disk 763 764, a lever 765 is detachably arranged on the swing arm 764; a third chassis 77 is detachably installed in the vacuum cleaner case 21, a plug rod 771 is detachably arranged on it, a top plate 772 is detachably installed on the plug rod 771, and the top plate 772 can be passed through by the second rotating shaft 761; a transposition wheel 773 is rotatably arranged on the top plate 772, and the transposition wheel 773 has four groups of arc grooves along its outer circumference, and the arc grooves are connected to the driving plate 763. The outer circumferential surfaces are fitted together, and four sets of toggle grooves are opened on the transposition wheel 773, and the size of the toggle grooves is adapted to the toggle rod 765; the base plate 78 is detachably mounted on the transposition wheel 773; the spoiler includes a second drive motor 79, which is detachably mounted on the base plate 78, and a fan blade 791 is detachably mounted on the output end of the second drive motor 79; and the fan blade 791 is located below the lower sleeve 51, and there is a predetermined gap between the fan blade 791 and the bottom of the lower sleeve 51;

[0099] Next, the overall use principle of the transposition blowing member 7 is further explained. When the tooth plate 69 moves to the right for the first time, it can drive the first driving wheel 73 to rotate, and at the same time drive the second driving wheel 74 to rotate to drive the third driving wheel 762 to rotate, so as to drive the driving disk 763 to rotate. After the driving disk 763 rotates, the lever 765 can be swung. When the lever 765 penetrates into the toggle groove, the transposition wheel 773 can be toggled to rotate a certain distance, so that the second group of spoilers rotates to the vicinity of the first group of spoilers, so as to enhance the bearing member 5 and The negative pressure effect in the dust suction component 2 can increase the adsorption of the debris on the load-bearing component 5, and can effectively prevent the accumulation of a large amount of debris on the load-bearing component 5, which will lead to a decrease in the adsorption effect of the first group of spoilers and the reduced adsorption effect on the debris. Similarly, when the tooth plate 69 moves to the right for the second time, the lever 765 can be driven again to move the shift wheel 773 to rotate and shift the third group of spoilers to the vicinity of the second group of spoilers, so as to further enhance the negative pressure effect in the load-bearing component 5 and the dust suction component 2, so as to increase the adsorption effect on the debris on the load-bearing component 5.

[0100] It should also be noted that the power of the second drive motor 79 in the second group of spoilers can be increased or the blades of the fan blades 791 can be increased, so that the power of the second group of spoilers is enhanced relative to the first group of spoilers. Similarly, the power of the second drive motor 79 in the third spoiler can be increased or the blades of the fan blades 791 can be increased, so that the power of the third group of spoilers is enhanced relative to the first group of spoilers.

[0101] The combined effect of the knocking component 4 and the transposition blowing component 7 can further enhance the adsorption and debris removal operation of the transposition blowing component 7. When the debris in the mesh of the air-permeable mesh 25 is clogged, the adsorption area of ​​the air-permeable mesh 25 will be reduced, and the debris will remain on the air-permeable mesh 25 and cannot be adsorbed. The knocking component 4 can, on the one hand, knock and remove the debris in the mesh of the air-permeable mesh 25, thereby avoiding the intensity of manual cleaning of the debris in the mesh of the air-permeable mesh 25 and the intensity of manual cleaning of the debris on the inner wall of the vacuum cleaner case 21. On the other hand, the adsorption area of ​​the air-permeable mesh 25 can be restored. This gain effect can further enhance the overall adsorption operation of the transposition blowing component 7 on the debris on the air-permeable mesh 25.

[0102] Next, a more specific structure and construction is given to the two-axis adjustment member 8 as a whole for further explanation. The two-axis adjustment member 8 includes a first adjustment base 81, which is detachably mounted on the mounting plane, and a slide rail 811 is detachably mounted thereon; a second adjustment base 82, which is detachably arranged on the mounting plane, and a first mounting frame 83 is detachably arranged thereon, and a third drive motor 831 is detachably mounted on one end of the first mounting frame 83, and the output end of the third drive motor 831 can pass through the first mounting frame 83, and a first screw rod 832 is detachably arranged on the output end of the third drive motor 831; a first ball bearing base 833, which is slidably arranged in the first mounting frame 83, and can be passed through by the first screw rod 832;

[0103] A second mounting frame 84 is detachably mounted on the first ball bearing base 833, and a slider 844 capable of sliding on the slide rail 811 is detachably arranged at the bottom thereof; a fourth drive motor 841 is detachably mounted on the second mounting frame 84, and the output end of the fourth drive motor 841 can be inserted into the second mounting frame 84, and a second screw rod 842 is detachably arranged on the output end of the fourth drive motor 841; a second ball bearing base 843 is slidably arranged on the second mounting frame 84, and the second screw rod 842 can pass through it;

[0104] Next, the operating principle of the two-axis adjustment component 8 as a whole is further explained. After turning on the switch of the third drive motor 831, the staff can drive the first screw rod 832 to rotate, and can drive the second mounting frame 84 and the grinding component 9 as a whole to move in the front-to-back direction. By turning on the switch of the fourth drive motor 841, the second screw rod 842 can be driven to rotate, so as to drive the grinding component 9 as a whole to move in the left-right direction.

[0105] Next, a more specific structure and construction is given to the grinding component 9 as a whole for further explanation. The grinding component 9 includes a bonding plate 91, a bonding block 92 is detachably mounted on the bottom of the bonding plate 91, and the bonding block 92 is detachably connected to the second ball bearing base 843. A first slide cylinder 93 is detachably mounted on the bonding plate 91, a second slide cylinder 94 is detachably mounted on the output end of the first slide cylinder 93, and a connecting plate 95 is detachably mounted on the output end of the second slide cylinder 94; a fifth drive motor 96 is detachably mounted on the connecting plate 95 and can pass through the connecting plate 95, and a grinding wheel 97 is detachably mounted on the output end of the fifth drive motor 96; a discharge barrel 98 is detachably mounted on the bottom of the connecting plate 95, and can cover the grinding wheel 97, and a concave surface 99 is also provided on the inner circumferential surface of the discharge barrel 98;

[0106] Next, the overall operating principle of the grinding component 9 is further explained. When the staff turns on the switch of the first slide cylinder 93, the grinding wheel 97 can be driven to move downward for the first time. By turning on the switch of the second slide cylinder 94, the grinding wheel 97 can be driven to move downward for the second time. By turning on the switch of the fifth drive motor 96, the grinding wheel 97 can be driven to automatically grind the carbon fiber bicycle hub. The discharge barrel 98 and the concave surface 99 can quickly flow down the debris generated by the grinding of the grinding wheel 97, thereby preventing the debris from staying in the discharge barrel 98 and affecting the normal grinding operation of the grinding wheel 97.

[0107] Another technical problem to be solved by the present invention is a method for using an automatic grinding device for a carbon fiber bicycle hub;

[0108] S1. Loading and positioning and rotating the carbon fiber bicycle hub: loading the carbon fiber bicycle hub into the positioning and rotating component 3. After the positioning and rotating component 3 is turned on, the carbon fiber bicycle hub can be positioned and rotated;

[0109] S2, positioning operation of the entire grinding member 9: opening the two-axis adjustment member 8, so that the two-axis adjustment member 8 can adjust the grinding member 9 along four directions of front, back, left, and right;

[0110] S3, grinding operation on the carbon fiber bicycle wheel hub: after the grinding member 9 is turned on, the grinding wheel 97 in the grinding member 9 can be transported to the top of the carbon fiber bicycle wheel hub and fit with the carbon fiber bicycle wheel hub, and after the fifth driving motor 96 is turned on, the carbon fiber bicycle wheel hub can be ground;

[0111] S4, adsorbing the debris from grinding the carbon fiber bicycle hub: opening the first set of spoilers so that the spoilers introduce the airflow into the dust suction member 2 through the bearing member 5, forming a negative pressure in the dust suction member 2, and adsorbing the debris on the air permeable mesh plate 25 and falling from the positioning rotating member 3 through the pressure difference;

[0112] S5. Triggering operation of the bearing member 5: when the gravity value of the debris on the bearing member 5 reaches the first predetermined value, the bearing plate 52 can be driven to move downward as a whole, and the linkage blocking member 6 can be triggered to move rightward for the first time and the bearing member 5 can be blocked for the second time at the same time. After the linkage blocking member 6 moves rightward for the first time, the transposition blowing member 7 can be triggered. When the transposition blowing member 7 is triggered for the first time, the second group of spoilers can be quickly changed to the position of the first group of spoilers to enhance the negative pressure effect in the bearing member 5 and the dust suction member 2, so as to increase the adsorption of the debris on the bearing member 5. Operation, when the debris on the bearing member 5 rises to the second predetermined value after the first predetermined value, the bearing plate 52 can be driven to move down again as a whole, and the linkage blocking member 6 can be triggered to move rightward for the second time and the bearing member 5 can be blocked for the third time at the same time. After the linkage blocking member 6 moves rightward for the second time, the transposition blowing member 7 can be triggered to be triggered. When the transposition blowing member 7 is triggered for the second time, the third group of spoilers can be quickly changed to the position of the second group of spoilers, so as to enhance the negative pressure effect in the bearing member 5 and the dust suction member 2 again, so as to increase the adsorption operation of the debris on the bearing member 5 again;

[0113] S6. Knocking operation on the dust collector box 21 and the air permeable mesh plate 25: After the positioning rotating component 3 is turned on, the knocking component 4 can be triggered to operate in conjunction. First, the air permeable mesh plate 25 is knocked so that the debris falling into the mesh holes of the air permeable mesh plate 25 can fall into the dust collector component 2 to prevent blockage in the mesh holes of the air permeable mesh plate 25. While the air permeable mesh plate 25 is being knocked, the dust collector box 21 can also be knocked at the same time so that the debris on the side wall of the dust collector box 21 can fall off in time.

[0114] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An automatic grinding device for carbon fiber bicycle wheel hub, characterized in that: It comprises an operating table (1) having a mounting surface; A dust collecting component (2) is detachably mounted on the mounting plane, comprising a dust collecting box (21) detachably mounted on the mounting plane, the dust collecting box (21) being provided with two groups of lining plates (22) and a group of partition plates (24) from top to bottom, an inclined plate (23) being detachably mounted on the two groups of lining plates (22), the inclined plate (23) being connected to the dust collecting box (21), a material lowering notch being formed between the two groups of lining plates (22), a ventilating mesh plate (25) being detachably arranged on the top of the dust collecting box (21), and a disc hole being provided on the ventilating mesh plate (25); A positioning rotating component (3) for positioning and rotating a carbon fiber bicycle wheel hub, which is detachably mounted in the dust collector case (21), and the positioning rotating component (3) is capable of sealing the disc hole; a knocking component (4) which is detachably mounted on the vacuum cleaner case (21); the knocking component (4) is respectively connected to the air-permeable mesh plate (25) and the vacuum cleaner case (21); and the knocking component (4) is connected to the positioning rotating component (3); the knocking component (4) can be triggered when the positioning rotating component (3) moves, and when the positioning rotating component (3) is triggered, the knocking component (4) can perform a knocking operation on the vacuum cleaner case (21) and the air-permeable mesh plate (25); A bearing member (5) for bearing carbon fiber bicycle hub grinding debris, which is detachably arranged on the partition plate (24); the bearing member (5) is flush with the highest point of the lining plate (22) in an initial position; the bearing member (5) can block the material discharge gap; and after the carbon fiber bicycle hub grinding debris accumulates on the bearing member (5), the bearing member (5) can be driven to descend along the material discharge gap; a linkage blocking member (6) for blocking the bearing member (5), which is detachably mounted in the vacuum cleaner case (21), and abuts against the bearing member (5) in an initial position, and can be triggered when the bearing member (5) descends; A transposition blowing component (7) which is detachably mounted in the vacuum cleaner case (21) and has three groups of spoilers therein, and the power of the three groups of spoilers is successively enhanced. In an initial state, the first group of spoilers is aligned with the bottom of the bearing component (5), the transposition blowing component (7) and the linkage blocking component (6) are in contact with each other, and the transposition blowing component (7) can be triggered when the linkage blocking component (6) moves for the first time, so that the second group of spoilers is transformed to the position of the first group of spoilers, and when the linkage blocking component (6) moves for the second time, the third group of spoilers is transformed to the position of the second group of spoilers; A two-axis adjustment component (8) is detachably mounted on the mounting plane and is capable of surrounding the dust collecting component (2); A grinding component (9) for grinding a carbon fiber bicycle wheel hub is detachably mounted on the two-axis adjustment component (8).

2. The automatic grinding device for carbon fiber bicycle hub according to claim 1, characterized in that: The positioning rotating component (3) comprises a first mounting base plate (31) which is detachably mounted in the vacuum cleaner case (21); A second mounting substrate (32) which is detachably mounted on the first mounting substrate (31); A first drive motor (33) is detachably arranged on the first mounting substrate (31), and its output end is capable of passing through the first mounting substrate (31); a driving wheel (34) is detachably mounted on the output end of the first drive motor (33), and a connecting belt (35) is removably wound around the driving wheel (34); A turbine reducer (36) is detachably mounted on the second mounting base plate (32); a driven wheel (37) is detachably arranged on an output end of the turbine reducer (36), and the driven wheel (37) can be bypassed by the connecting belt (35); A rotating disk (38) is detachably mounted on the other output end of the turbine reducer (36); the rotating disk (38) is capable of blocking the disk hole; a plurality of sets of inner panels (39) are detachably mounted in the rotating disk (38); a blanking notch is formed between every two sets of inner panels (39); A plurality of groups of clamping cylinders (391) are detachably mounted on the rotating disk (38), and the plurality of groups of clamping cylinders (391) are arranged in an array about the center of a cross-sectional circle of the rotating disk (38). A sleeve ring (392) is detachably mounted on each group of the clamping cylinders (391), and the sleeve ring (392) is detachably connected to the rotating disk (38). A clamping block (393) is also detachably mounted on the output end of each group of the clamping cylinders (391).

3. The automatic grinding device for carbon fiber bicycle wheel hub according to claim 2, characterized in that: The knocking component (4) comprises a first connecting frame (41) which is detachably mounted on the air-permeable mesh plate (25); a first knocking rod (42) is slidably arranged in the first connecting frame (41); and a first stop block (43) is integrally formed on the first knocking rod (42); A first knocking machine frame (44) is detachably mounted on a tail end of the first knocking rod (42), and a first knocking wheel (45) is rotatably arranged in the first knocking machine frame (44); A second knocking machine frame (46) is detachably mounted on the other end of the first knocking rod (42), and a second knocking wheel (47) is rotatably arranged in the second knocking machine frame (46); A first spring (48) removably disposed on the first knocking rod (42); A guide rod (49) is detachably mounted in the driven wheel (37), and a cam (491) is detachably mounted on the guide rod, wherein an arc segment of the cam (491) and the first striking wheel (45) are in mutual abutment with each other; An extension rod (492) detachably mounted on the first striking machine frame (44); A second connecting frame (493) is detachably mounted on the vacuum cleaner case (21), a second knocking rod (496) is slidably arranged therein, a second limit block (497) is detachably mounted on the second knocking rod (496), a wedge block (494) is detachably arranged on one tail end of the second knocking rod (496), the wedge block (494) has an inclined surface, and in an initial state, the lowest point of the inclined surface abuts against the extension rod (492), a baffle (495) is also detachably mounted on the wedge block (494), a push block (499) is detachably mounted on the other tail end of the second knocking rod (496), and a second spring (498) is also removably mounted on the second knocking rod (496).

4. The automatic grinding device for carbon fiber bicycle wheel hub according to claim 3, characterized in that: The first connecting machine frame (41) is in an H-shape and has a first light plate on it. In an initial state, the first limit block (43) and the first light plate of the first connecting machine frame (41) are in contact with each other. The first spring (48) is located below the first light plate and the first spring (48) is located above the first knocking machine frame (44). The second connecting machine frame (493) is in an H-shape and has a second light plate on it. In an initial state, the second limit block (497) and the second light plate are in contact with each other. The second spring (498) is located above the second light plate and the second spring (498) is located below the first knocking machine frame (44).

5. The automatic grinding device for carbon fiber bicycle hub according to claim 1, characterized in that: The bearing member (5) comprises a lower sleeve (51) which is detachably mounted on the partition plate (24), and the lower sleeve (51) is capable of passing through the partition plate (24), and a lower isolation net is provided at the lower end outlet of the lower sleeve (51); A bearing plate (52) on which an upper sleeve (53) is detachably mounted and the upper sleeve (53) can pass through the bearing plate (52); an upper isolation net is provided at the upper end entrance of the upper sleeve (53); the upper sleeve (53) can pass into the lower sleeve (51); a buffer rod (54) is also detachably mounted on the bearing plate (52) and the buffer rod (54) can pass through the partition plate (24); a third spring (55) is removably sleeved on the buffer rod (54); The bottom rod (56) is detachably mounted on one end of the buffer rod (54) that passes through the partition plate (24), and a resisting wheel (57) is rotatably arranged on the bottom rod (56).

6. The automatic grinding device for carbon fiber bicycle wheel hub according to claim 5, characterized in that: The linkage blocking component (6) comprises a blocking base (61) which is detachably mounted on the vacuum cleaner housing (21), on which a blocking rod (62) is slidably arranged, and a blocking block (63) is detachably mounted on a rear end of the blocking rod (62); a blocking plate (64) which is detachably mounted on the other end of the blocking rod (62); the blocking plate (64) has a transition surface (66), a first step surface (67) and a second step surface (68) from top to bottom, the transition surface (66), the first step surface (67) and the second step surface (68) being arranged in a stepped manner, the first step surface (67) being located on the right side of the third spring (55), the second step surface (68) being located on the right side of the first step surface (67), and in an initial state, the transition surface (66) and the abutting wheel (57) abut against each other; a fourth spring (65) slidably mounted on the blocking rod (62) and located between the blocking base (61) and the blocking plate (64); in an initial state, the fourth spring (65) is in a compressed state; A tooth plate (69) is detachably mounted on the blocking plate (64) and is at the same height as the second step surface (68).

7. The automatic grinding device for carbon fiber bicycle wheel hub according to claim 6, characterized in that: A first resistance gasket is detachably mounted on the transition surface (66), and the size of the first resistance gasket is mutually compatible with the size of the transition surface (66); a second resistance gasket is detachably mounted on the first step surface (67), and the size of the second resistance gasket is mutually compatible with the size of the first step surface (67); a third resistance gasket is provided on the second step surface (68), and the size of the third resistance gasket is mutually compatible with the size of the second step surface (68).

8. The automatic grinding device for carbon fiber bicycle hub according to claim 6, characterized in that: The transposition air blowing component (7) comprises a first chassis (71) which is detachably mounted in the dust collector housing (21), on which a first rotating shaft (72) is rotatably arranged, and on which a first driving wheel (73) is detachably arranged, and the first driving wheel (73) is meshed with the toothed plate (69); A second driving wheel (74) is detachably mounted on the first rotating shaft (72), is located above the first driving wheel (73), and has a tensioning belt (75) removably sleeved thereon; A second chassis (76) is detachably mounted in the vacuum cleaner case (21), a second rotating shaft (761) is rotatably arranged on the chassis, a third driving wheel (762) is detachably mounted on the second rotating shaft (761), and the third driving wheel (762) can be passed around by the tightening belt (75), a driving disk (763) is also detachably mounted on the second rotating shaft (761), a swing arm (764) is detachably mounted on the driving disk (763), and a lever (765) is detachably arranged on the swing arm (764); A third bottom plate (77) is detachably mounted in the vacuum cleaner case (21), and has an insertion rod (771) detachably arranged thereon, and a top plate (772) is detachably mounted on the insertion rod (771), and the top plate (772) can be penetrated by the second rotating shaft (761); A transposition wheel (773) is rotatably arranged on the top plate (772), the transposition wheel (773) is provided with four groups of arc grooves along its outer circumference, and the arc grooves are in close contact with the outer circumference of the driving plate (763), and the transposition wheel (773) is provided with four groups of shifting grooves, and the size of the shifting grooves is adapted to the shifting rod (765); A base plate (78) detachably mounted on the transposition wheel (773); The spoiler comprises a second drive motor (79) which is detachably mounted on the base plate (78); a fan blade (791) is detachably mounted on the output end of the second drive motor (79); and the fan blade (791) is located below the lower sleeve (51); there is a predetermined gap between the fan blade (791) and the bottom of the lower sleeve (51).

9. The automatic grinding device for carbon fiber bicycle hub according to claim 1, characterized in that: The two-axis adjustment component (8) comprises a first adjustment base (81) which is detachably mounted on the mounting plane, and on which a slide rail (811) is detachably mounted; A second adjustment base (82) is detachably arranged on the installation plane, a first installation frame (83) is detachably arranged on the second adjustment base, a third drive motor (831) is detachably mounted on one end of the first installation frame (83), an output end of the third drive motor (831) can be inserted into the first installation frame (83), and a first screw rod (832) is detachably arranged on the output end of the third drive motor (831); A first ball bearing base (833) which is slidably arranged in the first mounting frame (83) and can be penetrated by the first screw rod (832); A second mounting frame (84) is detachably mounted on the first ball bearing base (833), and a slider (844) capable of sliding on the slide rail (811) is detachably arranged at the bottom thereof; a fourth drive motor (841) is detachably mounted on the second mounting frame (84), and the output end of the fourth drive motor (841) can be inserted into the second mounting frame (84); and a second screw rod (842) is detachably arranged on the output end of the fourth drive motor (841); A second ball bearing base (843) is slidably arranged on the second mounting frame (84) and can be penetrated by the second screw rod (842); The grinding component (9) comprises a bonding plate (91), a bonding block (92) being detachably mounted on the bottom of the bonding plate, and the bonding block (92) being detachably connected to the second ball bearing base (843); a first slide cylinder (93) being detachably mounted on the bonding plate (91), a second slide cylinder (94) being detachably mounted on the output end of the first slide cylinder (93), and a connecting plate (95) being detachably mounted on the output end of the second slide cylinder (94); a fifth drive motor (96) which is detachably mounted on the connecting plate (95) and can pass through the connecting plate (95); a grinding wheel (97) is detachably mounted on the output end of the fifth drive motor (96); The lower material barrel (98) is detachably mounted on the bottom of the connecting plate (95) and can cover the grinding wheel (97). The inner circumferential surface of the lower material barrel (98) is also provided with a concave surface (99).

10. A method for using the automatic grinding device for carbon fiber bicycle hub according to any one of claims 1 to 9, characterized in that: S1. Loading and positioning and rotating the carbon fiber bicycle hub: loading the carbon fiber bicycle hub into the positioning and rotating component (3); after the positioning and rotating component (3) is turned on, the carbon fiber bicycle hub can be positioned and rotated; S2, positioning the grinding component (9) as a whole: opening the two-axis adjustment component (8) so that the two-axis adjustment component (8) can adjust the grinding component (9) along four directions: front, back, left, and right; S3, grinding operation on the carbon fiber bicycle wheel hub: after the grinding component (9) is turned on, the grinding wheel (97) in the grinding component (9) can be transported to the top of the carbon fiber bicycle wheel hub and fit with the carbon fiber bicycle wheel hub, and after the fifth drive motor (96) is turned on, the grinding operation on the carbon fiber bicycle wheel hub can be performed; S4, performing an adsorption operation on the debris from grinding the carbon fiber bicycle wheel hub: opening the first set of spoilers so that the spoilers introduce the airflow into the dust suction component (2) through the bearing component (5), forming a negative pressure in the dust suction component (2), and performing an adsorption operation on the debris on the air permeable mesh plate (25) and falling from the positioning rotating component (3) through the pressure difference; S5. Triggering operation of the bearing member (5): when the gravity value of the debris on the bearing member (5) reaches a first predetermined value, the bearing plate (52) can be driven to move downward as a whole, and the linkage blocking member (6) can be triggered to move rightward for the first time and the bearing member (5) can be blocked for the second time at the same time. After the linkage blocking member (6) moves rightward for the first time, the transposition blowing member (7) can be triggered. When the transposition blowing member (7) is triggered for the first time, the second group of spoilers can be quickly changed to the position of the first group of spoilers, so as to enhance the negative pressure effect in the bearing member (5) and the dust suction member (2), so as to increase the suction of the debris on the bearing member (5). The invention relates to an additional operation, wherein when the debris on the bearing member (5) rises from the first predetermined value to the second predetermined value, the bearing plate (52) can be driven to move downward again as a whole, and the linkage blocking member (6) can be triggered to move rightward for the second time and the bearing member (5) can be blocked for the third time at the same time. After the linkage blocking member (6) moves rightward for the second time, the transposition blowing member (7) can be triggered. When the transposition blowing member (7) is triggered for the second time, the third group of spoilers can be quickly changed to the position of the second group of spoilers, so as to enhance the negative pressure effect in the bearing member (5) and the dust suction member (2) again, so as to enhance the suction operation of the debris on the bearing member (5); S6. knocking operation on the dust collector case (21) and the air permeable mesh plate (25): after the positioning rotating member (3) is turned on, the knocking member (4) can be triggered to perform an operation. First, the air permeable mesh plate (25) is knocked, so that the debris falling into the mesh holes of the air permeable mesh plate (25) can fall into the dust collector member (2), so as to prevent the mesh holes of the air permeable mesh plate (25) from being blocked. While the air permeable mesh plate (25) is being knocked, the dust collector case (21) can also be knocked at the same time, so that the debris on the side wall of the dust collector case (21) can fall off in time.

Images