Optical disk cutting and forming equipment
By integrating fully automated cutting, positioning, transfer, and automated recycling of optical disc cutting and forming equipment, the problems of low efficiency, insufficient precision, and difficulty in waste recycling in traditional optical disc manufacturing have been solved, realizing efficient, continuous production and consistent forming of optical discs.
Patent Information
- Application Number
- CN202520402727.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-07
- Publication Date
- 2026-01-20
- Estimated Expiration
- 2035-03-07
AI Technical Summary
In the traditional optical disc manufacturing process, the PCB needs to undergo multiple steps of cutting and manual transfer, which results in problems such as low efficiency, insufficient precision, and difficulty in waste recycling. Existing technologies such as wire cutting equipment rely on manual positioning, which can easily lead to cutting deviations.
Design a fully automated optical disc cutting and forming equipment that integrates cutting, positioning, transfer, and automated recycling, including feeding, first cutting, first transfer, second cutting, and unloading mechanisms, and utilizes laser cutting and automated transfer modules to achieve continuous production of optical discs.
It enables continuous production of optical discs from raw materials to finished products, reduces manual intervention, improves production efficiency and product consistency, and effectively recycles waste materials.
Smart Images
Figure CN223811691U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to disc processing technical field, concretely relates to a disc cutting forming equipment. BACKGROUND
[0002] With the rapid development of information technology, as an important data storage medium, discs are widely used in the storage and dissemination of music, video, software and other data. In the traditional disc manufacturing process, the material plate needs to be cut several times and manually transferred, which has the problems of low efficiency, insufficient precision, and difficult waste recovery. For example, the existing technology such as wire cutting equipment relies on manual positioning, which is easy to cause cutting deviation.
[0003] In view of the above technical bottleneck, it is urgent to develop a full-process disc forming equipment integrating multi-stage cutting, accurate transfer and automatic recovery. SUMMARY
[0004] In order to overcome the shortcomings and deficiencies existing in the prior art, the purpose of the utility model is to provide a disc cutting forming equipment, which integrates full-automatic cutting, positioning and transfer solution to improve production efficiency and product consistency.
[0005] The utility model is realized through the following technical schemes:
[0006] A disc cutting forming equipment, comprising a feeding mechanism, a first cutting mechanism, a first transfer mechanism, a second cutting mechanism, a second transfer mechanism and a discharging mechanism; the feeding mechanism is used for feeding the material plate to be cut; the first cutting mechanism is used for cutting the material plate to be cut into multiple small square plates; the first transfer mechanism is used for transferring the multiple small square plates to the second cutting mechanism; the second cutting mechanism is used for positioning and cutting the small square plate into a disc; the second transfer mechanism is used for transferring the disc to the discharging mechanism; and the discharging mechanism is used for collecting and discharging the disc.
[0007] The feeding mechanism comprises a feeding conveying module and a feeding jig installed on the feeding conveying module.
[0008] The first cutting mechanism comprises a detection horizontal movement driving module, a first cutting horizontal movement driving module, a first detection device installed on the output end of the detection horizontal movement driving module, and a first laser cutting device installed on the output end of the first cutting horizontal movement driving module.
[0009] The feeding jig is used for fixedly placing the material plate to be cut; the feeding conveying module is used for driving the feeding jig to horizontally move; the first cutting horizontal movement driving module is used for driving the first laser cutting device to cut the material plate to be cut when the feeding jig horizontally moves; and the detection horizontal movement driving module is used for driving the first detection device to detect the small square plate when the feeding jig horizontally moves.
[0010] The first transfer mechanism comprises a first transfer driving module, a spacing adjustment jig module, a second transfer driving module, a first transfer pickup module arranged on the output end of the first transfer driving module, and a second transfer pickup module arranged on the output end of the second transfer driving module.
[0011] The first transfer driving module is used to drive the first transfer pickup module to lift and move horizontally to pick up a plurality of small square plates closely arranged on the spacing adjustment jig module, the spacing adjustment jig module is used to separate the plurality of small square plates, and the second transfer driving module is used to drive the second transfer pickup module to lift and move horizontally to pick up the small square plates after separation and place them on the second cutting mechanism.
[0012] The spacing adjustment jig module comprises a spacing driving member, a fixed jig fixed relative to the spacing driving member, a plurality of movable jigs movable relative to the fixed jig, and a limiting arm movably connected between the fixed jig and the adjacent movable jigs and between the adjacent movable jigs.
[0013] The fixed jig and the plurality of movable jigs are located on the same straight line, the output end of the spacing driving member is connected to the movable jig farthest from the fixed jig, the fixed jig is used to fix the small square plates, and the limiting arm is used to make the fixed jig and the adjacent movable jigs and the adjacent movable jigs have the same maximum spacing.
[0014] One end of the movable jig on one side is connected to a limiting column, and one end of the limiting arm is provided with a limiting groove.
[0015] One end of one limiting arm is slidably connected to the limiting column through the limiting groove, and the other end of the limiting arm is connected to the other end of the adjacent fixed jig on one side or the movable jig on one side.
[0016] The second cutting mechanism comprises a forming conveying module, a second cutting horizontal driving module, a disc forming jig arranged on the output end of the forming conveying module, and a second laser cutting device arranged on the output end of the second cutting horizontal driving module.
[0017] The disc forming jig is used to fix the small square plates, the forming conveying module is used to drive the disc forming jig to move horizontally, and the second cutting horizontal driving module is used to drive the second laser cutting device to cut the small square plates on the disc forming jig into discs.
[0018] The disc forming jig comprises a jig body, a placing groove, a positioning abutting member, a positioning pressing member, and a positioning driving member arranged on the jig body.
[0019] The shape of the placing groove is adapted to the shape of the small square plate, the positioning resisting piece is located at one side of the placing groove and faces the positioning pressing piece, and the positioning driving piece is used to drive the positioning pressing piece to press the small square plate against the positioning resisting piece.
[0020] The placing groove comprises a placing seat and a waste dropping hole around the placing seat, and the shape of the placing seat is adapted to the shape of the optical disc.
[0021] The optical disc cutting and forming equipment further comprises a waste recycling module, the waste recycling module comprises a recycling conveying belt, a collecting chute and a collecting trolley, two ends of the collecting chute are in communication with the recycling conveying belt and the collecting trolley respectively, and the jig body is further provided with a dropping chute in communication with the recycling conveying belt.
[0022] The unloading mechanism comprises an unloading transfer driving module, an unloading rotation driving module, an unloading lifting driving module, an unloading jig, a rotating conveying module, an unloading conveying module and an unloading transfer pickup module arranged on the output end of the unloading transfer driving module.
[0023] The unloading transfer driving module is used to drive the unloading transfer pickup module to lift and horizontally move to pick up the optical disc and place the optical disc on one end of the rotating conveying module, the rotating conveying module is used to convey and insert the optical disc into the unloading jig, the unloading lifting driving module is used to drive the unloading rotation driving module to lift, and the unloading rotation driving module is used to drive the unloading jig to overturn and place the unloading jig on one end of the unloading conveying module.
[0024] The unloading rotation driving module comprises an unloading rotation motor, a first rotation slide rail and a second rotation slide rail arranged on the output end of the unloading rotation motor respectively, and the interval between the first rotation slide rail and the second rotation slide rail is greater than the width of the rotating conveying module and the unloading conveying module and is adapted to the width of the unloading jig.
[0025] The optical disc cutting and forming equipment has the following beneficial effects:
[0026] The optical disc cutting and forming equipment comprises a feeding mechanism, a first cutting mechanism, a first transfer mechanism, a second cutting mechanism, a second transfer mechanism and an unloading mechanism, and when used, the feeding, twice laser cutting, transfer mechanism and unloading are cooperatively operated to realize the continuous production of the optical disc from the material plate to the finished product, reduce manual intervention, and improve the production efficiency and product consistency. BRIEF DESCRIPTION OF DRAWINGS
[0027] The utility model is further illustrated by the drawings, but the embodiments in the drawings do not constitute any limitation on the utility model, and other drawings can be obtained by the following drawings without creative labor for ordinary skilled in the art.
[0028] Figure 1 It is a three-dimensional structure schematic view of the utility model.
[0029] Figure 2 It is another schematic view of the feeding mechanism and the first cutting mechanism.
[0030] Figure 3 It is another schematic view of the feeding mechanism and the first cutting mechanism.
[0031] Figure 4 It is a structure schematic view of the first transfer mechanism and the second cutting mechanism.
[0032] Figure 5 It is a partial structure schematic view of the first transfer mechanism.
[0033] Figure 6 It is another partial structure schematic view of the first transfer mechanism.
[0034] Figure 7 It is a structure schematic view of the interval adjustment jig module.
[0035] Figure 8 It is a structure schematic view of the optical disc forming jig.
[0036] Figure 9 It is a partial structure schematic view of the second cutting mechanism and the waste recovery module.
[0037] Figure 10 It is a structure schematic view of the discharging mechanism and the second transfer mechanism.
[0038] Figure 11 It is a structure schematic view of the discharging lifting driving module and the discharging rotating driving module.
[0039] Reference signs
[0040] The feeding mechanism is 100, the feeding conveying module is 101, the feeding jig is 102,
[0041] The first cutting mechanism is 200, the detection horizontal movement driving module is 201, the first cutting horizontal movement driving module is 202, the first detection device is 203, the first laser cutting device is 204,
[0042] The first transfer mechanism is 300, the first transfer driving module is 301, the second transfer driving module is 302, the first transfer pickup module is 303, the second transfer pickup module is 304, the interval adjustment jig module is 305, the interval driving part is 306, the fixed jig is 307, the movable jig is 308, the limiting arm is 309, the limiting column is 310, the limiting groove is 311, the second transfer mechanism is 312,
[0043] Second cutting mechanism -400, forming conveying module -401, second cutting transverse drive module -402, second laser cutting device -403, disc forming jig -404, jig body -405, placing groove -406, positioning resistance -407, positioning pressure -408, positioning drive -409, placing seat -410, waste falling hole -411, falling chute -412,
[0044] Waste recycling module -500, recycling conveyor belt -501, collection chute -502, collection trolley -503,
[0045] Blanking mechanism -600, blanking transfer drive module -601, blanking rotation drive module -602, blanking lifting drive module -603, blanking jig -604, rotation conveying module -605, blanking conveying module -606, blanking transfer pickup module -607, blanking rotation motor -608, first rotation slide rail -609, second rotation slide rail -610. DETAILED DESCRIPTION
[0046] In order to make the above-mentioned purposes, features and advantages of the present application more apparent, specific embodiments of the present application will be described in detail below with reference to the accompanying drawings. In the following description, many specific details are set forth in order to provide a thorough understanding of the present application. However, the present application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar improvements without departing from the spirit of the present application, so the present application is not limited to the specific embodiments disclosed below.
[0047] In the description of the present application, it should be understood that the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", "axial", "radial", "circumferential" and the like indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and therefore cannot be understood as indicating or implying that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the present application.
[0048] In addition, the terms "first", "second", "third", etc. are used only for descriptive purposes and should not be construed as indicating or implying relative importance or an indicated number of technical features. Therefore, the features defined as "first", "second", etc. can explicitly or implicitly include at least one of the features. In the description of the present application, the meaning of "multiple" is at least two, such as two, three, etc., unless otherwise specifically limited.
[0049] With the rapid development of information technology, optical discs as an important data storage medium are widely used in music, video, software and other data storage and dissemination. In the traditional optical disc manufacturing process, the material plate needs to be cut and transferred by manual transfer for many times, which has problems such as low efficiency, insufficient precision, and difficult waste recovery. For example, the existing technology such as wire cutting equipment relies on manual positioning, which is easy to cause cutting deviation.
[0050] To solve the above problems, the embodiment discloses an optical disc cutting and forming equipment, which has a structure as shown in the figure. Figures 1 to 11 The feeding mechanism 100 is used for feeding the material plate to be cut, the first cutting mechanism 200 is used for cutting the material plate to be cut into multiple small square plates, the first transfer mechanism 300 is used for transferring the multiple small square plates to the second cutting mechanism 400, the second cutting mechanism 400 is used for positioning and cutting the small square plate into an optical disc, the second transfer mechanism 312 is used for transferring the optical disc to the discharging mechanism 600, and the discharging mechanism 600 is used for collecting and discharging the optical disc.
[0051] Further, the feeding mechanism 100 includes a feeding conveying module 101 and a feeding jig 102 installed on the feeding conveying module 101; the first cutting mechanism 200 includes a detection horizontal movement driving module 201, a first cutting horizontal movement driving module 202, a first detection device 203 installed on the output end of the detection horizontal movement driving module 201, and a first laser cutting device 204 installed on the output end of the first cutting horizontal movement driving module 202; the feeding jig 102 is used for fixedly placing the material plate to be cut, the feeding conveying module 101 is used for driving the feeding jig 102 to horizontally move, the first cutting horizontal movement driving module 202 is used for driving the first laser cutting device 204 to cut the material plate to be cut when the feeding jig 102 horizontally moves, and the detection horizontal movement driving module 201 is used for driving the first detection device 203 to detect the small square plate when the feeding jig 102 horizontally moves.
[0052] In the embodiment, the feeding conveying module 101 is preferably a conveying belt, the detection transverse driving module 201 and the first cutting transverse driving module 202 are preferably linear drivers (such as linear cylinders), the driving directions of the feeding conveying module 101 and the first cutting transverse driving module 202 are perpendicular to each other, and the driving directions of the detection transverse driving module 201 and the first cutting transverse driving module 202 are parallel to each other; the shape of the feeding jig 102 is adapted to the shape of the to-be-cut plate, and the bottom is communicated with the negative pressure mechanism, so as to facilitate the fixation of the to-be-cut plate.
[0053] It should be noted that, in the embodiment, the relative movement of the plate and the first laser cutting device 204 and the detection transverse driving module 201 is realized by the linkage among the feeding conveying module 101, the detection transverse driving module 201 and the first cutting transverse driving module 202, so as to realize the cutting and detection of the plate; the structure of the first laser cutting device 204 and the detection transverse driving module 201 in the embodiment and the principle of cutting and detecting the plate by the above-mentioned devices all belong to the prior art, and will not be described herein.
[0054] Further, the first transfer mechanism 300 comprises a first transfer driving module 301, a spacing adjustment jig module 305, a second transfer driving module 302, a first transfer pickup module 303 arranged on the output end of the first transfer driving module 301, and a second transfer pickup module 304 arranged on the output end of the second transfer driving module 302; the first transfer driving module 301 is used to drive the first transfer pickup module 303 to lift and transversely move to pick up a plurality of small square plates closely placed on the spacing adjustment jig module 305, the spacing adjustment jig module 305 is used to separate the plurality of small square plates, and the second transfer driving module 302 is used to drive the second transfer pickup module 304 to lift and transversely move to pick up the small square plates after being separated and place them on the second cutting mechanism 400.
[0055] In the embodiment, after the plate is cut into a plurality of small square plates, the adjacent small square plates are in a close state, and each small square plate needs to be placed on the spacing adjustment jig module 305 for separation to facilitate the subsequent cutting and processing of the optical disc; the first transfer pickup module 303 is preferably a structure formed by a plurality of suction cups arranged side by side, which facilitates the adsorption and pickup of a whole row of small square plates cut; the second transfer pickup module 304 is preferably a plurality of suction cups; the first transfer driving module 301 and the second transfer driving module 302 are preferably linear drivers linked in the horizontal and vertical directions, and their structures and principles all belong to the prior art, which will not be described herein.
[0056] Further, the interval adjustment jig module 305 comprises an interval driving member 306, a fixed jig 307 fixedly arranged relative to the interval driving member 306, a plurality of movable jigs 308 movably arranged relative to the fixed jig 307, and a limiting arm 309 movably connected between the fixed jig 307 and the adjacent movable jig 308 and between the adjacent movable jigs 308; the fixed jig 307 and the plurality of movable jigs 308 are arranged on the same line, the output end of the interval driving member 306 is connected with the movable jig 308 farthest from the fixed jig 307, the fixed jig 307 is used for fixing the small square plates, and the limiting arm 309 is used for making the fixed jig 307 and the adjacent movable jig 308 and the adjacent movable jigs 308 have the same maximum interval.
[0057] Specifically, one end of one side of the movable jig 308 is connected with a limiting column 310, and one end of the limiting arm 309 is provided with a limiting groove 311; one end of one of the limiting arms 309 is slidably connected with the limiting column 310 through the limiting groove 311, and the other end of the limiting arm 309 is connected with the other end of one side of the adjacent fixed jig 307 or movable jig 308.
[0058] In the initial state, the interval driving member 306 drives the fixed jig 307 and the plurality of movable jigs 308 to sequentially abut against the length (or width) of the small square plates, and the interval driving member 306 is preferably a pneumatic cylinder; when a row of small square plates are placed on the fixed jig 307 and the movable jigs 308, the interval driving member 306 drives the movable jigs 308 to move, the movable jigs 308 and the fixed jig 307 and the adjacent movable jigs 308 are separated, and the same distance is achieved under the action of the limiting arm 309, the maximum distance of the interval corresponds to the length of the limiting groove 311, so that the equal interval separation of the small square plates is achieved.
[0059] Further, the second cutting mechanism 400 comprises a forming and conveying module 401, a second cutting horizontal movement driving module 402, a disc forming jig 404 arranged at the output end of the forming and conveying module 401, and a second laser cutting device 403 arranged at the output end of the second cutting horizontal movement driving module 402; the disc forming jig 404 is used for fixing the small square plates, the forming and conveying module 401 is used for driving the disc forming jig 404 to move horizontally, and the second cutting horizontal movement driving module 402 is used for driving the second laser cutting device 403 to cut the small square plates on the disc forming jig 404 into discs.
[0060] In the embodiment, the forming conveying module 401 is preferably a conveying belt, and the second cutting horizontal movement driving module 402 is preferably a linear driver; after the small square plate is picked up and placed in the optical disc forming jig 404 by the second transfer driving module 302, the optical disc forming jig 404 is driven by the forming conveying module 401 to move to the lower side of the second laser cutting device 403, and the second laser cutting device 403 is driven by the linkage between the forming conveying module 401 and the second cutting horizontal movement driving module 402 to cut the small square plate into an optical disc. It should be noted that the structure of the second laser cutting device 403 in the embodiment and the principle of cutting the small square plate by the above device are both prior art, and will not be described here.
[0061] Specifically, the optical disc forming jig 404 includes a jig body 405, a placing groove 406, a positioning abutting piece 407, a positioning pressing piece 408 and a positioning driving piece 409 arranged on the jig body 405; the shape of the placing groove 406 is adapted to the shape of the small square plate, the positioning abutting piece 407 is located on one side of the placing groove 406 and faces the positioning pressing piece 408, and the positioning driving piece 409 is used to drive the positioning pressing piece 408 to press the small square plate against the positioning abutting piece 407.
[0062] The placing groove 406 includes a placing seat 410 and a waste falling hole 411 around the placing seat 410, and the shape of the placing seat 410 is adapted to the shape of the optical disc; the optical disc cutting and forming equipment further includes a waste recycling module 500, which includes a recycling conveying belt 501, a collecting chute 502 and a collecting trolley 503, and the two ends of the collecting chute 502 are respectively communicated with the recycling conveying belt 501 and the collecting trolley 503.
[0063] In the embodiment, the number of the positioning driving piece 409, the positioning pressing piece 408 and the positioning abutting piece 407 is two, one positioning driving piece 409 and one positioning pressing piece 408 form a group, and the two groups are respectively placed on the two sides of the placing groove 406 which are asymmetric, and the other two positioning abutting pieces 407 are respectively placed on the other side which is opposite; when the small square plate is placed in the placing groove 406 of the jig body 405, the positioning pressing piece 408 is driven by the positioning driving piece 409 to press the small square plate against the positioning abutting piece 407, thereby completing the positioning of the small square plate.
[0064] In addition, after the small square plate is cut, the cutting waste falls into the collecting trolley 503 along the falling chute 412, the recycling conveying belt 501 and the collecting chute 502 in turn, which can effectively collect the waste generated in the cutting process, reduce environmental pollution and reduce production cost.
[0065] Further, the feeding mechanism 600 comprises a feeding transfer driving module 601, a feeding rotation driving module 602, a feeding lifting driving module 603, a feeding jig 604, a rotation conveying module 605, a feeding conveying module 606, and a feeding transfer pickup module 607 arranged on the output end of the feeding transfer driving module 601; the feeding transfer driving module 601 is used to drive the feeding transfer pickup module 607 to lift and move horizontally to pick up the optical disc placed on one end of the rotation conveying module 605; the rotation conveying module 605 is used to convey and insert the optical disc into the feeding jig 604; the feeding lifting driving module 603 is used to drive the feeding rotation driving module 602 to lift; the feeding rotation driving module 602 is used to drive the feeding jig 604 to overturn and be placed on one end of the feeding conveying module 606.
[0066] Specifically, the feeding rotation driving module 602 comprises a feeding rotation motor 608, a first rotation slide rail 609 and a second rotation slide rail 610 arranged on the output end of the feeding rotation motor 608 respectively; the interval of the first rotation slide rail 609 and the second rotation slide rail 610 is greater than the width of the rotation conveying module 605 and the feeding conveying module 606 and is adapted to the width of the feeding jig 604.
[0067] In the embodiment, the cut optical disc is picked up by the second transfer mechanism 312 and placed in the temporary storage of the feeding mechanism 600; the feeding transfer driving module 601 drives the feeding transfer pickup module 607 to pick up the optical disc from the temporary storage and place it on one end of the rotation conveying module 605; the feeding lifting driving module 603 drives the feeding jig 604 to move up and down to the corresponding position on the other end of the rotation conveying module 605; the optical disc is inserted into the feeding jig 604 under the conveying of the rotation conveying module 605; the feeding jig 604 is placed between the first rotation slide rail 609 and the second rotation slide rail 610 in an overturned state; the feeding jig 604 has a plurality of compartments; when the previous compartment is inserted with the optical disc, the feeding lifting driving module 603 drives the feeding jig 604 to move up( down) by a corresponding distance, so that the empty compartment is aligned with the optical disc, to complete the insertion and placement of the next optical disc.
[0068] When the feeding jig 604 is full of optical discs, the first rotation slide rail 609 and the second rotation slide rail 610 are rotated by the feeding rotation motor 608 to make the feeding jig 604 rotate by 90°; at this time, the optical discs in the feeding jig 604 are placed in an upward posture, which is convenient for subsequent transportation and storage; when the feeding jig 604 is lowered to the corresponding position and contacts with the feeding conveying module 606, the feeding jig 604 is separated from the first rotation slide rail 609 and the second rotation slide rail 610; the feeding jig 604 is conveyed under the action of the feeding conveying module 606.
[0069] It should be noted that the rotary conveying module 605 and the discharging conveying module 606 in the embodiment are preferably conveying belts, and the lower end of the rotary conveying module 605 is further connected with a linear motor for driving the rotary conveying module 605 to move horizontally so that the optical disc on the rotary conveying module 605 is inserted into the discharging jig; the discharging transfer pickup module 607 is preferably a suction cup; the structure of the second transfer mechanism 312 is similar to that of the first transfer mechanism 300; the discharging transfer driving module 601 is preferably a linear driver linked in the horizontal and vertical directions, and the discharging lifting driving module 603 is preferably a linear driver in the vertical direction, and the structures and principles thereof belong to the prior art, which will not be described here.
[0070] In summary, the optical disc cutting and forming equipment of the present application, by setting the feeding mechanism 100, the first cutting mechanism 200, the first transfer mechanism 300, the second cutting mechanism 400, the second transfer mechanism 312 and the discharging mechanism 600, during use, through the coordinated operation of feeding, twice laser cutting, transfer mechanism and discharging, realizes the continuous production of optical discs from the material plate to the finished product, reduces manual intervention, and improves production efficiency and product consistency.
[0071] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present application, and are not limited to the scope of protection of the present application. Although the present application has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present application can be modified or replaced by equivalents without departing from the essence and scope of the technical solutions of the present application.
Claims
1. An optical disc cutting and molding apparatus, characterized by comprising: The upper feeding mechanism is used for feeding the cutting material plate, the first cutting mechanism is used for cutting the cutting material plate into small square plates, the first transfer mechanism is used for transferring the small square plates to the second cutting mechanism, the second cutting mechanism is used for positioning and cutting the small square plates into optical discs, the second transfer mechanism is used for transferring the optical discs to the lower feeding mechanism, and the lower feeding mechanism is used for collecting and feeding the optical discs. The upper feeding mechanism comprises an upper feeding conveying module and an upper feeding jig arranged on the upper feeding conveying module.
2. The apparatus of claim 1, wherein the cutting device is a laser. The first cutting mechanism comprises a detection horizontal movement driving module, a first cutting horizontal movement driving module, a first detection device arranged on the output end of the detection horizontal movement driving module, and a first laser cutting device arranged on the output end of the first cutting horizontal movement driving module. The upper feeding jig is used for fixing the cutting material plate, the upper feeding conveying module is used for driving the upper feeding jig to horizontally move, the first cutting horizontal movement driving module is used for driving the first laser cutting device to cut the cutting material plate when the upper feeding jig horizontally moves, and the detection horizontal movement driving module is used for driving the first detection device to detect the small square plates when the upper feeding jig horizontally moves. The first transfer mechanism comprises a first transfer driving module, a spacing adjustment jig module, a second transfer driving module, a first transfer pickup module arranged on the output end of the first transfer driving module, and a second transfer pickup module arranged on the output end of the second transfer driving module.
3. The apparatus of claim 1, wherein the cutting device is a laser. The first transfer driving module is used for driving the first transfer pickup module to lift and horizontally move to pick up the small square plates closely arranged on the spacing adjustment jig module, the spacing adjustment jig module is used for separating the small square plates, and the second transfer driving module is used for driving the second transfer pickup module to lift and horizontally move to pick up the separated small square plates and place them on the second cutting mechanism. The spacing adjustment jig module comprises a spacing driving member, a fixed jig fixed relative to the spacing driving member, a plurality of movable jigs movable relative to the fixed jig, and a limiting arm movably connected between the fixed jig and the adjacent movable jigs and between the adjacent movable jigs.
4. The apparatus of claim 3, wherein the cutting means is a laser beam. The fixed jig and the plurality of movable jigs are located on the same straight line, the output end of the spacing driving member is connected to the movable jig farthest from the fixed jig, the fixed jig is used for fixing the small square plates, and the limiting arm is used for making the fixed jig and the adjacent movable jigs have the same maximum spacing. One end of one side of the movable jig is connected to a limiting column, and one end of the limiting arm is provided with a limiting groove.
5. The apparatus of claim 4, wherein the cutting means is a laser beam. One end of one of the limiting arms is connected to the limiting column through the limiting groove, and the other end of the limiting arm is connected to the other end of one side of the adjacent fixed jig or movable jig. The second cutting mechanism comprises a forming conveying module, a second cutting horizontal movement driving module, an optical disc forming jig arranged on the output end of the forming conveying module, and a second laser cutting device arranged on the output end of the second cutting horizontal movement driving module.
6. The apparatus of claim 1, wherein the cutting device is a laser. The optical disc forming jig is used for fixing the small square plate, the forming conveying module is used for driving the optical disc forming jig to move horizontally, and the second cutting horizontal movement driving module is used for driving the second laser cutting device to cut the small square plate on the optical disc forming jig into an optical disc.
7. The apparatus of claim 6, wherein the cutting device is a laser. The optical disc forming jig comprises a jig body, a placing groove, a positioning abutting piece, a positioning pressing piece and a positioning driving piece for pushing the positioning pressing piece. The shape of the placing groove is adapted to the shape of the small square plate, the positioning abutting piece is located on one side of the placing groove and faces the positioning pressing piece, and the positioning driving piece is used for driving the positioning pressing piece to press the small square plate against the positioning abutting piece.
8. The apparatus according to claim 7, wherein the cutting means is a laser beam. The placing groove comprises a placing seat and a waste falling hole around the placing seat, and the shape of the placing seat is adapted to the shape of the optical disc. The optical disc cutting forming equipment further comprises a waste recycling module, the waste recycling module comprises a recycling conveying belt, a collecting chute and a collecting trolley, and the two ends of the collecting chute are respectively communicated with the recycling conveying belt and the collecting trolley. The jig body is further provided with a falling chute communicated with the recycling conveying belt below the placing seat.
9. The apparatus of claim 1, wherein the cutting device is a laser. The blanking mechanism comprises a blanking transfer driving module, a blanking rotation driving module, a blanking lifting driving module, a blanking jig, a rotation conveying module, a blanking conveying module and a blanking transfer pickup module installed on the output end of the blanking transfer driving module. The blanking transfer driving module is used for driving the blanking transfer pickup module to lift and move horizontally to pick up the optical disc and place it on one end of the rotation conveying module, the rotation conveying module is used for conveying and inserting the optical disc into the blanking jig, the blanking lifting driving module is used for driving the blanking rotation driving module to lift, and the blanking rotation driving module is used for driving the blanking jig to overturn and place it on one end of the blanking conveying module.
10. The apparatus according to claim 9, wherein the cutting device is a laser beam. The blanking rotation driving module comprises a blanking rotation motor, a first rotation slide rail and a second rotation slide rail respectively installed on the output end of the blanking rotation motor, and the interval of the first rotation slide rail and the second rotation slide rail is greater than the width of the rotation conveying module and the blanking conveying module and is adapted to the width of the blanking jig.