Equipment for processing home mirror doors

Abstract

A device for processing household mirror doors belongs to the technical field of mechanical equipment, and comprises a double-process processing device for frosting and cutting original lenses, a conveying device for conveying the original lenses to the double-process processing device, a material placing rack for placing the original lenses, and a material taking robot for taking and placing the original lenses on the material placing rack to the conveying device. By arranging a frosting processing device below a processing workbench and a cutting processing device above the workbench, the original lenses can be processed by the double-process processing device to realize simultaneous frosting and cutting double-process processing, without the need for unloading and reloading, step-by-step processing and other process operations, thus shortening the processing time, greatly improving the processing efficiency of household mirror doors, and realizing automatic processing, in which the staff only needs to place the original lenses on the material placing rack, without the need for manual loading and unloading, so that the processing equipment meets the requirements of large-scale and efficient processing.

Description

Technical Field

[0001] The invention belongs to the technical field of mechanical equipment, and in particular relates to equipment for processing household mirror doors. Background Art

[0002] With the rise of smart home, more and more people are buying smart home products, so the demand for smart home products is also increasing. Automated equipment is needed for processing and production to meet large-scale product demand. For home products such as bathroom cabinets, dressing tables, wardrobes, etc., in the smart home transformation design, lighting or fill lights are generally configured for home mirror doors. At this time, it is necessary to frost the back of the mirror to form a groove, and install a light strip in the groove. The light of the light strip can be emitted through the mirror surface.

[0003] In the existing processing technology, the original lens needs to be cut first, and then the split plate is broken along the cutting line to form several lenses of set size, and then the cut lenses are frosted. In this process, the lenses need to be unloaded and loaded multiple times, and each lens is frosted separately, which takes a long time and has low processing efficiency, and cannot meet the requirements of large-scale and efficient processing. Summary of the invention

[0004] In order to overcome the deficiencies of the prior art, the present invention provides a device for processing home mirror doors.

[0005] The technical solution adopted by the present invention to solve its technical problem is:

[0006] A device for processing household mirror doors, comprising a double-process processing device for frosting and cutting original lenses, a conveying device for conveying original lenses to the double-process processing device, a material placing rack for placing original lenses, and a material taking manipulator for taking and placing the original lenses on the material placing rack to the conveying device, wherein the material placing rack, the conveying device and the double-process processing device are arranged in sequence, and the material taking manipulator is arranged between the material placing rack and the conveying device, and the double-process processing device comprises a processing table, a conveyor belt, a frosting device and a cutting device, wherein the conveyor belt is installed in the processing table, the top surface of the conveyor belt protrudes from the top surface of the processing table, and the conveyor belt is used to convey the original lenses on the processing table; the frosting device is installed below the processing table, and the frosting device is used to frost the bottom surface of the original lenses; the cutting device is installed above the processing table, and the cutting device is used to cut the original lenses; the processing table is also provided with two travel switches for controlling the conveying position of the original lenses, and the two travel switches are distributed along the same horizontal interval.

[0007] In the present invention, the cutting processing device includes a cutting head assembly, a rotating mechanism for driving the cutting head assembly to rotate, an up-down moving mechanism for driving the cutting head assembly to move up and down, a left-right moving mechanism for driving the cutting head assembly to move left and right, a front-to-back moving mechanism for driving the cutting head assembly to move forward and backward, and a gantry. Two front-to-back moving mechanisms are provided, and the two front-to-back moving mechanisms are respectively installed on the left and right sides of the processing workbench, and the bottom of the gantry is respectively connected to the two front-to-back moving mechanisms. The gantry is horizontally erected on the processing workbench, the left-right moving mechanism is installed on the gantry, and the up-down moving mechanism is installed on the left-right moving mechanism. The rotating mechanism and the cutting head assembly are both installed on the up-down moving mechanism, and the rotating mechanism is transmission-connected to the cutting head assembly.

[0008] In the present invention, the cutting head assembly includes a rolling cutter, a head mounting seat, a head outer sleeve, a head rotating gear, a head inner tube and a head cover. The rolling cutter is rotatably mounted on the bottom of the head mounting seat, the top of the head mounting seat is fixedly mounted on the bottom of the head outer sleeve, the head rotating gear is fixedly sleeved on the outer wall of the head outer sleeve, the head inner tube is installed inside the head outer sleeve, and the head cover is fixedly mounted on the top of the head outer sleeve.

[0009] In the present invention, a cutter head oil passage for adding cutting lubricating oil to the rolling cutter during cutting processing is provided in the cutter head mounting seat, the cutter head inner tube is provided with an inner tube oil passage extending axially, an outer tube oil passage is formed between the outer wall of the cutter head inner tube and the inner wall of the cutter head outer sleeve, the bottom of the cutter head outer sleeve is provided with a first connecting oil passage extending upward and connected to the inner tube oil passage, the lower end of the first connecting oil passage is connected to the upper end of the cutter head oil passage; the bottom of the cutter head inner tube is provided with a second connecting oil passage radially connecting the inner tube oil passage and the outer tube oil passage; the cutter head cover is provided with an oil inlet passage connected to the inner tube oil passage and an oil outlet passage connected to the outer tube oil passage.

[0010] In the present invention, a sealing piece for controlling the opening and closing of the oil passage between the inner tube oil passage and the first connecting oil passage is movably provided in the inner tube oil passage, the sealing piece is provided above the first connecting oil passage, the diameter of the inner tube oil passage is larger than the diameter of the sealing piece, and the diameter of the sealing piece is larger than the diameter of the first connecting oil passage.

[0011] In the present invention, a telescopic rod is connected to the bottom of the sealing sheet, a telescopic spring is mounted on the bottom outer wall of the telescopic rod, the bottom end of the telescopic rod is fixedly connected to a movable shaft frame, the bottom end of the telescopic spring abuts against the top surface of the movable shaft frame, the rolling cutter is rotatably mounted on the bottom of the cutter head mounting seat via a rotating shaft, and the bottom of the movable shaft frame is provided with two abutting legs extending downward and abutting against the top of the rotating shaft, and the two abutting legs are respectively located on both sides of the rolling cutter.

[0012] In the present invention, the processing workbench is provided with a plurality of processing areas divided according to the number of segments of the original lens, each processing area is correspondingly provided with a laser light-transmitting plate, and the laser light-transmitting plate is provided with a light-transmitting area corresponding to the shape of the frosting process.

[0013] In the present invention, the laser light-transmitting plate is further provided with a light-guiding structure for guiding the laser into the light-transmitting area. The light-guiding structure is arranged at the bottom of the light-transmitting area and extends along the light-transmitting area.

[0014] In the present invention, the frosting processing device includes a laser head, a laser moving seat, a transverse moving mechanism and a longitudinal moving mechanism. The number of the laser heads is equal to the number of processing areas, and each processing area is correspondingly configured with a laser head, and the laser head is located below the laser light-transmitting plate; the number of the laser moving seats is equal to the number of the laser heads, and each laser head is correspondingly configured with a laser moving seat, and the laser head is installed on the laser moving seat; the transverse moving mechanism extends left and right, and the transverse moving mechanism is provided with a plurality of groups, and a plurality of laser moving seats are installed on the transverse moving mechanism, and the plurality of laser moving seats move synchronously left and right under the drive of the transverse moving mechanism; the longitudinal moving mechanism extends front and back, and the longitudinal moving mechanism is provided with a group, and a plurality of groups of transverse moving mechanisms are sequentially installed on the longitudinal moving mechanism at intervals along the front and back direction, and a plurality of groups of transverse moving mechanisms move synchronously back and forth under the drive of the longitudinal moving mechanism.

[0015] In the present invention, two downwardly extending fixing rods are installed at the bottom of the gantry, the two fixing rods are arranged opposite to each other, and a vacuum cleaner for absorbing dust particles generated by sanding is fixedly connected to the bottom of the two fixing rods, and the dust suction port of the vacuum cleaner is arranged downward.

[0016] The beneficial effects of the present invention are as follows: by arranging a frosting processing device below the processing workbench and a cutting processing device above the workbench, the original lens can be simultaneously processed by frosting and cutting through the dual-process processing equipment, without the need for unloading and reloading, step-by-step processing and other process operations on the lens, thereby shortening the processing time and greatly improving the processing efficiency of the home mirror door. In addition, by arranging a material-taking robot and a conveying device, the processing of the home mirror door can be automated. The staff only needs to place the original lens on the material rack, without the need for manual loading and unloading, so that the processing equipment meets the requirements of large-scale and efficient processing. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a top view of the processing equipment of this embodiment;

[0018] Figure 2 is a three-dimensional diagram of the cutting processing device of this embodiment;

[0019] Figure 3This is a front view of the cutting processing device of this embodiment;

[0020] Figure 4 An exploded view of the cutting head assembly of this embodiment;

[0021] Figure 5 This is a bottom view of the cutting head assembly of this embodiment;

[0022] Figure 6 for Figure 5 A cross-sectional view of section AA in FIG.

[0023] Figure 7 for Figure 6 A cross-sectional view of section BB in FIG.

[0024] Figure 8 is a top view of the laser light-transmitting plate of this embodiment;

[0025] Fig. 9 for Figure 8 A cross-sectional view of section CC in FIG.

[0026] Fig.10 is a top view of the sanding processing device of this embodiment;

[0027] Fig.11 Schematic diagram of the original lens before and after processing of this embodiment. DETAILED DESCRIPTION

[0028] To make the purpose, technical solution and advantages of the embodiments of the present invention more clear, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present invention.

[0029] like Figures 1 to 11As shown, this embodiment discloses a device for processing home mirror doors, including a double-process processing device 1 for frosting and cutting original lenses, a conveying device 2 for conveying original lenses to the double-process processing device 1, a material placing rack 3 for placing original lenses, and a material taking manipulator 4 for taking and placing the original lenses on the material placing rack 3 to the conveying device 2, wherein the material placing rack 3, the conveying device 2 and the double-process processing device 1 are arranged in sequence, and the material taking manipulator 4 is arranged between the material placing rack 3 and the conveying device 2, and the double-process processing device 1 includes a processing workbench 11, a conveyor belt 12, a frosting machine 13, and a conveyor belt 14. The conveyor belt 12 is installed in the processing table 11, and the top surface of the conveyor belt 12 protrudes from the top surface of the processing table 11. The conveyor belt 12 is used to transport the original lens on the processing table 11; the frosting device 13 is installed below the processing table 11, and the frosting device 13 is used to frost the bottom surface of the original lens; the cutting device 14 is installed above the processing table 11, and the cutting device 14 is used to cut the original lens so that the original lens is divided into a set size. The processing workbench 11 is also provided with two travel switches 15 for controlling the conveying position of the original lens. The two travel switches 15 are distributed along the same horizontal interval. When the conveyor belt 12 conveys the original lens to the set position, the end face of the original lens touches the travel switch 15, the conveyor belt 12 stops working, and the frosting processing device 13 and the cutting processing device 14 perform frosting and cutting processing on the original lens respectively. After the frosting and cutting processing are completed, the conveyor belt 12 starts working again, and the processed original lens is conveyed to the next process, and the next original lens to be processed is conveyed to the set position, and the above process is repeated. The processing flow can be; at the same time, the two travel switches 15 of this embodiment can also determine whether the original lens is offset when entering the set position. When the end face of the original lens touches one of the travel switches 15, the conveyor belt 12 stops working. If the end face of the original lens touches the other travel switch 15 at the same time, the original lens is not offset; if the end face of the original lens does not touch the other travel switch 15 at this time, the original lens is offset, the equipment stops working, and sends an alarm signal to the outside, so as to avoid the original lens being processed when the position is offset, resulting in deviations in product processing.

[0030] Specifically, the cutting processing device 14 includes a cutting head assembly 141, a rotating mechanism 142 for driving the cutting head assembly 141 to rotate, an up-down moving mechanism 143 for driving the cutting head assembly 141 to move up and down, a left-right moving mechanism 144 for driving the cutting head assembly 141 to move left and right, a front-to-back moving mechanism 145 for driving the cutting head assembly 141 to move forward and backward, and a gantry 146. The front-to-back moving mechanism 145 is provided with two, and the two front-to-back moving mechanisms 145 are respectively installed on the left and right sides of the processing workbench 11, and the bottom of the gantry 146 is respectively connected to the two front-to-back moving mechanisms 145. The gantry 146 is horizontally erected on the processing workbench 11, the left-right moving mechanism 144 is installed on the gantry 146, and the up-down moving mechanism 143 is installed on the left-right moving mechanism 144. The rotating mechanism 142 and the cutting head assembly 141 are both installed on the up-down moving mechanism 143, and the rotating mechanism 142 is transmission-connected to the cutting head assembly 141. When the cutting processing device 14 is cutting the original lens, the up-down moving mechanism 143 drives the cutting head assembly 141 to move upward, and the cutting head assembly 141 is separated from the top surface of the original lens. After the cutting head assembly 141 is driven to move to the starting position of the cutting processing by the left-right moving mechanism 144 and the front-back moving mechanism 145, the cutting head assembly 141 is controlled to rotate by the rotating mechanism 142 so that the direction of the cutting head assembly 141 corresponds to the direction of the cutting processing. The cutting head assembly 141 is driven downward by the up-down moving mechanism 143 to contact the top surface of the original lens. The cutting head assembly 141 is driven to move left-right or front-back by the left-right moving mechanism 144 or the front-back moving mechanism 145 to realize the cutting processing of the original lens in the left-right direction or front-back direction.

[0031] The cutting head assembly 141 includes a rolling cutter 100, a head mounting seat 101, a head outer sleeve 102, a head rotating gear 103, a head inner tube 104 and a head cover 105. The rolling cutter 100 is rotatably mounted on the bottom of the head mounting seat 101, the top of the head mounting seat 101 is fixedly mounted on the bottom of the head outer sleeve 102, the head rotating gear 103 is fixedly sleeved on the outer wall of the head outer sleeve 102, the head inner tube 104 is installed inside the head outer sleeve 102, and the head cover 105 is fixedly mounted on the top of the head outer sleeve 102. By installing the cutter head rotating gear 103 on the outer wall of the cutter head outer sleeve 102, the rotating mechanism 142 includes a rotating motor 200 and a rotating gear 201. The rotating gear 201 is installed on the rotating shaft of the rotating motor 200. The rotating gear 201 is meshed with the cutter head rotating gear 103. When cutting, the rotating motor 200 can be operated to drive the rotating gear 201 to rotate, and then drive the cutter head rotating gear 103 to rotate. Therefore, the cutting direction of the rolling cutter 100 can be controlled by the rotating mechanism 142, so that the rolling cutter 100 can perform cutting work in different directions.

[0032] When the rolling cutter 100 is cutting the original lens, in order to improve the smoothness of the movement of the rolling cutter 100 and avoid the problem of the rolling cutter 100 getting stuck when cutting the surface of the original lens, it is necessary to add cutting lubricant on the surface of the original lens along the cutting direction or to the rolling cutter 100, so as to reduce the friction when the rolling cutter 100 contacts the original lens. Specifically, the cutter head mounting seat 101 of this embodiment is provided with a cutter head oil passage 1011 for adding cutting lubricant to the rolling cutter 100 during cutting, the cutter head inner tube 104 is provided with an inner tube oil passage 1041 extending in the axial direction, an outer tube oil passage 1042 is formed between the outer wall of the cutter head inner tube 104 and the inner wall of the cutter head outer shaft sleeve 102, and the bottom of the cutter head outer shaft sleeve 102 is provided with a first oil passage 1011 extending upward and connected to the inner tube oil passage 1041 The lower end of the first connecting oil passage 1021 is connected to the upper end of the cutter head oil passage 1011; the bottom of the cutter head inner tube 104 is provided with a second connecting oil passage 1043 radially connecting the inner tube oil passage 1041 and the outer tube oil passage 1042; the cutter head cover 105 is provided with an oil inlet passage 1051 connected to the inner tube oil passage 1041 and an oil outlet passage 1052 connected to the outer tube oil passage 1042; the inner tube oil passage 1041 A sealing piece 106 is provided inside the movable part for controlling the open and close of the oil passage between the inner tube oil passage 1041 and the first connecting oil passage 1021, and the sealing piece 106 is arranged above the first connecting oil passage 1021, and the diameter of the inner tube oil passage 1041 is larger than the diameter of the sealing piece 106, and the diameter of the sealing piece 106 is larger than the diameter of the first connecting oil passage 1021; when the sealing piece 106 is attached to the upper end of the first connecting oil passage 1021, the sealing piece 106 will block the cutting lubricant in the inner tube oil passage 1041 from flowing into the first connecting oil passage 1021, and at this time, no cutting lubricant flows out from the bottom of the cutting head assembly 141; when the sealing piece 106 moves upward along the inner tube oil passage 1041 and separates from the upper end of the first connecting oil passage 1021, the cutting lubricant in the inner tube oil passage 1041 can flow into the first connecting oil passage 1021, and at this time, cutting lubricant flows out from the bottom of the cutting head assembly 141. The bottom of the sealing piece 106 is connected to a telescopic rod 107, and the bottom outer wall of the telescopic rod 107 is sleeved with a telescopic spring 108. The bottom end of the telescopic rod 107 is fixedly connected to a movable shaft frame 109, and the bottom end of the telescopic spring 108 abuts against the top surface of the movable shaft frame 109. The rolling cutter 100 is rotatably mounted on the bottom of the cutter head mounting seat 101 through a rotating shaft 1010. The bottom of the movable shaft frame 109 is provided with two abutting legs extending downward and abutting against the top of the rotating shaft 1010, and the two abutting legs are respectively located on both sides of the rolling cutter 100.When cutting, the rolling cutter 100 is pressed against the original lens. Under the action of the upper pressure, the rolling cutter 100 moves upward, driving the rotating shaft 1010, the moving shaft frame 109, the telescopic rod 107 and the sealing piece 106 to move upward, the telescopic spring 108 is compressed, and the cutting lubricant in the inner tube oil passage 1041 can enter the cutter head oil passage 1011 through the first connecting oil passage 1021. The cutting lubricant is automatically added during the cutting process of the cutting head assembly 141. When the cutting is completed, the cutting cutter is separated from the original lens. At this time, the cutting cutter automatically moves downward under the elastic force of the telescopic spring 108, and the sealing piece 106 moves downward to block the upper end of the first connecting oil passage 1021. The cutting lubricant no longer flows out of the cutting head assembly 141, thereby realizing the function of automatically closing the cutting lubricant. In addition, when the equipment is used in a low-temperature environment, the fluidity of the cutting lubricant will decrease and even low-temperature condensation may occur, and the cutting lubricant cannot be effectively supplied. To address this problem, the cutting processing device 14 of this embodiment can solve it by circulating the cutting lubricant to keep it warm. The cutting lubricant is connected to the oil inlet channel 1051 from the constant temperature oil supply center through an oil pipe, and flows through the inner tube oil channel 1041, the second connecting oil channel 1043, the outer tube oil channel 1042 and the oil outlet channel 1052 in sequence. The oil outlet channel 1052 is also connected to the constant temperature oil supply center through an oil pipe, and the cutting lubricant in the oil outlet channel 1052 flows back to the constant temperature oil supply center through the oil pipe, thereby realizing the circulating flow and insulation of the cutting lubricant and avoiding the problem of reduced fluidity of the cutting lubricant.

[0033] In this embodiment, the processing workbench 11 is provided with a plurality of processing areas divided according to the number of segments of the original lens, and each processing area corresponds to a laser light-transmitting plate 111, and the laser light-transmitting plate 111 is provided with a light-transmitting area 112 corresponding to the shape of the frosting process. When the frosting process is performed, the laser is emitted from the light-transmitting area 112 and irradiated on the bottom surface of the lens, so that a groove corresponding to the shape of the light-transmitting area 112 is obtained by frosting the bottom surface of the lens, and the groove is used to install the light strip.

[0034] In this embodiment, the laser light-transmitting plate 111 is further provided with a light-guiding structure 113 for guiding the laser to enter the light-transmitting area 112, and the light-guiding structure 113 is provided at the bottom of the light-transmitting area 112, and the light-guiding structure 113 extends along the light-transmitting area 112. By providing the light-guiding structure 113 at the bottom of the light-transmitting area 112, the laser emitted by the frosting processing device 13 can fully pass through the light-transmitting area 112 to irradiate the bottom surface of the lens for frosting processing, thereby improving the utilization rate of the laser and ensuring the accuracy of frosting processing.

[0035] In this embodiment, the frosting processing device 13 includes a laser head 131, a laser moving seat 132, a horizontal moving mechanism 133 and a vertical moving mechanism 134. The number of the laser heads 131 is equal to the number of processing areas, and each processing area is correspondingly equipped with a laser head 131, and the laser head 131 is located below the laser light-transmitting plate 111; the number of the laser moving seats 132 is equal to the number of the laser heads 131, and each laser head 131 is correspondingly equipped with a laser moving seat 132, and the laser head 131 is installed on the laser moving seat 132; The moving mechanism 133 extends left and right, and the transverse moving mechanism 133 is provided with several groups, and several laser moving seats 132 are installed on the transverse moving mechanism 133, and the several laser moving seats 132 move left and right synchronously under the drive of the transverse moving mechanism 133; the longitudinal moving mechanism 134 extends front and back, and the longitudinal moving mechanism 134 is provided with one group, and several groups of transverse moving mechanisms 133 are sequentially installed on the longitudinal moving mechanism 134 at intervals along the front and back direction, and the several groups of transverse moving mechanisms 133 move forward and backward synchronously under the drive of the longitudinal moving mechanism 134. When performing frosting processing, the synchronous frosting processing of multiple split lenses can be realized through the setting of the transverse moving mechanism 133 and the longitudinal moving mechanism 134, which improves the processing efficiency and ensures the consistency of the processing of each lens.

[0036] Furthermore, two downwardly extending fixed rods 147 are installed at the bottom of the gantry 146, and the two fixed rods 147 are arranged opposite to each other. A vacuum cleaner 148 for absorbing dust particles generated by the frosting process is fixedly connected to the bottom of the two fixed rods 147, and the suction port of the vacuum cleaner 148 is arranged downward. When the original lens is frosted and cut, the conveyor belt 12 conveys the processed original lens away from the processing table 11. During this process, the front-rear moving mechanism 145 drives the gantry 146 and the vacuum cleaner 148 to follow behind the original lens. The vacuum cleaner 148 removes the dust particles generated by the original lens during the frosting process, so as to facilitate the next original lens to enter the processing table 11 for processing.

[0037] In this embodiment, the up and down moving mechanism 143, the lateral moving mechanism 133 and the longitudinal moving mechanism 134 all use a nut-screw transmission mechanism to achieve movement control; the left and right moving mechanism 144 and the front and back moving mechanism 145 use a gear rack transmission mechanism to achieve movement control.

[0038] The above description is only a preferred embodiment of the present invention. Any technical solution that achieves the purpose of the present invention by substantially the same means belongs to the protection scope of the present invention.

Claims

1. A device for processing home mirror doors, characterized in that: The invention comprises a double-process processing device (1) for grinding and cutting an original lens, a conveying device (2) for conveying the original lens to the double-process processing device (1), a material placing rack (3) for placing the original lens, and a material taking robot (4) for taking and placing the original lens on the material placing rack (3) to the conveying device (2), wherein the material placing rack (3), the conveying device (2) and the double-process processing device (1) are arranged in sequence, and the material taking robot (4) is arranged between the material placing rack (3) and the conveying device (2), and the double-process processing device (1) comprises a processing workbench (11), a conveying belt (12), a grinding processing device (13) and a cutting processing device (14), and the conveying belt (12) is installed on the loading rack (3). In the processing workbench (11), the top surface of the conveyor belt (12) protrudes from the top surface of the processing workbench (11), and the conveyor belt (12) is used to convey the original lens on the processing workbench (11); the frosting processing device (13) is installed below the processing workbench (11), and the frosting processing device (13) is used to perform frosting processing on the bottom surface of the original lens; the cutting processing device (14) is installed above the processing workbench (11), and the cutting processing device (14) is used to perform cutting processing on the original lens; the processing workbench (11) is also provided with two travel switches (15) for controlling the conveying position of the original lens, and the two travel switches (15) are distributed along the same horizontal interval; The cutting processing device (14) comprises a cutting head assembly (141), wherein the cutting head assembly (141) comprises a rolling cutter (100), a cutter head mounting seat (101), a cutter head outer shaft sleeve (102), a cutter head rotating gear (103), a cutter head inner tube (104) and a cutter head sealing cover (105), wherein the rolling cutter (100) is rotatably mounted on the bottom of the cutter head mounting seat (101), the top of the cutter head mounting seat (101) is fixedly mounted on the bottom of the cutter head outer shaft sleeve (102), the cutter head rotating gear (103) is fixedly sleeved on the outer wall of the cutter head outer shaft sleeve (102), the cutter head inner tube (104) is mounted inside the cutter head outer shaft sleeve (102), and the cutter head sealing cover (105) is provided. The cover (105) is fixedly mounted on the top of the cutter head outer shaft sleeve (102); the cutter head mounting seat (101) is provided with a cutter head oil passage (1011) for adding cutting lubricating oil to the rolling cutter (100) during cutting processing; the cutter head inner tube (104) is provided with an inner tube oil passage (1041) extending along the axial direction; an outer tube oil passage (1042) is formed between the outer wall of the cutter head inner tube (104) and the inner wall of the cutter head outer shaft sleeve (102); the bottom of the cutter head outer shaft sleeve (102) is provided with a first connecting oil passage (1021) extending upward and connected to the inner tube oil passage (1041); the lower end of the first connecting oil passage (1021) is connected to the upper end of the cutter head oil passage (1011); A second connecting oil passage (1043) is provided at the bottom of the cutter head inner tube (104) and is connected to the inner tube oil passage (1041) and the outer tube oil passage (1042) in a radial direction; the cutter head cover (105) is provided with an oil inlet passage (1051) connected to the inner tube oil passage (1041) and an oil outlet passage (1052) connected to the outer tube oil passage (1042); a sealing piece (106) is movably provided in the inner tube oil passage (1041) for controlling the on-off of the oil passage between the inner tube oil passage (1041) and the first connecting oil passage (1021); the sealing piece (106) is provided above the first connecting oil passage (1021); the diameter of the inner tube oil passage (1041) is larger than the diameter of the sealing piece (106). The diameter of the sealing sheet (106) is larger than the diameter of the first connecting oil passage (1021); when the sealing sheet (106) is attached to the upper end of the first connecting oil passage (1021), the sealing sheet (106) blocks the cutting lubricating oil in the inner tube oil passage (1041) from flowing into the first connecting oil passage (1021), and at this time, no cutting lubricating oil flows out of the bottom of the cutting head assembly (141); when the sealing sheet (106) moves upward along the inner tube oil passage (1041) and detaches from the upper end of the first connecting oil passage (1021), the cutting lubricating oil in the inner tube oil passage (1041) can flow into the first connecting oil passage (1021), and at this time, cutting lubricating oil flows out of the bottom of the cutting head assembly (141).

2. The device for processing home mirror doors according to claim 1, characterized in that: The cutting processing device (14) comprises a rotating mechanism (142) for driving the cutting head assembly (141) to rotate, an up-down moving mechanism (143) for driving the cutting head assembly (141) to move up and down, a left-right moving mechanism (144) for driving the cutting head assembly (141) to move left and right, a front-back moving mechanism (145) for driving the cutting head assembly (141) to move forward and backward, and a gantry (146), wherein two front-back moving mechanisms (145) are provided, and the two front-back moving mechanisms (145) are respectively mounted on the processing workbench ( 11), the bottom of the gantry (146) is respectively connected to two front and rear moving mechanisms (145), the gantry (146) is horizontally mounted on the processing workbench (11), the left and right moving mechanism (144) is mounted on the gantry (146), the up and down moving mechanism (143) is mounted on the left and right moving mechanism (144), the rotating mechanism (142) and the cutting head assembly (141) are both mounted on the up and down moving mechanism (143), and the rotating mechanism (142) is transmission-connected to the cutting head assembly (141).

3. The device for processing home mirror doors according to claim 2, characterized in that: The rotating mechanism (142) comprises a rotating motor (200) and a rotating gear (201); the rotating gear (201) is mounted on a rotating shaft of the rotating motor (200); and the rotating gear (201) meshes with a cutter head rotating gear (103).

4. The device for processing home mirror doors according to claim 2, characterized in that: The bottom of the sealing sheet (106) is connected to a telescopic rod (107), the bottom outer wall of the telescopic rod (107) is sleeved with a telescopic spring (108), the bottom end of the telescopic rod (107) is fixedly connected to a movable shaft frame (109), the bottom end of the telescopic spring (108) abuts against the top surface of the movable shaft frame (109), the rolling cutter (100) is rotatably mounted on the bottom of the cutter head mounting seat (101) via a rotating shaft (1010), and the bottom of the movable shaft frame (109) is provided with two abutting legs extending downward and abutting against the top of the rotating shaft (1010), and the two abutting legs are respectively located on two sides of the rolling cutter (100).

5. The device for processing home mirror doors according to claim 4, characterized in that: When cutting, the rolling cutter (100) is pressed against the original lens. Under the action of the upper pressure, the rolling cutter (100) moves upward, driving the rotating shaft (1010), the movable shaft frame (109), the telescopic rod (107) and the sealing plate (106) to move upward. The telescopic spring (108) is compressed, and the cutting lubricating oil in the inner tube oil passage (1041) can enter the cutter head oil passage (1011) through the first connecting oil passage (1021). The cutting cutter head assembly (141) automatically adds cutting lubricating oil when cutting. When cutting is completed, the rolling cutter (100) is separated from the original lens. At this time, the rolling cutter (100) automatically moves downward under the elastic force of the telescopic spring (108). At the same time, the sealing plate (106) moves downward to block the upper end of the first connecting oil passage (1021). The cutting cutter head assembly (141) no longer flows out the cutting lubricating oil, thereby realizing automatic closing of the cutting lubricating oil.

6. The device for processing home mirror doors according to claim 1, characterized in that: The cutting lubricating oil is connected to the oil inlet channel (1051) from the constant temperature oil supply center through an oil pipe, and flows through the inner tube oil channel (1041), the second connecting oil channel (1043), the outer tube oil channel (1042) and the oil outlet channel (1052) in sequence. The oil outlet channel (1052) is also connected to the constant temperature oil supply center through an oil pipe. The cutting lubricating oil in the oil outlet channel (1052) flows back to the constant temperature oil supply center through the oil pipe, thereby realizing the circulation and heat preservation of the cutting lubricating oil.

7. The device for processing home mirror doors according to claim 1, characterized in that: The processing workbench (11) is provided with a plurality of processing areas divided according to the number of segments of the original lens, each processing area is correspondingly provided with a laser light-transmitting plate (111), and the laser light-transmitting plate (111) is provided with a light-transmitting area (112) corresponding to the shape of the frosting process.

8. The device for processing home mirror doors according to claim 7, characterized in that: The laser light-transmitting plate (111) is further provided with a light-guiding structure (113) for guiding laser light to enter the light-transmitting area (112); the light-guiding structure (113) is arranged at the bottom of the light-transmitting area (112); and the light-guiding structure (113) extends along the light-transmitting area (112).

9. The device for processing home mirror doors according to claim 8, characterized in that: The frosting processing device (13) comprises a laser head (131), a laser moving seat (132), a transverse moving mechanism (133) and a longitudinal moving mechanism (134); the number of the laser heads (131) is equal to the number of processing areas, each processing area is correspondingly equipped with a laser head (131), and the laser head (131) is located below the laser light-transmitting plate (111); the number of the laser moving seats (132) is equal to the number of the laser heads (131), each laser head (131) is correspondingly equipped with a laser moving seat (132), and the laser head (131) is mounted on the laser moving seat (132); the transverse moving mechanism (133) is equal to the number of the laser heads (131), each laser head (131) is correspondingly equipped with a laser moving seat (132), and the laser head (131) is mounted on the laser moving seat (132); The moving mechanism (133) extends left and right, the transverse moving mechanism (133) is provided with a plurality of groups, a plurality of laser moving seats (132) are installed on the transverse moving mechanism (133), and the plurality of laser moving seats (132) move left and right synchronously under the drive of the transverse moving mechanism (133); the longitudinal moving mechanism (134) extends front and back, the longitudinal moving mechanism (134) is provided with a group, a plurality of groups of transverse moving mechanisms (133) are sequentially installed on the longitudinal moving mechanism (134) at intervals along the front and back direction, and the plurality of groups of transverse moving mechanisms (133) move front and back synchronously under the drive of the longitudinal moving mechanism (134).

10. The device for processing home mirror doors according to claim 2, characterized in that: Two downwardly extending fixing rods (147) are mounted at the bottom of the gantry (146); the two fixing rods (147) are arranged opposite to each other; a dust collector (148) for absorbing dust particles generated by sanding is fixedly connected to the bottom of the two fixing rods (147); the dust suction port of the dust collector (148) is arranged downward.

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