Steering pump shell milling equipment

Abstract

The invention belongs to the technical field of pump shell milling, and particularly relates to steering pump shell milling equipment which comprises a containing component. The deflection component is arranged at the axis of the accommodating component; the two sets of clamping components are arranged outside the deflection component, and the steering pump shell is arranged in the clamping components; and the machining part is used for milling the outer surface of the steering pump shell. The device can uniformly mill steering pump shells in the same batch, each steering pump shell can be finely adjusted through the inner deflection component before the steering pump shells are fixed and milled, it is guaranteed that the front axis position of each steering pump shell can correspond to the axis position of the milling component when the steering pump shells are milled, and the milling efficiency of the steering pump shells is improved. Therefore, when the milling end is used for milling a fixed track, the problem that the milling surface is uneven or cannot completely cover the outer surface of the steering pump shell due to the deviation of the fixed position of the steering pump shell is solved.

Description

Technical Field

[0001] The present invention belongs to the technical field of pump housing milling, and specifically relates to a milling processing equipment for a steering pump housing. Background Art

[0002] In the traditional hydraulic power steering system, the steering pump is still a key component. The automotive steering pump is the core component of the hydraulic power steering system, and its function is to provide high-pressure hydraulic oil for the steering system to help the driver turn the steering wheel more easily, especially reducing the operating force when driving at low speeds or parking.

[0003] There is a conventional centralized milling controlled tool for automotive steering pump housings. It centrally clamps a large number of steering pump housings through a casting clamp, mills the outer surfaces of the housings in the same batch, and performs thread drilling operations. However, after manually placing the blanks, not only does it require manual screwing of bolts, but there may be differences in the positions of the blanks inside the casting clamp, which may cause the milling heads to not uniformly advance a fixed distance. Separate calculations and adjustments are required, and higher precision requirements are imposed on the milling equipment, so improvements are needed. Summary of the Invention

[0004] In view of the deficiencies of the prior art, the technical solution adopted by the present invention to solve its technical problems is: a milling processing equipment for a steering pump housing, including:

[0005] A housing component;

[0006] A deflection component, arranged at the axis center of the housing component;

[0007] A clamping component, there are two groups of clamping components, arranged outside the deflection component, and the steering pump housing is arranged inside the clamping component;

[0008] A processing component, used for milling the outer surface of the steering pump housing;

[0009] The clamping component includes:

[0010] An integrated housing, on one side of the inner cavity of the integrated housing away from the deflection component, accommodation grooves are evenly opened, and the steering pump housing is arranged inside the accommodation grooves;

[0011] An inner deflection component, used to drive the internal steering pump housing to perform a deflection sliding movement;

[0012] A drainage component, used to absorb the debris generated during the milling of the steering pump housing.

[0013] Further, the integrated housing includes,

[0014] An internal rotating plate, the outer surface of the internal rotating plate is rotatably connected to the inner wall of the container housing through a receiving groove, and both the upper and lower sides of the internal rotating plate are rotatably connected to a return spring cylinder through a rotating shaft. Under normal circumstances, the internal rotating plate blocks the receiving groove and the inner cavity of the container housing. After being affected by the drainage component, it will deflect towards the inside of the container housing. After the drainage work is completed, the return spring cylinder will drive the internal rotating plate to reset through the resilience of the spring, as Figure 4 shown;

[0015] A lateral fixing plate, both sides inside the cavity of the lateral fixing plate are rotatably connected to a docking bolt. The outer surface of the docking bolt is threadedly connected to the inner cavity of the container housing through a bolt hole. The lateral fixing plate is used to limit the steering pump housing. There is a bolt hole on the side of the container housing. When the docking bolt is screwed into the bolt hole, the lateral fixing plate will also be inserted into the side part of the receiving groove, thereby clamping and fixing the internal steering pump housing.

[0016] Further, the internal deflection component includes,

[0017] An adjustment motor, which is arranged on the inner wall of the container housing. The outer surface of the output shaft of the adjustment motor is provided with a friction roller, and the friction roller extends into the receiving groove through a turning slot, and the outer surface of the friction roller is in contact with the outer surface of the steering pump housing. Inside each receiving groove, the upper and lower adjustment motors control a steering pump housing to perform a sliding movement in pairs. By rotating the friction roller, the rolling friction of the friction roller is used to drive the steering pump housing to slide relative to the receiving groove, so as to align the processing surface of the steering pump housing with the processing component;

[0018] A sensor, which is arranged on the inner wall of the container housing, and the inner cavity of the sensor is fixedly connected to the inner cavity of the adjustment motor through a wire;

[0019] A receiver, which is arranged on the outer surface of the container housing, and the inner cavity of the receiver is fixedly connected to the inner cavity of the sensor through a wire.

[0020] Further, the processing component includes,

[0021] A vertical guiding plate, which is arranged at the center of the back inside the cavity of the container housing, and a sliding rail is provided at the center of the inner cavity of the vertical guiding plate;

[0022] A wall - adhering sliding plate, both sides of the outer surface of the wall - adhering sliding plate are symmetrically provided with sliding balls. The outer surface of the wall - adhering sliding plate is slidably connected to the outer surface of the vertical guiding plate through the sliding balls. The wall - adhering sliding plate drives itself to perform up - and - down sliding movement along the vertical guiding plate through the sliding balls;

[0023] A telescopic push rod, the outer surface of which is slidably connected to the inner cavity of a vertical guide plate through a slide rail. One end of the telescopic push rod is fixedly connected to the outer surface of an adherent slide plate, and a milling component is arranged at the other end of the telescopic push rod. The telescopic push rod can push the milling component by stretching the middle cylinder of itself, moving the milling component towards the direction close to the steering pump housing.

[0024] Further, the milling component includes

[0025] An adherent slide shell, the outer surface of which is fixedly connected to the end of the telescopic push rod far away from the adherent slide plate;

[0026] A docking searchlight, which is arranged in the inner cavity of the adherent slide shell through a bayonet, used to search the position of the steering pump housing, send a picture signal to a receiver, and the receiver controls and adjusts the motor to rotate according to the deviation distance of the steering pump housing in the picture, and the friction roller drives the steering pump housing to slide;

[0027] An axis slider, the outer surface of which is slidably connected to the inner wall of the adherent slide shell, and a milling end is arranged at the axis of the axis slider. The axis slider drives the milling end to rotate at a high speed through an internal motor, and the outer surface of the clamped steering pump housing is milled by the milling end. The milling end can also be replaced with a threaded head for drilling to expand the opening at the axis of the steering pump housing;

[0028] A push rod device, the outer surface of which is slidably connected to the outer surface of the adherent slide shell through a sleeve;

[0029] A sliding push rod, one end of which is fixedly connected to the inner cavity of the push rod device, and the other end of the sliding push rod is fixedly connected to the outer surface of the axis slider. The push rod device pushes the solid rod, that is, the thin rod part, inside the hollow sliding push rod by pressurization, so that the thin rod pushes the axis slider to drive the milling end to move, and the milling end can move freely in the plane where the adherent slide shell is located.

[0030] Further, the accommodating component includes

[0031] A processing box, which is arranged on the ground;

[0032] One-way swing doors, the number of which is two, and the outer surfaces of the one-way swing doors are rotatably connected to the inner cavity of the processing box through rotating shafts. A front opening allowing the setting of one-way swing doors is opened on the front of the processing box, and a secondary opening for maintenance and cleaning of metal chips is arranged on the back;

[0033] Lateral pusher, a plurality of propulsion sliding rods are evenly arranged in the inner cavity of the lateral pusher, and a clamping plate component is arranged at one end of the propulsion sliding rod far away from the lateral pusher. The lateral pusher can, under the control of the system, drive the propulsion sliding rod to slide, so as to control the clamping plate component to perform a sliding movement.

[0034] Further, the deflection component includes,

[0035] A torsion disk, which is arranged at the center of the upper surface of the processing box;

[0036] A thick rotating shaft, the top end of which is fixedly connected to the center of the inner cavity of the torsion disk, and the bottom end of which is rotatably connected to the inner cavity of the processing box. The torsion disk drives the wheel body to rotate through an internal motor, and the thick rotating shaft at the center of the torsion axis;

[0037] A connecting support rod, the outer surface of the thick rotating shaft is fixedly connected to the outer surface of the container through the connecting support rod.

[0038] Further, the clamping plate component includes,

[0039] A vertical sliding shell, a plurality of fixing plate clamping grooves are evenly arranged on the front surface of the vertical sliding shell. The shape of the inner wall of each fixing plate clamping groove is adapted to the shape of the outer surface of the lateral fixing plate. A plurality of adsorption magnets are evenly arranged in the inner cavity of the vertical sliding shell. Since the lateral fixing plate contains iron inside, the lateral fixing plate can be temporarily placed on the fixing plate clamping groove under the magnetic force of the adsorption magnets;

[0040] A double-headed rotating box, docking sleeves are symmetrically arranged on both sides of the output shaft of the double-headed rotating box. A hexagonal groove is arranged on one side of the inner cavity of the docking sleeve far away from the double-headed rotating box, and one end of the inner cavity of the docking sleeve far away from the double-headed rotating box extends into the fixing plate clamping groove. The docking sleeve can be docked with the end of the docking bolt through its hexagonal groove. Under the rotation of the double-headed rotating box, the docking bolt can be twisted through the docking sleeve.

[0041] Further, the drainage component includes,

[0042] A fixed pump, the outer surface of which is fixedly connected to the inner wall of the container, and the exhaust port of which extends to the outside of the container;

[0043] The docking suction cup group is arranged on the inner wall of the container housing, and a through-connecting pipe is fixedly connected to the inner cavity of the docking suction cup group. The top end of the through-connecting pipe extends into the interior of the intake port of the fixed pump. Each docking suction cup group is composed of five hollow docking suction cups. The five hollow docking suction cups are combined together through the through-connecting pipe. When the fixed pump sucks air through the suction port at the bottom, each docking suction cup sucks air through the holes on the outer surface facing the position where the built-in rotating plate is located. However, there is a certain distance between the docking suction cup and the built-in rotating plate, so the built-in rotating plate can rotate towards the direction close to the docking suction cup under the action of air flow, thereby opening the receiving groove.

[0044] The beneficial effects of the present invention are as follows:

[0045] 1. This device can uniformly mill the steering pump housings of the same batch. Before the steering pump housings are fixed and milled, fine adjustment work will be carried out on each steering pump housing through the inner deflection component to ensure that the front axle center position of the steering pump housing can correspond to the axle center position of the milling component during milling. In this way, when the milling head performs milling processing along a fixed trajectory, problems such as uneven milling surfaces or inability to completely cover the outer surface of the steering pump housing due to the offset of the fixed position of the steering pump housing will not occur.

[0046] 2. Since the steering pump housing is adjusted through the captured images inside the receiving groove, and the images captured by the docking searchlights on both sides are referenced by the axis of the vertical guiding plate, it is more accurate than manually adjusting the axle center position of the steering pump housing by hand, avoiding the problem that the fixed steering pump housing still has a slight offset due to visual misalignment when manually adjusting the steering pump housing. It can make the pusher control the axis slider to always run along a fixed trajectory, thereby reducing the motion precision requirements of the milling component.

[0047] 3. When placing the steering pump housing, since the operator only needs to put the steering pump housing into the interior of the receiving groove without the need for precise alignment and fixing work, the operator's feeding speed is relatively fast each time, reducing the manual operation time, and saving the time consumed by manually installing the lateral fixing plate to reinforce the steering pump housing. It not only effectively improves the work efficiency but also avoids the problem that when installing the lateral fixing plate, the pushing force of the lateral fixing plate pushes the calibrated steering pump housing, resulting in misalignment and improper calibration of the steering pump housing.

[0048] 4. When milling the outer surface and the axis of the steering pump housing, the metal chips shed during milling will be adsorbed by the docking suction cup group into the interior of the container housing, completing the collection of metal chips, avoiding the problem of chip contamination on the inner wall of the processing box caused by the flying of milling metal chips. Also, because the metal chips collected inside the container housing will be blocked by the closed receiving groove under normal circumstances and will not be ejected from the interior of the container housing due to centrifugal force and milling vibration force, the collection point of the stored metal chips is stable. Only by disassembling the container housing can the recycling work be achieved, without the need to additionally install absorption components, thereby reducing the internal space of the processing box. BRIEF DESCRIPTION OF THE DRAWINGS

[0049] Figure 1 is the front view of the present invention;

[0050] Figure 2 is the cross-sectional view of the present invention;

[0051] Figure 3 is the cross-sectional view of the clamping component of the present invention;

[0052] Figure 4 is the cross-sectional view of the container housing of the present invention;

[0053] Figure 5 is the structural schematic diagram of the lateral fixing plate of the present invention;

[0054] Figure 6 is the cross-sectional view of the processing component of the present invention;

[0055] Figure 7 is the cross-sectional view of the wall-attached sliding housing of the present invention;

[0056] Figure 8 is the cross-sectional view of the processing box of the present invention;

[0057] Figure 9 is the cross-sectional view of the clamping plate component of the present invention;

[0058] Figure 10 is the structural schematic diagram of the drainage component of the present invention.

[0059] In the figure: 1, receiving component; 2, deflecting component; 3, clamping component; 4, processing component; 11, processing box; 12, one-way revolving door; 13, side-position push rod device; 14, pushing slide rod; 15, clamping plate component; 151, vertical sliding shell; 152, fixed plate clamping groove; 153, adsorption magnet; 154, double-headed rotating box; 155, docking sleeve; 21, torsion disc; 22, thick rotating shaft; 23, connecting support rod; 31, container shell; 32, receiving groove; 33, built-in rotating plate; 34, rebounding cylinder; 35, steering pump housing; 36, lateral fixed plate; 37, docking bolt; 41, vertical guiding plate; 42, wall-attached sliding plate; 43, sliding rolling ball; 44, telescopic push rod; 5, milling component; 51, wall-attached sliding shell; 52, docking detector; 53, shaft center slider; 54, milling end; 55, push rod device; 56, sliding push rod; 6, inner deflecting component; 61, adjusting motor; 62, friction roller; 63, sensor; 64, receiver; 7, drainage component; 71, fixed pump; 72, docking suction cup group; 73, through connecting pipe. Detailed implementation mode

[0060] The present invention will be further described in detail below in conjunction with the accompanying drawings and specific implementation modes. The embodiments of the present invention are given for the purpose of illustration and description, and are not exhaustive or limit the present invention to the disclosed form. Many modifications and variations are obvious to those of ordinary skill in the art. The embodiments are selected and described to better illustrate the principles and practical applications of the present invention, and enable those of ordinary skill in the art to understand the present invention and thus design various embodiments with various modifications suitable for specific purposes.

[0061] Example 1, please refer to Figure 1 - Figure 5 , the present invention provides a technical solution: a milling processing device for a steering pump housing, including:

[0062] Receiving component 1;

[0063] Deflecting component 2, arranged at the axis center of the receiving component 1;

[0064] Clamping component 3, arranged outside the deflecting component 2, and the steering pump housing 35 is arranged inside the clamping component 3;

[0065] Processing component 4, used for milling the outer surface of the steering pump housing 35;

[0066] The clamping component 3 includes:

[0067] Container shell 31, on the side of the inner cavity of the container shell 31 far from the deflecting component 2, receiving grooves 32 are uniformly opened, and the steering pump housing 35 is arranged inside the receiving grooves 32;

[0068] An inner deflection component 6 for driving the internal steering pump housing 35 to perform a deflection and sliding movement;

[0069] A drainage component 7 for absorbing the debris generated by the milling of the steering pump housing 35.

[0070] The integrated housing 31 includes,

[0071] A built-in rotating plate 33. The outer surface of the built-in rotating plate 33 is rotationally connected to the inner wall of the integrated housing 31 through a receiving groove 32. Both the upper and lower sides of the built-in rotating plate 33 are rotationally connected to a resilient cylinder 34 through a rotating shaft. Under normal circumstances, the built-in rotating plate 33 blocks the receiving groove 32 from the inner cavity of the integrated housing 31. After being affected by the drainage of the drainage component 7, it will deflect towards the inside of the integrated housing 31. After the drainage work is completed, the resilient cylinder 34 will drive the built-in rotating plate 33 to reset through the resilience of the spring, as Figure 4 shown;

[0072] A lateral fixing plate 36. Both sides inside the cavity of the lateral fixing plate 36 are rotationally connected to a docking bolt 37. The outer surface of the docking bolt 37 is threadedly connected to the inner cavity of the integrated housing 31 through a bolt hole. The lateral fixing plate 36 is used to limit the steering pump housing 35. A bolt hole is provided on the side of the integrated housing 31. When the docking bolt 37 is screwed into the bolt hole, the lateral fixing plate 36 will also insert into the side part of the receiving groove 32, thereby clamping and fixing the internal steering pump housing 35.

[0073] The inner deflection component 6 includes,

[0074] An adjustment motor 61. The adjustment motor 61 is arranged on the inner wall of the integrated housing 31. A friction roller 62 is arranged on the outer surface of the output shaft of the adjustment motor 61. The friction roller 62 extends into the receiving groove 32 through a rotating cutting groove. The outer surface of the friction roller 62 is in contact with the outer surface of the steering pump housing 35. Inside each receiving groove 32, the upper and lower adjustment motors 61 control one steering pump housing 35 to perform a sliding movement in pairs. By rotating the friction roller 62, the rolling friction force of the friction roller 62 is used to drive the steering pump housing 35 to slide relative to the receiving groove 32, so as to align the processing surface of the steering pump housing 35 with the processing component 4;

[0075] A sensor 63. The sensor 63 is arranged on the inner wall of the integrated housing 31. The inner cavity of the sensor 63 is fixedly connected to the inner cavity of the adjustment motor 61 through a wire;

[0076] A receiver 64. The receiver 64 is arranged on the outer surface of the integrated housing 31. The inner cavity of the receiver 64 is fixedly connected to the inner cavity of the sensor 63 through a wire.

[0077] Using this device to mill the outer surface of the steering pump housing 35 of the same batch, first open the one-way revolving doors 12 on both sides of the front. At this time, place the steering pump housing 35 in the clamping component 3 facing it. Horizontally insert each steering pump housing 35 into the receiving groove 32 of the container housing 31. Since there is no need to accurately align the position of the steering pump housing 35, the placement personnel can quickly fill the receiving groove 32 of the clamping component 3 on the front. Subsequently, the torsion disc 21 twists the thick rotating shaft 22 to rotate half a turn. In the above manner, fill the receiving grooves 32 of all four groups of container housings 31. After completing the feeding work, close the one-way revolving doors 12.

[0078] When the clamping component 3 rotates to the processing component 4 on the front back, the wall-attached sliding plate 42 slides down along the vertical guiding plate 41 from top to bottom through the sliding rolling balls 43. At this time, the wall-attached sliding shell 51 sweeps across the steering pump housing 35 inside the receiving groove 32 through the docking searchlight 52, and then sends the deviation distance data of each steering pump housing 35 to the corresponding sensor 63 through the receiver 64. The sensor 63 controls the adjustment motor 61 to twist the friction roller 62, thereby driving the steering pump housing 35 to slide horizontally along the inner wall of the receiving groove 32, so as to finely adjust the steering pump housing 35 to a position facing the axis line of the vertical guiding plate 41.

[0079] Embodiment 2, please refer to Figures 1 - 10 , the present invention provides a technical solution: on the basis of Embodiment 1, the processing component 4 includes,

[0080] The vertical guiding plate 41 is arranged at the axis center of the back of the inner cavity of the container housing 31, and a slide rail is provided at the axis center of the inner cavity of the vertical guiding plate 41;

[0081] The wall-attached sliding plate 42 is symmetrically provided with sliding rolling balls 43 on both sides of the outer surface. The outer surface of the wall-attached sliding plate 42 is slidably connected to the outer surface of the vertical guiding plate 41 through the sliding rolling balls 43. The wall-attached sliding plate 42 drives itself to move up and down along the vertical guiding plate 41 through the sliding rolling balls 43;

[0082] The telescopic push rod 44, the outer surface of the telescopic push rod 44 is slidably connected to the inner cavity of the vertical guiding plate 41 through the slide rail. One end of the telescopic push rod 44 is fixedly connected to the outer surface of the wall-attached sliding plate 42. The other end of the telescopic push rod 44 is provided with a milling component 5. The telescopic push rod 44 can push the milling component 5 by stretching the middle cylinder of itself, and move the milling component 5 in the direction close to the steering pump housing 35.

[0083] The milling component 5 includes,

[0084] The wall-attached sliding shell 51, the outer surface of the wall-attached sliding shell 51 is fixedly connected to the end of the telescopic push rod 44 away from the wall-attached sliding plate 42;

[0085] Docking searchlight 52, the docking searchlight 52 is arranged in the inner cavity of the wall-attached sliding shell 51 through a bayonet, used to search for the position of the steering pump housing 35, send a picture signal to the receiver 64, and the receiver 64 controls and adjusts the motor 61 to rotate according to the deviation distance of the steering pump housing 35 in the picture, and the friction roller 62 drives the steering pump housing 35 to slide;

[0086] Axle center slider 53, the outer surface of the axle center slider 53 is slidably connected to the inner wall of the wall-attached sliding shell 51, and a milling end 54 is arranged at the axle center of the axle center slider 53. The axle center slider 53 drives the milling end 54 to rotate at high speed through the internal motor, and the outer surface of the clamped steering pump housing 35 is milled by the milling end 54. The milling end 54 can also be replaced with a threaded head for drilling to expand the opening at the axle center of the steering pump housing 35;

[0087] Pusher 55, the outer surface of the pusher 55 is slidably connected to the outer surface of the wall-attached sliding shell 51 through a sleeve;

[0088] Sliding push rod 56, one end of the sliding push rod 56 is fixedly connected to the inner cavity of the pusher 55, and the other end of the sliding push rod 56 is fixedly connected to the outer surface of the axle center slider 53. The pusher 55 pushes the solid rod, that is, the thin rod part, inside the inner wall of the hollow sliding push rod 56 by pressurization, so that the thin rod pushes the axle center slider 53 to drive the milling end 54 to move, and the milling end 54 can move freely in the plane where the wall-attached sliding shell 51 is located.

[0089] The accommodating component 1 includes,

[0090] Processing box 11, the processing box 11 is arranged on the ground;

[0091] One-way revolving door 12, the number of one-way revolving doors 12 is two, and the outer surface of the one-way revolving door 12 is rotatably connected to the inner cavity of the processing box 11 through a rotating shaft. A front opening allowing the one-way revolving door 12 to be arranged is opened on the front of the processing box 11, and a secondary opening for maintenance and cleaning of metal chips is arranged on the back;

[0092] Side pusher 13, a propulsion slide rod 14 is evenly arranged in the inner cavity of the side pusher 13, and a clamping plate component 15 is arranged at one end of the propulsion slide rod 14 away from the side pusher 13. The side pusher 13 can, under system control, control the clamping plate component 15 to perform a sliding movement by driving the propulsion slide rod 14 to slide.

[0093] The deflection component 2 includes,

[0094] Torque disc 21, the torque disc 21 is arranged at the axle center of the upper surface of the processing box 11;

[0095] The thick rotating shaft 22, the top end of the thick rotating shaft 22 is fixedly connected to the axis of the inner cavity of the torsion disk 21, and the bottom end of the thick rotating shaft 22 is rotatably connected to the inner cavity of the processing box 11. The torsion disk 21 drives the wheel body to rotate through the internal motor, and the thick rotating shaft 22 at the torsion axis;

[0096] The connecting support rod 23, the outer surface of the thick rotating shaft 22 is fixedly connected to the outer surface of the container shell 31 through the connecting support rod 23.

[0097] The clamping plate component 15 includes,

[0098] The vertical sliding shell 151, the front surface of the vertical sliding shell 151 is evenly provided with fixed plate clamping grooves 152. The shape of the inner wall of each fixed plate clamping groove 152 is adapted to the shape of the outer surface of the lateral fixed plate 36. And the inner cavity of the vertical sliding shell 151 is evenly provided with adsorption magnets 153. Since the lateral fixed plate 36 contains iron inside, the lateral fixed plate 36 can be temporarily placed on the fixed plate clamping groove 152 under the magnetic force of the adsorption magnets 153;

[0099] The double-headed rotating box 154, both sides of the output shaft of the double-headed rotating box 154 are symmetrically provided with docking sleeves 155. The inner cavity of the docking sleeve 155 is provided with a hexagonal groove on the side far from the double-headed rotating box 154, and one end of the inner cavity of the docking sleeve 155 far from the double-headed rotating box 154 extends into the inside of the fixed plate clamping groove 152. The docking sleeve 155 can be docked with the end of the docking bolt 37 through its hexagonal groove. Under the rotation of the double-headed rotating box 154, the docking bolt 37 can be twisted through the docking sleeve 155.

[0100] The drainage component 7 includes,

[0101] The fixed pump 71, the outer surface of the fixed pump 71 is fixedly connected to the inner wall of the container shell 31, and the exhaust port of the fixed pump 71 extends to the outside of the container shell 31;

[0102] The docking suction cup group 72, the docking suction cup group 72 is arranged on the inner wall of the container shell 31, and a through connecting pipe 73 is fixedly connected to the inner cavity of the docking suction cup group 72. The top end of the through connecting pipe 73 extends into the inside of the air inlet of the fixed pump 71. Each docking suction cup group 72 is composed of five hollow docking suction cups 72. The five hollow docking suction cups 72 are combined together through the through connecting pipe 73. When the fixed pump 71 sucks air through the suction port at the bottom, each docking suction cup sucks air through the holes on the outer surface facing the position where the built-in rotating plate 33 is located. However, there is a certain distance between the docking suction cup and the built-in rotating plate 33. Therefore, the built-in rotating plate 33 can rotate towards the direction close to the docking suction cup under the action of the air flow, thereby opening the accommodation groove 32.

[0103] When controlling the milling component 5 to mill the outer surface of the steering pump housing 35, the wall-attached slide plate 42 slides to a position facing the steering pump housing 35 and stops. Subsequently, the wall-attached slide housing 51 is pushed towards the steering pump housing 35 by the telescopic push rod 44. Since the steering pump housing 35 has been calibrated, the milling head 54 is facing the axis of the steering pump housing 35 at this time. Then, the axis slider 53 drives the milling head 54 to rotate at high speed, and the surrounding push rod devices 55 control the movement trajectory of the milling head 54 by cooperating to push the sliding push rod 56, so that the milling head 54 performs a comprehensive milling process on the front surface of the steering pump housing 35. After a single steering pump housing 35 is processed, the steering pump housing 35 below is processed in sequence until the milling of the steering pump housing 35 inside the container housing 31 here is completed. Subsequently, the torsion disc 21 twists the thick rotating shaft 22 to rotate half a turn again to process the steering pump housing 35 inside the next group of container housings 31.

[0104] After the friction roller 62 controls the fine adjustment of the sliding of the steering pump housing 35, it is necessary to use the side position push rod devices 13 on both sides to slide the clamping plate component 15 towards the side of the container housing 31. Then, the lateral fixing plate 36 adsorbed inside the fixing plate clamping groove 152, the thicker part in the middle is inserted into the side part of the accommodating groove 32 and squeezes the steering pump housing 35. The hexagonal groove of the docking sleeve 155 is also sleeved on the outer surface of the docking bolt 37, and the double-headed rotating box 154 drives the docking bolt 37 to rotate through the docking sleeve 155, so that the docking bolt 37 is driven into the container housing 31. Then, the lateral fixing plates 36 on both sides completely fix the steering pump housing 35 inside the accommodating groove 32.

[0105] When milling the outer surface and the axis of the steering pump housing 35, the metal chips shed by milling are adsorbed into the inside of the container housing 31 by the docking suction cup group 72. At this time, through the suction effect, the docking suction cup group 72 opens the built-in rotating plate 33 of the accommodating groove 32 towards the inside of the container housing 31, and the metal chips enter the inside of the container housing 31 through the through hole at the axis of the steering pump housing 35. Subsequently, the fixed pump 71 temporarily stops the suction work, and the metal chips attached to the outer surface of the docking suction cup group 72 will accumulate inside the container housing 31 due to their own gravity, completing the collection work of the metal chips.

[0106] After milling, the lateral fixing plate 36 is removed by reverse screwing the docking bolt 37. Subsequently, the one-way rotating door 12 of the processing box 11 is opened to take out the steering pump housing 35 inside the accommodating groove 32, and the milled steering pump housing 35 is obtained.

[0107] Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all embodiments. All other embodiments obtained by those of ordinary skill in the art and related fields based on the embodiments of the present invention without creative efforts shall fall within the scope of protection of the present invention. The structures, devices, and operation methods not specifically described and explained in the present invention shall be implemented by conventional means in the art unless otherwise specified and limited.

Claims

1. A milling processing device for a steering pump housing, comprising: A housing component (1); A deflection component (2), arranged at the axis center of the housing component (1); A clamping component (3), arranged outside the deflection component (2), with the steering pump housing (35) arranged inside the clamping component (3); A processing component (4), used for milling the outer surface of the steering pump housing (35); It is characterized in that: the clamping component (3) includes: An integrated housing (31), on one side of the inner cavity of the integrated housing (31) far from the deflection component (2), accommodation grooves (32) are evenly arranged, and the steering pump housing (35) is arranged inside the accommodation grooves (32); An inner deflection component (6), used to drive the internal steering pump housing (35) to perform a biased sliding movement; A drainage component (7), used to absorb the debris generated by the milling of the steering pump housing (35).

2. The milling processing equipment for a steering pump housing according to claim 1, characterized in that: The integrated housing (31) includes, An internal rotating plate (33), the outer surface of the internal rotating plate (33) is rotationally connected to the inner wall of the integrated housing (31) through the accommodation groove (32), and rebound cylinders (34) are rotationally connected to both the upper and lower sides of the internal rotating plate (33) through rotating shafts; A lateral fixing plate (36), on both sides of the inner cavity of the lateral fixing plate (36), docking bolts (37) are rotationally connected, the outer surface of the docking bolts (37) is threadedly connected to the inner cavity of the integrated housing (31) through bolt holes, and the lateral fixing plate (36) is used to limit the steering pump housing (35).

3. The milling processing equipment for a steering pump housing according to claim 2, wherein: The inner deflection component (6) includes, An adjustment motor (61), arranged on the inner wall of the integrated housing (31), a friction roller (62) is arranged on the outer surface of the output shaft of the adjustment motor (61), and the friction roller (62) extends into the accommodation groove (32) through a turning slot, and the outer surface of the friction roller (62) contacts the outer surface of the steering pump housing (35); A sensor (63), arranged on the inner wall of the integrated housing (31), and the inner cavity of the sensor (63) is fixedly connected to the inner cavity of the adjustment motor (61) through a wire; A receiver (64), arranged on the outer surface of the integrated housing (31), and the inner cavity of the receiver (64) is fixedly connected to the inner cavity of the sensor (63) through a wire.

4. The milling processing equipment for a steering pump housing according to claim 3, wherein: The processing component (4) includes, A vertical guiding plate (41), arranged at the axis center of the back of the inner cavity of the integrated housing (31), and a sliding rail is arranged at the axis center of the inner cavity of the vertical guiding plate (41); A wall - adhering sliding plate (42), on both sides of the outer surface of the wall - adhering sliding plate (42), sliding balls (43) are symmetrically arranged, and the outer surface of the wall - adhering sliding plate (42) is slidably connected to the outer surface of the vertical guiding plate (41) through the sliding balls (43); A telescopic push rod (44), the outer surface of the telescopic push rod (44) is slidably connected to the inner cavity of the vertical guiding plate (41) through the sliding rail, one end of the telescopic push rod (44) is fixedly connected to the outer surface of the wall - adhering sliding plate (42), and the other end of the telescopic push rod (44) is provided with a milling component (5).

5. The milling processing equipment for a steering pump housing according to claim 4, wherein: The milling component (5) includes, The wall - adhering sliding shell (51), the outer surface of the wall - adhering sliding shell (51) is fixedly connected to one end of the telescopic push rod (44) far from the wall - adhering sliding plate (42); The docking searchlight (52), the docking searchlight (52) is arranged in the inner cavity of the wall - adhering sliding shell (51) through a bayonet, used to search for the position of the steering pump housing (35), send a picture signal to the receiver (64), and the receiver (64) controls and adjusts the motor (61) to rotate according to the deviation distance of the steering pump housing (35) in the picture, and the friction roller (62) drives the steering pump housing (35) to slide; The axis slider (53), the outer surface of the axis slider (53) is slidably connected to the inner wall of the wall - adhering sliding shell (51), and a milling end (54) is arranged at the axis of the axis slider (53); The push - rod device (55), the outer surface of the push - rod device (55) is slidably connected to the outer surface of the wall - adhering sliding shell (51) through a sleeve; The sliding push rod (56), one end of the sliding push rod (56) is fixedly connected to the inner cavity of the push - rod device (55), and the other end of the sliding push rod (56) is fixedly connected to the outer surface of the axis slider (53).

6. The milling processing equipment for a steering pump housing according to claim 5, characterized in that: The accommodating component (1) includes, The processing box (11), the processing box (11) is arranged on the ground; The one - way rotating door (12), the number of the one - way rotating doors (12) is two, and the outer surface of the one - way rotating door (12) is rotationally connected to the inner cavity of the processing box (11) through a rotating shaft; The side - position push - rod device (13), the inner cavity of the side - position push - rod device (13) is evenly provided with a pushing slide rod (14), and a clamping plate component (15) is arranged at one end of the pushing slide rod (14) far from the side - position push - rod device (13).

7. The milling processing equipment for the steering pump housing according to claim 1, characterized in that: The deflecting component (2) includes, The torsion disc (21), the torsion disc (21) is arranged at the axis of the upper surface of the processing box (11); The thick rotating shaft (22), the top of the thick rotating shaft (22) is fixedly connected to the axis of the inner cavity of the torsion disc (21), and the bottom of the thick rotating shaft (22) is rotationally connected to the inner cavity of the processing box (11); The connecting support rod (23), the outer surface of the thick rotating shaft (22) is fixedly connected to the outer surface of the container shell (31) through the connecting support rod (23).

8. The milling processing equipment for a steering pump housing according to claim 6, characterized in that: The clamping plate component (15) includes, The vertical sliding shell (151), the front surface of the vertical sliding shell (151) is evenly provided with fixed - plate clamping grooves (152), and the inner cavity of the vertical sliding shell (151) is evenly provided with adsorption magnets (153); The double - headed rotating box (154), docking sleeves (155) are symmetrically arranged on both sides of the output shaft of the double - headed rotating box (154), a hexagonal groove is opened on one side of the inner cavity of the docking sleeve (155) far from the double - headed rotating box (154), and one end of the inner cavity of the docking sleeve (155) far from the double - headed rotating box (154) extends into the inside of the fixed - plate clamping groove (152).

9. The milling processing equipment for a steering pump housing according to claim 1, characterized in that: The drainage component (7) includes, The fixed pump (71), the outer surface of the fixed pump (71) is fixedly connected to the inner wall of the container shell (31), and the exhaust port of the fixed pump (71) extends to the outside of the container shell (31); Docking suction cup group (72), the docking suction cup group (72) is arranged on the inner wall of the container housing (31), and a through-connection pipe (73) is fixedly connected to the inner cavity of the docking suction cup group (72), and the top end of the through-connection pipe (73) extends into the intake port of the fixed pump (71).

Images