A goggle processing apparatus

Abstract

This invention discloses a mirror temple processing device, including a CNC machine tool, a cutting assembly, and a clamping assembly. A cooling water pipe for spraying water toward the mirror temple workpiece is provided at the position of the clamping assembly. A first slide rail with a "U"-shaped cross-section is fixed inside the CNC machine tool and located below the clamping assembly, allowing cooling water and cutting debris to slide out. A first extension portion extending toward the clamping assembly and allowing the processed mirror temple, cooling water, and cutting debris to fall into is integrally provided at one end of the first slide rail near the clamping assembly. A second slide rail with a "U"-shaped cross-section is integrally provided on the upper side of the first slide rail, allowing the mirror temple to slide out. An extraction assembly for extracting the mirror temple from the first slide rail into the second slide rail is provided between the second slide rail and the first slide rail. A second extension portion for sliding out of the mirror temple is integrally provided at the end of the second slide rail away from the clamping assembly. A first collection box is provided below the second extension portion, and a second collection box is provided below the first slide rail.

Description

Technical Field

[0001] This invention belongs to the field of mirror temple processing technology, and specifically relates to a mirror temple processing device. Background Technology

[0002] Eyeglasses consist of lenses and frames. Based on their purpose, they are categorized into 15 types: nearsighted glasses, farsighted glasses, reading glasses, astigmatism glasses, non-prescription glasses, computer glasses, safety glasses, swimming goggles, night vision glasses, e-sports gaming glasses, e-sports safety glasses, windproof goggles, sunglasses, toy glasses, and sunglasses.

[0003] Currently, Chinese patent CN209206610U, published on August 6, 2019, discloses an eyeglass temple cutting machine, including a frame, a processing area within the frame, a cutting mechanism and a clamping mechanism within the processing area, the cutting mechanism being connected to the frame via a displacement mechanism, the displacement mechanism being able to drive the cutting mechanism to slide up and down and left and right, the clamping mechanism being connected to the frame via a second moving mechanism, the second moving mechanism being able to push the clamping mechanism to move back and forth, the clamping mechanism including a front clamping assembly and a rear clamping assembly, the rear clamping assembly including a rear support plate connected to the second moving mechanism, a support frame slidingly mounted on the rear support plate, the support frame being connected to a third moving mechanism fixed on the rear support plate, a feeding plate fixed at the upper end of the support frame, a rear gripper assembly fixed at the front end of the support frame, two baffles fixed on the feeding plate, a push hole provided on the feeding plate, a push block provided in the push hole, the push block being connected to a feeding mechanism.

[0004] The process involves using a clamping mechanism to hold the temple material in place. After the cutting mechanism completes the process, the clamping mechanism is released, making it easy for the operator to remove the finished temple. However, the operator needs to reach into the clamping mechanism in the processing area to remove the material, which is inconvenient and does not improve the processing efficiency of multiple temples. Summary of the Invention

[0005] The purpose of this invention is to provide a mirror temple processing device that facilitates efficient material handling of mirror temples.

[0006] The above-mentioned technical objective of the present invention is achieved through the following technical solution: a mirror temple processing device, comprising a CNC machine tool, a cutting assembly and a clamping assembly located within the CNC machine tool, wherein a cooling water pipe for spraying water toward the mirror temple workpiece is provided at the position of the clamping assembly, and a first slide rail with a "U"-shaped cross-section is fixed within the CNC machine tool and located below the clamping assembly for the cooling water and cutting debris to slide out, the first slide rail extending downward at an angle away from the clamping assembly and extending out of the CNC machine tool, and an integrally provided end of the first slide rail near the clamping assembly facing toward the clamping assembly. The first extension extends laterally and allows the finished temple, cooling water, and cutting debris to fall into it. A second slide rail with a U-shaped cross-section is integrally provided on the upper side of the first slide rail for the temple to slide out. An extraction component for extracting the temple in the first slide rail into the second slide rail is provided between the second slide rail and the first slide rail. A second extension for the temple to slide out is integrally provided at the end of the second slide rail away from the clamping component. A first collection box for collecting the temple is provided below the second extension. A second collection box for collecting cooling water is provided below the end of the first slide rail away from the clamping component.

[0007] By adopting the above technical solution, after the temple on the clamping assembly is finished, the temple can fall downwards into the first extension after the clamping assembly releases the temple. Simultaneously, cooling water sprayed from the cooling water pipe and cutting debris generated during cutting by the cutting assembly will also fall into the first extension along with the temple. Since the first slide rail extends downwards away from the clamping assembly and extends outside the CNC machine tool, the temple, cooling water, and cutting debris can slide down the first extension into the first slide rail. As the temple slides down with the cooling water, the cutting debris adhering to the temple surface is washed off, thus achieving cleaning of the temple surface through cooling water. This process utilizes the lifting mechanism... The cleaning process involves retrieving the temple from the first slide rail and transferring it to the second slide rail, thus separating the temple from the cooling water and cutting debris environment. The temple then slides down the second slide rail and falls into the first collection box, where it is collected after surface cleaning. Meanwhile, the cooling water and cutting debris continuing to fall from the first slide rail also fall into the second collection box. This eliminates the need for manual removal of each finished temple from the clamping assembly; the temple is cleaned and collected in the first collection box immediately after being removed from the clamping assembly. This efficient process improves the overall processing efficiency of the temples.

[0008] A further configuration of the present invention includes: an extraction port located on the bottom wall of the second slide rail near one end of the first extension and communicating with the inside of the first slide rail; fixed arms located on both sides of the extraction port on the sides of the first and second slide rails; a first sliding cover located between the two fixed arms and used to cover the first slide rail; a first sliding groove located on the side of the fixed arm and into which the side of the first sliding cover is inserted; an extraction mesh plate located at the lower end of the first sliding cover and into which the temple falls; and an opening groove located at the lower end of the first sliding cover and into which the temple slides out of the second slide rail when the first sliding cover moves upward into the second slide rail. A second sliding groove is formed inside the first sliding cover and communicates with the opening groove; a second sliding cover is embedded in the first sliding groove and used to cover the opening groove; a third sliding cover is set on the upper side of the second sliding cover and used to cover the second slide rail; a third sliding groove is formed on the inner wall of the first sliding groove and for the side of the third sliding cover to be embedded; a driving member is set between the first slide rail and the second slide rail. When the driving member drives the first sliding cover, the second sliding cover and the third sliding cover to move upward, so that the first sliding cover moves upward into the second slide rail, the first sliding cover stops moving upward while the driving member continues to drive the second sliding cover to move upward in the opening groove.

[0009] By adopting the above technical solution, when the temple is still being clamped and processed on the clamping assembly, the driving component drives the first sliding cover to move upward in the first slide rail, thereby opening the first slide rail and allowing cooling water and cutting debris to be smoothly discharged along the first slide rail.

[0010] When the temple is finished and falls off the clamping assembly, the drive unit moves the first sliding cover down into the first slide rail, thereby sealing the first slide rail. After the temple and cooling water impact the first sliding cover, the impact force generated by the cooling water at the first sliding cover position can efficiently wash the surface of the temple. At the same time, the temple falls onto the extraction screen plate under its own gravity. Then the drive unit can move the first sliding cover and the extraction screen plate up into the second slide rail. At this time, the cooling water and cutting debris can pass through the extraction screen plate and slide out along the first slide rail, leaving only the cleaned temple on the extraction screen plate.

[0011] When the driving component moves the first sliding cover, the second sliding cover, and the third sliding cover upwards, causing the first sliding cover to move into the second slide rail, the first sliding cover stops moving upwards, while the driving component continues to move the second sliding cover upwards in the opening slot. At this time, the opening slot on the first sliding cover can be opened. Since the first sliding cover has moved into the second slide rail, the opening slot is connected to the second slide rail. The temple of the lens on the extraction screen can slide down the second slide rail under its own gravity, and finally the temple falls into the first collection box.

[0012] A further configuration of the present invention is as follows: the driving component includes stepped platforms disposed on the inner walls of both sides of the upper end of the first slide groove and used to abut against both sides of the first sliding cover after it has moved upward; a connecting arm disposed on one side of the upper end of the third sliding cover; a connecting post disposed at one end of the connecting arm away from the third sliding cover and extending downward; a rodless cylinder disposed on the side of the first slide rail and the second slide rail and connected to the lower end of the connecting post; protrusions disposed on both sides of the lower end of the second sliding cover; a guide post disposed on the protrusions and extending downward; a guide sleeve disposed on the first sliding cover and through which the upper end of the guide post passes; and a connecting spring sleeved on the guide post and connected to the guide sleeve at the upper end and connected to the protrusion at the lower end.

[0013] By adopting the above technical solution, the rodless cylinder drives the first sliding cover, the second sliding cover, and the third sliding cover to move upward through the protrusion, guide post, guide sleeve, and connecting spring. When the rodless cylinder drives the first sliding cover to move upward into the second slide rail, the upper end of the first sliding cover can abut against the stepped platform. The stepped platform can be used to position the upward movement of the first sliding cover. At this time, the first sliding cover stops moving upward. As the rodless cylinder continues to drive the second sliding cover to move upward, the guide post can move upward in the guide sleeve and the connecting spring is compressed. At this time, the second sliding cover can move upward in the opening slot, thereby opening the opening slot and making the opening slot communicate with the second slide rail.

[0014] A further configuration of the present invention is as follows: the second slide rail is closed at one end near the first extension; a semi-circular rotating column is provided at the bottom of the first slide rail and on the side of the extraction port near the first extension; a rotating shaft passing through the side wall of the first slide rail is provided at the center of both ends of the rotating column; a cover is provided on one side of the first slide rail, covering the rotating shaft; a reset coil spring is provided inside the cover, with one end connected to the rotating shaft and the other end connected to the inner wall of the cover; when the reset coil spring is in its natural state, the arc-shaped outer wall of the rotating column rotates to the side away from the extraction port and forms an accumulation cavity for cooling water accumulation between it and the closed end face of the second slide rail; a linkage is also provided between the first slide rail and the second slide rail, which drives the rotating column to rotate to the lower side of the extraction port when the second sliding cover moves upward in the opening groove.

[0015] By adopting the above technical solution, when the reset coil spring is in its natural state, the arc-shaped outer wall of the flipping column rotates to the side away from the extraction port and forms an accumulation cavity for cooling water accumulation between it and the closed end face of the second slide rail. Therefore, when the first sliding cover seals the first slide rail and the cooling water impacts the first sliding cover, the cooling water accumulates in the first slide rail and overflows into the second slide rail. At this time, a portion of the cooling water that overflows into the second slide rail can enter the accumulation cavity for storage.

[0016] When the second sliding cover moves upward in the opening slot, the linkage drives the flipping column to rotate to the lower side of the extraction port. The flipping column then fits against the lower side of the extraction screen. At the same time, the flipping column opens the accumulation chamber and releases the cooling water stored inside. The flipping column, which fits against the lower side of the extraction screen, can seal a portion of the lower side of the extraction screen. After the cooling water is released from the accumulation chamber, it pushes the temple on the extraction screen, thus preventing the temple from getting stuck on the extraction screen. The thrust of the cooling water allows the temple to slide quickly along the second slide rail. After the cooling water has been pushed, it falls into the first slide rail after passing through the extraction screen, and then slides out along the first slide rail.

[0017] Meanwhile, when the reset spring is in its natural state, the arc-shaped outer wall of the flipping column rotates to the side away from the extraction port. Therefore, the arc-shaped outer wall of the flipping column is located on the side close to the first extension. At this time, when the first sliding cover seals the first slide rail and the temple needs to fall onto the extraction screen, the arc-shaped outer wall of the flipping column can guide the temple, which is conducive to the temple accurately falling onto the extraction screen.

[0018] A further configuration of the present invention is as follows: the linkage includes a first connecting rod disposed on a rotating shaft at the end of the flipping column away from the cover, and a second connecting rod disposed on the side of the movable block of the rodless cylinder and used to drive the first connecting rod to flip upward after moving upward.

[0019] By adopting the above technical solution, the movable block of the rodless cylinder drives the second connecting rod to move upward. When the second connecting rod moves to the position of the first connecting rod, the opening slot is opened. As the rodless cylinder continues to drive the second connecting rod to move upward, the second connecting rod can drive the first connecting rod to rotate, and the first connecting rod can drive the tilting column to rotate. At the same time, the return spring is elastically coiled, which can drive the tilting column to rotate to the lower side of the extraction port, thereby opening the accumulation chamber and releasing the cooling water inside. Finally, the rodless cylinder can drive the tilting column to tilt while driving the first sliding cover, the second sliding cover and the third sliding cover to move upward.

[0020] At the same time, when the movable block of the rodless cylinder drives the second connecting rod to move down, the second connecting rod can separate from the first connecting rod. At this time, under the elastic restoring force of the return coil spring, the flipping column can flip in the opposite direction and return to the initial position for the next use.

[0021] A further feature of the present invention is that a thrust rod is provided at the middle of the second link, which moves upward to abut against the first link.

[0022] By adopting the above technical solution, when the second link moves upward, the thrust rod first abuts against the first link, so that the first link can be pre-deflected, thereby facilitating the second link to quickly and smoothly drive the first link to rotate.

[0023] A further provision of the present invention is that a filter bag is provided at the end of the first slide rail away from the clamping assembly.

[0024] By adopting the above technical solution, the cooling water and cutting debris sliding out from the first slide rail can enter the filter bag, and the filter bag can filter out the cutting debris, thereby achieving efficient recycling of cutting debris.

[0025] A further feature of the present invention is that the second collection tank is equipped with a reuse pump connected to a cooling water pipe.

[0026] By adopting the above technical solution, the clean cooling water in the second collection tank can be reused using a reuse pump.

[0027] The beneficial effects of the present invention are as follows: when the temple is still being clamped on the clamping assembly and being processed, the rodless cylinder drives the first sliding cover to move upward in the first slide rail, thereby opening the first slide rail, so that the cooling water and cutting debris during the processing can be smoothly discharged along the first slide rail, so that the cooling water is collected in the second collection box, and after being filtered by the filter bag, the cooling water can be reused by the reuse pump.

[0028] After the lens temple on the clamping assembly is finished, the clamping assembly releases the lens temple, and the lens temple can fall downward into the first extension. At the same time, the cooling water sprayed from the cooling water pipe and the cutting debris generated by the cutting assembly will also fall into the first extension along with the lens temple. At this time, since the first slide rail is tilted downward towards the side away from the clamping assembly and extends out of the CNC machine tool, the lens temple, cooling water, and cutting debris can slide down along the first extension into the first slide rail.

[0029] Simultaneously, when the temple falls into the first extension, the rodless cylinder drives the first sliding cover to move down in the first slide rail, thereby sealing the first slide rail. After the temple and cooling water impact the first sliding cover, the impact force generated by the cooling water at the first sliding cover position can efficiently wash the surface of the temple. At the same time, the temple falls onto the extraction screen plate under its own gravity and the guiding action of the arc-shaped outer wall of the flipping column. At this time, the arc-shaped outer wall of the flipping column rotates to the side away from the extraction port and forms an accumulation cavity for cooling water to accumulate between it and the closed end face of the second slide rail. Therefore, when the first sliding cover seals the first slide rail and the cooling water impacts the first sliding cover, the cooling water accumulates in the first slide rail and overflows into the second slide rail. At this time, some of the cooling water that overflows into the second slide rail can enter the accumulation cavity for storage.

[0030] Then the rodless cylinder can move the first sliding cover and the extraction screen plate to the second slide rail. At this time, the first slide rail is opened, and the cooling water and cutting debris can pass through the extraction screen plate and slide out along the first slide rail, leaving only the cleaned temple on the extraction screen plate. At this time, the temple can be separated from the environment of cooling water and cutting debris.

[0031] When the rodless cylinder moves the first sliding cover upwards into the second slide rail, the upper end of the first sliding cover abuts against the stepped platform. The stepped platform positions the first sliding cover at its upward position, at which point the first sliding cover stops moving upwards. As the rodless cylinder continues to move the second sliding cover upwards, the guide post moves upwards within the guide sleeve, and the connecting spring is compressed. At this point, the second sliding cover moves upwards within the opening slot, thus opening the opening slot and connecting it to the second slide rail. While the second sliding cover moves upwards within the opening slot, the first connecting rod, the second connecting rod, and the push rod rotate the tilting column to the lower side of the extraction port. The flip column can be attached to the underside of the extraction screen. Simultaneously, the flip column opens the accumulation chamber and releases the cooling water stored within. The flip column, attached to the underside of the extraction screen, can seal a portion of the underside of the extraction screen. The cooling water released from the accumulation chamber pushes the temples on the extraction screen, preventing them from becoming stuck and providing a secondary rinsing effect. The pushing force of the cooling water allows the temples to slide quickly along the second slide rail. After being pushed, the cooling water passes through the extraction screen and falls into the first slide rail, where it then slides out.

[0032] The temples can slide down the second slide rail and fall into the first collection box. The first collection box collects the temples after surface cleaning. Meanwhile, the cooling water and cutting debris that continue to fall down the first slide rail will fall into the second collection box. At this point, it is no longer necessary to manually remove the processed temples one by one from the clamping assembly. The temples can be surface cleaned and collected in the first collection box after falling from the clamping assembly. This will help to efficiently complete the material handling of temples and improve the processing efficiency of temples. Attached Figure Description

[0033] To more clearly illustrate the technical solutions in the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0034] Figure 1 This is a schematic diagram of the structure of the present invention;

[0035] Figure 2 This is an enlarged view of the connection relationship between the first slide rail, the second slide rail, and the extraction component in this invention;

[0036] Figure 3 This is a partial cross-sectional view of the connection relationship between the first slide rail, the second slide rail and the extraction component in this invention. At this time, the first sliding cover seals the first slide rail, and cooling water enters the accumulation chamber for storage.

[0037] Figure 4 This is an enlarged view of the connection relationship between the first sliding cover, the second sliding cover, the third sliding cover and the driving component in this invention, wherein the first sliding cover is shown in exploded view;

[0038] Figure 5 This is a partially enlarged view of the connection relationship between the first slide rail and the second slide rail in this invention. The first sliding cover, the second sliding cover, the third sliding cover and the driving component are omitted, mainly to show the positions of the first slide groove and the third slide groove.

[0039] Figure 6 This is a partial cross-sectional view of the connection relationship between the first slide rail, the second slide rail and the extraction component in this invention. At this time, the first sliding cover moves up into the second slide rail and the second sliding cover moves upward in the opening groove. At the same time, the flipping column flips down and fits against the lower side of the extraction mesh plate. After the flipping column opens the accumulation cavity, it releases the cooling water stored inside.

[0040] Figure 7 yes Figure 3 Enlarged view of section A;

[0041] Figure 8 This is a partial plan view of the connection relationship between the first slide rail, the second slide rail and the driving component in this invention. At this time, the rodless cylinder drives the second sliding cover to move upward in the opening groove, and at the same time, the first connecting rod, the second connecting rod and the push rod drive the flipping column to rotate to the lower side of the extraction port.

[0042] Figure 9 This is an enlarged view of the connection relationship between the flip column, the rotating shaft, the cover and the first connecting rod in this invention.

[0043] In the diagram, 1. CNC machine tool; 2. Cutting assembly; 3. Clamping assembly; 4. Cooling water pipe; 5. First slide rail; 51. First extension; 52. Tilting column; 521. Rotating shaft; 53. Encasing cover; 531. Return coil spring; 54. Filter bag; 6. Second slide rail; 61. Second extension; 62. Stacking cavity; 7. Extraction assembly; 71. Extraction port; 72. Fixing arm; 73. First sliding cover; 74. First sliding groove; 75. Extraction screen; 76. Opening groove; 77. Second slide rail 78. Slot; 79. Second sliding cover; 701. Third sliding cover; 702. Drive component; 7021. Stepped platform; 7022. Connecting arm; 7023. Connecting column; 7024. Rodless cylinder; 7025. Protrusion; 7026. Guide column; 7027. Guide sleeve; 7028. Connecting spring; 8. First collection box; 9. Second collection box; 91. Reuse pump; 10. Linkage component; 101. First connecting rod; 102. Second connecting rod; 1021. Thrust rod. Detailed Implementation

[0044] The technical solutions in the embodiments will be clearly and completely described below. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0045] A mirror temple processing device, as described in the following example Figure 1 The mirror temple processing equipment includes a CNC machine tool 1, a cutting component 2, and a clamping component 3. Both the cutting component 2 and the clamping component 3 are installed inside the CNC machine tool 1. The cutting component 2 can complete the cutting of the mirror temple, while the clamping component 3 can complete the clamping and movement of the mirror temple. Since the cutting component 2 and the clamping component 3 are existing technologies, their specific structures will not be described here.

[0046] Reference Figure 1 , Figure 2A cooling water pipe 4 is installed at the position of the clamping assembly 3 to spray water toward the workpiece temple. Inside the CNC machine tool 1, below the clamping assembly 3, a first slide rail 5 is fixed by bolts. The first slide rail 5 has a U-shaped cross-section for cooling water and cutting chips to slide out. The first slide rail 5 extends downward at an angle away from the clamping assembly 3 and extends out of the CNC machine tool 1. At the same time, a first extension 51 is integrally provided at the end of the first slide rail 5 near the clamping assembly 3. The first extension 51 extends toward the clamping assembly 3 and provides cooling water and cutting chips for the finished temple. The first slide rail 5 is integrally provided with a second slide rail 6 on its upper side. The second slide rail 6 is for the temple to slide out and has a "U" shaped cross section. The end of the second slide rail 6 away from the clamping assembly 3 is integrally provided with a second extension 61 for the temple to slide out. At the same time, a first collection box 8 for collecting the temple is placed below the second extension 61. The end of the first slide rail 5 away from the clamping assembly 3 is connected to a filter bag 54 by a clamp. The second collection box 9 for collecting cooling water is placed below the filter bag 54. A reuse pump 91 connected to the cooling water pipe 4 is installed on the second collection box 9.

[0047] Reference Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 An extraction assembly 7 is provided between the second slide rail 6 and the first slide rail 5 for extracting the temple of the eyeglass from the first slide rail 5 into the second slide rail 6. This extraction assembly 7 includes an extraction port 71, a fixing arm 72, a first sliding cover 73, a first sliding groove 74, an extraction mesh plate 75, an opening groove 76, a second sliding groove 77, a second sliding cover 78, a third sliding cover 79, a third sliding groove 701, and a driving member 702. The extraction port 71 is located on the bottom wall of the second slide rail 6 near the end of the first extension 51 and communicates with the interior of the first slide rail 5. Two fixing arms 72 are provided and integrally formed on the sides of the first slide rail 5 and the second slide rail 6, respectively. The two fixed arms 72 are located on both sides of the extraction port 71. The first sliding cover 73 is located between the two fixed arms 72 and is used to cover the first slide rail 5. The first slide groove 74 is opened on the side of the fixed arm 72 and allows the side of the first sliding cover 73 to be inserted. At this time, the first sliding cover 73 can slide up and down along the first slide groove 74. The extraction mesh plate 75 is welded to the lower end of the first sliding cover 73 and allows the temple to fall in. The opening groove 76 is opened at the lower end of the first sliding cover 73. When the first sliding cover 73 moves up into the second slide rail 6, the opening groove 76 allows the temple to slide out from the second slide rail 6.

[0048] Reference Figure 4 , Figure 5The second sliding groove 77 is formed inside the first sliding cover 73 and communicates with the opening groove 76. The second sliding cover 78 is embedded in the first sliding groove 74 and is used to cover the opening groove 76. The third sliding cover 79 is integrally formed on the upper side of the second sliding cover 78 and is used to cover the second slide rail 6. The width of the third sliding cover 79 is greater than the width of the second sliding cover 78. The third sliding groove 701 is formed on the inner wall of the first sliding groove 74 and allows the side of the third sliding cover 79 to be embedded. The driving member 702 is set between the first slide rail 5 and the second slide rail 6. When the driving member 702 drives the first sliding cover 73, the second sliding cover 78 and the third sliding cover 79 to move upward, so that the first sliding cover 73 moves upward into the second slide rail 6, the first sliding cover 73 stops moving upward, and the driving member 702 continues to drive the second sliding cover 78 to move upward in the opening groove 76.

[0049] Reference Figure 3 , Figure 4 , Figure 6 , Figure 7 The driving component 702 includes a stepped platform 7021, a connecting arm 7022, a connecting column 7023, a rodless cylinder 7024, a protrusion 7025, a guide column 7026, a guide sleeve 7027, and a connecting spring 7028. The stepped platform 7021 is integrally formed on the inner walls of both sides of the upper end of the first slide groove 74 and is used to abut against both sides of the first sliding cover 73 after it has moved upward. The stepped platform 7021 can be used to position the extreme position of the upward movement of the first sliding cover 73. Meanwhile, the connecting arm 7022 is welded to one side of the upper end of the third sliding cover 79, and the connecting column 7023 is welded to the connecting arm 7022 away from the third sliding cover 79. One end of the cylinder extends downwards, wherein the rodless cylinder 7024 is fixed to the side of the first slide rail 5 and the second slide rail 6 by bolts, and the movable block is fixed to the lower end of the connecting column 7023 by bolts. The protrusion 7025 is welded to both sides of the lower end of the second sliding cover 78. Meanwhile, the guide column 7026 is integrally set on the protrusion 7025 and extends downwards, while the guide sleeve 7027 is welded to the first sliding cover 73 and allows the upper end of the guide column 7026 to pass through. The connecting spring 7028 is sleeved on the guide column 7026, and the upper end of the connecting spring 7028 is welded to the guide sleeve 7027 and the lower end is welded to the protrusion 7025.

[0050] Reference Figure 2 , Figure 3 , Figure 9The second slide rail 6 is closed at one end near the first extension 51. A semi-circular rotating column 52 is provided on the upper side of the first slide rail 5 and on the side of the extraction port 71 near the first extension 51. At the same time, a rotating shaft 521 passing through the side wall of the first slide rail 5 is welded at the center of both ends of the rotating column 52. At this time, the rotating column 52 can be rotatably connected within the first slide rail 5. A cover 53 wrapped around the rotating shaft 521 is fixed to the side of the first slide rail 5 by bolts. A reset coil spring 531 is provided inside the cover 53, with one end welded to the rotating shaft 521 and the other end welded to the inner wall of the cover 53. When the reset coil spring 531 is in the natural state, the arc-shaped outer wall of the rotating column 52 rotates to the side away from the extraction port 71 and forms an accumulation cavity 62 for cooling water accumulation between it and the closed end face of the second slide rail 6.

[0051] Reference Figure 6 , Figure 8 , Figure 9 A linkage 10 is also provided between the first slide rail 5 and the second slide rail 6. When the second sliding cover 78 moves upward in the opening slot 76, the linkage 10 drives the flipping column 52 to rotate to the lower side of the extraction port 71. This linkage 10 includes a first connecting rod 101 and a second connecting rod 102. One end of the first connecting rod 101 is welded to the rotating shaft 521 at the end of the flipping column 52 away from the cover 53. The second connecting rod 102 is fixed to the side of the movable block of the rodless cylinder 7024 by bolts and is used to drive the first connecting rod 101 to flip upward after moving upward. At the same time, a push rod 1021 is integrally provided on the upper middle part of the second connecting rod 102. After the push rod 102 moves upward with the second connecting rod 102, it can abut against the first connecting rod 101 before the second connecting rod 102.

[0052] Principle: When the temple is still being clamped on the clamping assembly 3 and being processed, the rodless cylinder 7024 drives the first sliding cover 73 to move upward in the first slide rail 5, thereby opening the first slide rail 5, so that the cooling water and cutting debris during the processing can be smoothly discharged along the first slide rail 5, and the cooling water is collected in the second collection box 9. After being filtered by the filter bag 54, the cooling water can be reused by the reuse pump 91.

[0053] After the temple on the clamping assembly 3 is finished, the temple can fall downward into the first extension 51 after the clamping assembly 3 releases the temple. At the same time, the cooling water sprayed from the cooling water pipe 4 and the cutting debris generated by the cutting assembly 2 will also fall into the first extension 51 along with the temple. At this time, since the first slide rail 5 is inclined downward towards the side away from the clamping assembly 3 and extends out to the outside of the CNC machine tool 1, the temple, cooling water and cutting debris can slide down along the first extension 51 into the first slide rail 5.

[0054] Simultaneously, when the temple falls into the first extension 51, the rodless cylinder 7024 drives the first sliding cover 73 to move down in the first slide rail 5, thereby sealing the first slide rail 5. After the temple and cooling water impact the first sliding cover 73, the impact force generated by the cooling water at the position of the first sliding cover 73 can efficiently rinse the surface of the temple. At the same time, the temple falls onto the extraction screen plate 75 under its own gravity and the guiding action of the arc-shaped outer wall of the flipping column 52. At this time, the arc-shaped outer wall of the flipping column 52 rotates to the side away from the extraction port 71 and forms an accumulation cavity 62 for cooling water to accumulate between it and the closed end face of the second slide rail 6. Therefore, when the first sliding cover 73 seals the first slide rail 5 and the cooling water impacts the first sliding cover 73, the cooling water accumulates in the first slide rail 5 and overflows into the second slide rail 6. At this time, some of the cooling water that overflows into the second slide rail 6 can enter the accumulation cavity 62 for storage.

[0055] Then the rodless cylinder 7024 can drive the first sliding cover 73 and the extraction screen 75 to move up into the second slide rail 6. At this time, the first slide rail 5 is opened, and the cooling water and cutting debris can pass through the extraction screen 75 and slide out along the first slide rail 5, leaving only the cleaned temple on the extraction screen 75. At this time, the temple can be separated from the environment of cooling water and cutting debris.

[0056] When the rodless cylinder 7024 moves the first sliding cover 73 upward into the second slide rail 6, the upper end of the first sliding cover 73 abuts against the stepped platform 7021. The stepped platform 7021 positions the first sliding cover 73. At this point, the first sliding cover 73 stops moving upward. As the rodless cylinder 7024 continues to move the second sliding cover 78 upward, the guide post 7026 moves upward within the guide sleeve 7027, and the connecting spring 7028 is compressed. At this point, the second sliding cover 78 moves upward within the opening slot 76, thereby opening the opening slot 76 and connecting it to the second slide rail 6. When the second sliding cover 78 moves upward within the opening slot 76, the first connecting rod 101, the second connecting rod 102, and the thrust rod 1... 021 drives the rotating column 52 to rotate to the lower side of the extraction port 71, so that the rotating column 52 can fit against the lower side of the extraction screen 75. At the same time, the rotating column 52 opens the accumulation chamber 62 and releases the cooling water stored therein. The rotating column 52, which fits against the lower side of the extraction screen 75, can seal a part of the lower side of the extraction screen 75. After the cooling water is released from the accumulation chamber 62, it will push the temple on the extraction screen 75, thereby preventing the temple from being stuck on the extraction screen 75. It can also achieve a secondary rinsing effect on the temple. The pushing force of the cooling water can facilitate the temple to slide quickly along the second slide rail 6. After the cooling water is pushed, it falls into the first slide rail 5 after passing through the extraction screen 75, and then the cooling water can slide out along the first slide rail 5.

[0057] The temples can slide down the second slide rail 6 and fall into the first collection box 8. The first collection box 8 can collect the temples after surface cleaning. At the same time, the cooling water and cutting debris that continue to fall in the first slide rail 5 will fall into the second collection box 9. At this time, it is no longer necessary to manually take out the processed temples one by one from the clamping assembly 3. The temples can be cleaned and collected into the first collection box 8 after falling from the clamping assembly 3. This will help to complete the material handling of temples efficiently and improve the processing efficiency of temples.

Claims

1. A mirror temple processing device, comprising a CNC machine tool (1), a cutting assembly (2) and a clamping assembly (3) located within the CNC machine tool (1), characterized in that: A cooling water pipe (4) for spraying water toward the workpiece temple is provided at the position of the clamping assembly (3). A first slide rail (5) with a "U" shaped cross section is fixed inside the CNC machine tool (1) and below the clamping assembly (3) for cooling water and cutting debris to slide out. The first slide rail (5) extends downward at an angle away from the clamping assembly (3) and extends out of the CNC machine tool (1). At one end of the first slide rail (5) near the clamping assembly (3), a first extension part (51) is integrally provided, extending toward the clamping assembly (3) for the finished workpiece temple, cooling water, and cutting debris to fall into. The upper side of the slide rail (5) is integrally provided with a second slide rail (6) with a cross section of "U" for the temple to slide out. An extraction component (7) for extracting the temple in the first slide rail (5) into the second slide rail (6) is provided between the second slide rail (6) and the first slide rail (5). The end of the second slide rail (6) away from the clamping component (3) is integrally provided with a second extension (61) for the temple to slide out. A first collection box (8) for collecting the temple is provided below the second extension (61). A second collection box (9) for collecting cooling water is provided below the end of the first slide rail (5) away from the clamping component (3). The extraction assembly (7) includes an extraction port (71) located on the bottom wall of the second slide rail (6) near the first extension (51) and communicating with the inside of the first slide rail (5); fixed arms (72) located on both sides of the first slide rail (5) and the second slide rail (6) and on both sides of the extraction port (71); a first sliding cover (73) located between the two fixed arms (72) and used to cover the first slide rail (5); a first sliding groove (74) located on the side of the fixed arm (72) and for the side of the first sliding cover (73) to be inserted; an extraction mesh plate (75) located at the lower end of the first sliding cover (73) and for the temple to fall into; an opening groove (76) located at the lower end of the first sliding cover (73) and for the temple to slide out of the second slide rail (6) when the first sliding cover (73) moves up into the second slide rail (6); and an opening groove located inside the first sliding cover (73) and... The second sliding groove (77) communicates with the opening groove (76), the second sliding cover (78) is embedded in the first sliding groove (74) and used to cover the opening groove (76), the third sliding cover (79) is disposed on the upper side of the second sliding cover (78) and used to cover the second slide rail (6), the third sliding groove (701) is opened on the inner wall of the first sliding groove (74) and for the side of the third sliding cover (79) to be embedded, and the driving member (702) is disposed between the first slide rail (5) and the second slide rail (6). When the driving member (702) drives the first sliding cover (73), the second sliding cover (78) and the third sliding cover (79) to move upward, so that the first sliding cover (73) moves upward into the second slide rail (6), the first sliding cover (73) stops moving upward and the driving member (702) continues to drive the second sliding cover (78) to move upward in the opening groove (76).

2. The mirror temple processing equipment according to claim 1, characterized in that: The driving component (702) includes a stepped platform (7021) disposed on the inner walls of both sides of the upper end of the first slide groove (74) and used to abut against both sides of the first sliding cover (73) after it has moved upward; a connecting arm (7022) disposed on one side of the upper end of the third sliding cover (79); a connecting post (7023) disposed at the end of the connecting arm (7022) away from the third sliding cover (79) and extending downward; and a movable block disposed on the side of the first slide rail (5) and the second slide rail (6) and connected to the connecting post (7023). 23) A rodless cylinder (7024) connected to the lower end, a protrusion (7025) located on both sides of the lower end of the second sliding cover (78), a guide post (7026) located on the protrusion (7025) and extending downward, a guide sleeve (7027) located on the first sliding cover (73) and through which the upper end of the guide post (7026) passes, and a connecting spring (7028) sleeved on the guide post (7026) with its upper end connected to the guide sleeve (7027) and its lower end connected to the protrusion (7025).

3. The mirror temple processing equipment according to claim 1, characterized in that: The second slide rail (6) is closed at one end near the first extension (51). A semi-circular rotating column (52) is provided on the upper side of the first slide rail (5) and on the side of the extraction port (71) near the first extension (51). A rotating shaft (521) passing through the side wall of the first slide rail (5) is provided at the center of both ends of the rotating column (52). A cover (53) is provided on the side of the first slide rail (5) and wrapped around the rotating shaft (521). Inside the cover (53) is a piece of material connected to the rotating shaft (521) at one end and the other end of the shaft is connected to the rotating shaft (521). The reset coil spring (531) is connected to the inner wall of the cover (53). When the reset coil spring (531) is in its natural state, the arc-shaped outer wall of the flipping column (52) rotates to the side away from the extraction port (71) and forms an accumulation cavity (62) for cooling water accumulation between it and the closed end face of the second slide rail (6). A linkage (10) is also provided between the first slide rail (5) and the second slide rail (6) to drive the flipping column (52) to rotate to the lower side of the extraction port (71) when the second sliding cover (78) moves upward in the opening groove (76).

4. The mirror temple processing equipment according to claim 3, characterized in that: The linkage (10) includes a first link (101) on a rotating shaft (521) at the end of the flipping column (52) away from the cover (53), and a second link (102) on the side of the movable block of the rodless cylinder (7024) and used to drive the first link (101) to flip upward after moving upward.

5. The mirror temple processing equipment according to claim 4, characterized in that: The second link (102) has a thrust rod (1021) in the middle that moves upward to abut against the first link (101).

6. The mirror temple processing equipment according to claim 1, characterized in that: A filter bag (54) is provided at the end of the first slide rail (5) away from the clamping assembly (3).

7. The mirror temple processing equipment according to claim 1, characterized in that: The second collection box (9) is equipped with a reuse pump (91) connected to the cooling water pipe (4).

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