High-speed ceramic chip feeding equipment

Abstract

The utility model discloses high-speed ceramic chip feeding equipment which comprises a ceramic chip feeding mechanism, an angle recognition mechanism and a sorting and positioning mechanism. The ceramic chip feeding mechanism comprises a ceramic chip feeding vibration disc, a feeding track and a linear vibrator; the angle identification mechanism is used for carrying out positioning identification and angle signal output on the ceramic workpieces on the feeding track; the sorting and positioning mechanism comprises a rotary arm assembly driven by a servo mechanism and a rotary suction assembly connected with the rotary arm assembly; the servo mechanism can receive angle signals output by the angle recognition mechanism and drive the rotary arm assembly and the rotary material suction assembly to work. According to the utility model, through the cooperative use of the automatic ceramic chip feeding mechanism, the sorting and positioning mechanism and the angle identification mechanism, quick and accurate ceramic chip workpiece feeding and positioning are realized, so that the overall efficiency of a production line is improved, and meanwhile, errors caused by manual operation and human intervention are reduced; and the angle identification mechanism and the sorting positioning mechanism are matched to remarkably improve the precision and the stability.

Description

Technical Field

[0001] The utility model relates to the technical field of lamp fittings processing equipment, in particular to a high-speed ceramic chip feeding equipment. Background Art

[0002] As one of the key components of the lamp holder, the ceramic piece has good insulation, high temperature resistance, and thermal conductivity. It can also serve as the mechanical support for the components inside the lamp holder to increase the stability of the lamp holder. Figure 1 As shown, the ceramic workpiece 10 is roughly a rounded cube structure and is provided with a non-centered assembly hole 101. At present, the existing ceramic assembly is mainly manual operation during the assembly process, which has low production efficiency and is limited by the operator's technical level, operation method, operation accuracy and other factors, which affects the consistency of the product. At the same time, it is easy to affect production efficiency and quality due to operational errors. For example, the ceramic piece is often installed upside down due to the wrong alignment of the assembly hole, which requires correction and repeated work. With the increase in market demand for LED lamps, large-scale production capacity is needed to meet market demand. However, manual operation often cannot meet the large-scale and continuous production needs, which limits the improvement of production capacity. Therefore, in order to improve the efficiency and quality of ceramic assembly, some manufacturers have invested a lot of money in the research and development of automatic assembly equipment, but in the current automatic assembly equipment, the design of the feeding mechanism is relatively complex, the research and development cost is too high, and there are many parts that require manual intervention.

[0003] Therefore, further research and development is needed to solve the above-mentioned technical problems in the prior art. Utility Model Content

[0004] Therefore, in order to solve the problems existing in the above-mentioned prior art, the purpose of the utility model is to provide a high-speed ceramic loading equipment, which can quickly and accurately position the ceramic workpiece and send it to the next process through automated ceramic feeding, angle recognition and sorting and positioning mechanism, thereby improving the overall efficiency of the production line.

[0005] The purpose of the utility model is achieved by the following technical solutions:

[0006] A high-speed ceramic chip feeding device is used in a lamp assembly production line; it includes a ceramic chip feeding mechanism, an angle recognition mechanism, and a sorting and positioning mechanism which are arranged adjacent to each other in sequence; the ceramic chip feeding mechanism includes a ceramic chip feeding vibration plate, a feeding track which is connected to the feeding vibration plate for transmission, and a linear vibrator located below the feeding track; the angle recognition mechanism is arranged above the end of the feeding track, and is used to perform positioning recognition and angle signal output on the ceramic chip workpiece on the feeding track; the sorting and positioning mechanism includes a rotary arm assembly driven by a servo mechanism and a rotary suction assembly connected to the rotary arm assembly; the servo mechanism can receive the angle signal output by the angle recognition mechanism and drive the rotary arm assembly and the rotary suction assembly to work;

[0007] The end of the feeding track is connected with a conveying track. The rotating suction component, driven by the rotary arm component, absorbs the ceramic workpiece on the feeding track and places it on the conveying track after rotation and positioning, and enters the next assembly process.

[0008] Furthermore, the rotary arm assembly includes a rotary arm and a rotating frame rotatably connected to the rotary arm; the rotary suction assembly is installed on the rotating frame; the rotary suction assembly includes a vacuum suction cup for adsorbing a ceramic workpiece and a suction cup bracket for installing the vacuum suction cup; the servo mechanism includes a rotary arm servo motor for driving the rotary arm, and an angle-seeking servo motor that is transmission-connected to the suction cup bracket and drives the vacuum suction cup to rotate; the angle-seeking servo motor is installed on the rotating frame, and the suction cup bracket and the vacuum suction cup extend to the bottom of the rotating frame.

[0009] Furthermore, the sorting and positioning mechanism includes a workpiece distribution component that is movably arranged between the feed track and the conveyor track; the workpiece distribution component includes a distribution plate with a distribution hole, and a movable plate that can be extended and retracted along the conveying direction is provided below the distribution plate. The ceramic workpiece is placed in the distribution hole and supported by the movable plate. After the movable plate retracts toward the feed track, the ceramic workpiece slides into the conveyor track.

[0010] Furthermore, a plurality of the distribution holes are arranged at intervals on the distribution plate along its moving direction; a plurality of distribution tracks corresponding to the distribution holes are provided on the feed track; the workpiece distribution assembly includes a distribution slide extending in a vertical direction along the feed track and a distribution slide that can reciprocate on the distribution slide; the distribution slide is mounted with the distribution plate and a movable plate; the distribution slide is used to adjust the position of the distribution plate, so that after the ceramic workpieces of all the distribution holes are placed, the movable plate retracts toward the feed track, and each ceramic workpiece in the distribution hole slides into the corresponding distribution track.

[0011] Furthermore, two rows of ceramic workpieces are transported in parallel on the feeding track; two groups of vacuum suction cups, suction cup brackets, and servo motors are respectively installed on the rotating frame and are respectively arranged corresponding to the two rows of ceramic workpieces.

[0012] Furthermore, the angle recognition mechanism is a high-speed industrial camera, which can perform angle recognition on the ceramic workpiece and output an angle signal to the servo mechanism.

[0013] Furthermore, the swing arm assembly includes two swing arms, and a support seat for installing the swing arm servo motor is provided on one side of the feed track. The swing arm is installed on the support seat and is transmission-connected to the swing arm servo motor through a rotating shaft respectively.

[0014] Furthermore, sensing devices are provided on both sides of the feeding track, and the sensing devices are used to detect whether the ceramic workpiece is in place and to feed back a signal.

[0015] Furthermore, it also includes a base and a stand arranged on the base; the linear vibrator, sorting positioning mechanism, and servo mechanism are arranged on the base and located in the inner cavity of the stand; the angle recognition mechanism is arranged on the top of the stand and extends to the inner cavity of the stand; a light shield is provided on the stand; the feed track and the conveyor track extend through the bottom of the inner cavity of the stand respectively.

[0016] Furthermore, the ceramic sheet feeding vibration plate is located on one side of the base, and a sound insulation cover is provided on its outer periphery.

[0017] Compared with the prior art, the beneficial effects of the present invention are:

[0018] 1. The utility model realizes fast and accurate loading and positioning of ceramic workpieces through the coordinated use of the automated ceramic feeding mechanism, the sorting and positioning mechanism, and the angle recognition mechanism, thereby improving the overall efficiency of the production line, while greatly reducing the need for manual operation, reducing labor costs, and reducing errors caused by human intervention;

[0019] 2. Furthermore, the high-speed industrial camera is used to quickly and accurately identify the angle of the ceramic workpiece, and the angle signal is output to the servo mechanism. The servo mechanism drives the swing arm assembly to make precise rotation adjustments according to the received angle signal to ensure that the ceramic workpiece is placed on the feed track in the correct direction. The workpiece distribution assembly distributes the ceramic workpiece that has been angle-calibrated to the distribution track of the feed track according to the set rules, further ensuring the uniform distribution and correct placement of the workpiece. The cooperation of the angle recognition mechanism and the sorting and positioning mechanism significantly improves the production efficiency, accuracy and stability of the utility model;

[0020] 3. In addition, due to the use of linear vibrators and servo mechanisms, the operation of the entire equipment is relatively stable. Protection structures such as soundproof covers are also set up, the noise level is low, and the working environment is improved;

[0021] 4. The application of the high-speed feeding equipment of the utility model can replace the workload of at least 3 people within the same working time. It is highly practical, has good economic benefits, and is suitable for large-scale promotion. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the overall structure of a high-speed ceramic tile feeding device according to a preferred embodiment of the utility model;

[0023] Figure 2 This is a schematic diagram of the partial structure of the high-speed ceramic tile feeding equipment of the preferred embodiment of the utility model after omitting the light-shielding cover and the sound-proof cover;

[0024] Figure 3 for Figure 2 A schematic diagram of the enlarged local structure at center A;

[0025] Figure 4 This is a schematic diagram of the local structure of the high-speed ceramic tile feeding equipment of the preferred embodiment of the utility model from another angle;

[0026] Figure 5 This is a schematic diagram of the assembly state of the sorting and positioning mechanism of the high-speed ceramic tile feeding equipment of the preferred embodiment of the utility model;

[0027] Figure 6 This is a schematic diagram of the assembly state of the workpiece distribution component of the high-speed ceramic tile feeding equipment of the preferred embodiment of the utility model;

[0028] Figure 7 This is a schematic diagram of the state after the moving plate of the workpiece distribution assembly of the high-speed ceramic tile feeding equipment of the preferred embodiment of the utility model is retracted;

[0029] Figure 8 This is a schematic diagram of the ceramic workpiece structure of the ceramic high-speed feeding equipment of the preferred embodiment of the utility model.

[0030] In the figure:

[0031] 1. Ceramic chip feeding mechanism; 11. Ceramic chip feeding vibration plate; 12. Feeding track; 13. Linear vibrator; 2. Angle recognition mechanism; 3. Sorting and positioning mechanism; 31. Swing arm assembly; 311. Swing arm; 312. Rotating frame; 32. Rotating suction assembly; 321. Vacuum suction cup; 322. Suction cup bracket; 33. Workpiece distribution assembly; 331. Distribution plate; 3311. Distribution hole; 332. Moving plate; 333. Distribution slide rail; 334. Distribution slide seat; 335. Driving cylinder; 336. Support seat; 4. Servo mechanism; 41. Swing arm servo motor; 42. Angle-finding servo motor; 5. Feeding track; 51. Distribution track; 6. Induction device; 7. Base; 8. Stand; 81. Light shield; 9. Sound insulation shield;

[0032] 10. Ceramic workpiece; 101. Assembly hole. DETAILED DESCRIPTION

[0033] In order to facilitate the understanding of the utility model, the technical solutions and advantages of the utility model are further described in detail below in conjunction with the accompanying drawings and embodiments. The specific structure and characteristics are described below in an exemplary manner, which should not constitute any limitation to the utility model. At the same time, any of the technical features mentioned below (including implicit or disclosed), as well as any technical features directly displayed or implied in the figure, can continue to be arbitrarily combined or deleted between these technical features, so as to form more other embodiments that may not be directly or indirectly mentioned in the utility model. The preferred implementation of the utility model is given in the accompanying drawings. However, the utility model can be implemented in many different forms and is not limited to the implementation described herein. On the contrary, the purpose of providing these implementations is to make the understanding of the disclosure of the utility model more thorough and comprehensive.

[0034] like Figure 1-8 As shown, a high-speed ceramic chip feeding equipment is used in a lamp assembly production line; it includes a ceramic chip feeding mechanism 1, an angle recognition mechanism 2, and a sorting and positioning mechanism 3 which are arranged adjacent to each other in sequence; the ceramic chip feeding mechanism 1 includes a ceramic chip feeding vibration plate 11 and a feeding track 12 which is transmission-connected to the feeding vibration plate, and a linear vibrator 13 located below the feeding track 12; the angle recognition mechanism 2 is arranged above the end of the feeding track 12, and is used for positioning and identifying the ceramic chip workpiece 10 on the feeding track 12 and outputting an angle signal; the sorting and positioning mechanism 3 includes a rotary arm assembly 31 driven by a servo mechanism 4 and a rotary suction assembly 32 connected to the rotary arm assembly 31; the servo mechanism 4 can receive the angle signal output by the angle recognition mechanism 2 and drive the rotary arm assembly 31 and the rotary suction assembly 32 to work;

[0035] The end of the feeding track 12 is connected with a conveying track 5. Driven by the rotary arm assembly 31, the rotating suction component 32 absorbs the ceramic workpiece on the feeding track 12 and places it on the conveying track 5 after rotation and positioning, and enters the next assembly process.

[0036] In this embodiment, the angle recognition mechanism 2 is a high-speed industrial camera, which can perform angle recognition on the ceramic workpiece and output an angle signal to the servo mechanism 4 .

[0037] In addition, sensing devices 6 are provided on both sides of the feeding track 12, and the sensing devices 6 are used to detect whether the ceramic workpiece is in place and feedback a signal. The high-speed industrial camera starts the angle recognition action when receiving the signal that the workpiece is in place.

[0038] It should be noted that the working principles and installation structures of the feeding vibration plate, linear vibrator 13, high-speed industrial camera, servo motor and other devices involved in the utility model can refer to the existing technology. In addition, the utility model also includes other structures that meet the feeding function, such as electrical components, etc., which are not elaborated in the utility model.

[0039] The signal transmission method between the high-speed industrial camera and the servo mechanism 4 can refer to the following method: the high-speed industrial camera captures the image of the workpiece in motion and identifies the angle and position of the workpiece through a predetermined image processing algorithm. The system generates a corresponding signal and sends it to the servo mechanism 4. The servo motor receives the control signal and adjusts the position or direction of the workpiece accordingly.

[0040] Preferably, the rotary arm assembly 31 includes a rotary arm 311 and a rotating frame 312 rotatably connected to the rotary arm 311; the rotary suction assembly 32 is installed on the rotating frame 312; the rotary suction assembly 32 includes a vacuum suction cup 321 for adsorbing a ceramic workpiece and a suction cup bracket 322 for mounting the vacuum suction cup 321; the servo mechanism 4 includes a rotary arm servo motor 41 for driving the rotary arm 311, and an angle-seeking servo motor 42 for driving the vacuum suction cup 321 to rotate; the angle-seeking servo motor 42 is installed on the rotating frame 312, and the suction cup bracket 322 and the vacuum suction cup 321 extend below the rotating frame 312. In this embodiment, after receiving the angle signal of the workpiece, the angle-seeking servo motor 42 drives the vacuum suction cup 321 to rotate and adjusts the ceramic workpiece to the correct assembly direction. In this embodiment, the ceramic is roughly square in shape, and the direction adjustment is mainly based on the position of its assembly hole 101 to ensure that it can be correctly assembled in the next assembly process.

[0041] In this embodiment, the rotating arm 311 rotates in the vertical direction, first rotating to the direction of the feeding track 12, until the vacuum suction cup 321 sucks up the ceramic workpiece and synchronously rotates and adjusts the correct direction according to the angle signal sent by the high-speed industrial camera. Then, the rotating arm 311 drives the ceramic workpiece with the adjusted direction to rotate to the direction of the feeding track 5, and completes the discharge operation.

[0042] In order to improve the loading efficiency of the utility model, preferably, the sorting and positioning mechanism 3 includes a workpiece distribution component 33 movably arranged between the feeding track 12 and the conveying track 5; the workpiece distribution component 33 includes a distribution plate 331 with a distribution hole 3311, and a movable plate 332 that can be extended and retracted along the conveying direction is provided below the distribution plate 331. The ceramic workpiece is placed in the distribution hole 3311 and supported by the movable plate 332. After the movable plate 332 retracts toward the feeding track 12, the ceramic workpiece slides into the conveying track 5.

[0043] In this embodiment, the distribution hole 3311 is adapted to the shape of the ceramic workpiece, which further facilitates the accuracy of the direction of the ceramic workpiece after entering the feed track 5, reduces the error caused by the swing arm assembly 31 during movement, and performs secondary calibration on the ceramic workpiece.

[0044] At the same time, the distribution plate 331 is provided with a plurality of distribution holes 3311 arranged at intervals along its moving direction; the feed track 5 is provided with a plurality of distribution tracks 51 corresponding to the distribution holes 3311; the workpiece distribution assembly 33 includes a distribution slide 333 extending in a vertical direction along the feed track 12 and a distribution slide 334 that can reciprocate on the distribution slide 333; the distribution slide 334 is installed with the distribution plate 331 and the movable plate 332; the distribution slide 334 is used to adjust the position of the distribution plate 331, so that after the ceramic workpieces of all the distribution holes 3311 are placed, the movable plate 332 retracts toward the feed track 12, and each ceramic workpiece in the distribution hole 3311 slides into the corresponding distribution track 51.

[0045] In this embodiment, the number of the distribution holes 3311 can be set to more than 4, and the movable distribution slide 334 is used to cooperate with the high-speed material discharge of the swing arm assembly 31 to place the ceramic workpieces in the distribution holes 3311 and then enter the feed track 5 in batches to enter the next process, which greatly improves the feeding efficiency and saves production costs.

[0046] In this embodiment, the movable plate 332 can be installed on the distribution slide 334 by a power mechanism such as a driving cylinder 335, and the side of the movable plate 332 away from the distribution hole 3311 is connected to the telescopic rod of the driving cylinder 335. Similarly, the distribution slide can also be driven by a driving mechanism such as a cylinder.

[0047] Preferably, two rows of ceramic workpieces are transported in parallel on the feeding track 12; two groups of vacuum suction cups 321, suction cup brackets 322, and servo motors are respectively installed on the rotating frame 312 and are respectively arranged corresponding to the two rows of ceramic workpieces. Two ceramic workpieces are sucked at a time, further improving the feeding efficiency.

[0048] Preferably, the swing arm assembly 31 includes two swing arms 311, and a support seat 336 for mounting the swing arm servo motor 41 is provided on one side of the feeding track 5. The two swing arms 311 are mounted on the support seat 336 and are respectively connected to the swing arm servo motor 41 through a rotating shaft. In this embodiment, the assembly of the two swing arms 311 can be staggered front and back or left and right so that they can be implemented without affecting each other during rotation.

[0049] Preferably, it also includes a base 7 and a stand 8 arranged on the base 7; the linear vibrator 13, the sorting and positioning mechanism 3, and the servo mechanism 4 are arranged on the base 7 and located in the inner cavity of the stand 8; the angle recognition mechanism 2 is arranged on the top of the stand 8 and extends to the inner cavity of the stand 8; a light shielding cover 81 is provided on the stand 8; the feed track 12 and the conveyor track 5 extend through the bottom of the inner cavity of the stand 8 respectively. The tile feed vibration plate 11 is located on one side of the base 7, and a soundproof cover 9 is provided on its outer periphery. The provision of protective structures such as a soundproof cover reduces the noise level and improves the working environment.

[0050] The operation process of the utility model is roughly as follows: after the ceramic feeding vibration plate 11 and the linear vibrator 13 are automatically loaded, the ceramic workpiece enters the feeding track 12. When the high-speed industrial camera receives the ceramic in-place signal sent by the sensing device 6 on both sides of the feeding track 12, it identifies the angle and positioning of the ceramic, and sends the information to the servo mechanism 4 after determining its angle information. The servo mechanism 4 that receives the signal then drives the rotating vacuum suction cup 321 to complete the angle calibration of the ceramic workpiece, and then distributes the calibrated ceramic through the distribution assembly. During this process, the rotary arm assembly 31 cooperates with the movable distribution plate 331 to place the ceramic workpiece into the distribution hole 3311 of the distribution plate 331 in batches, and then retracts the movable plate 332 to allow the ceramic workpiece to enter the feeding track 5 in rows to enter the next process.

[0051] The utility model realizes fast and accurate loading and positioning of ceramic workpieces through the coordinated use of the automated ceramic feeding mechanism 1, the sorting and positioning mechanism 3, and the angle recognition mechanism 2, thereby improving the overall efficiency of the production line, while greatly reducing the need for manual operation, reducing labor costs, and reducing errors caused by human intervention;

[0052] Furthermore, the ceramic workpiece is quickly and accurately identified in angle by a high-speed industrial camera, and the angle signal is output to the servo mechanism 4. The servo mechanism 4 drives the swing arm assembly 31 to perform precise rotation adjustment according to the received angle signal, ensuring that the ceramic workpiece is placed on the feed track 5 in the correct direction. The workpiece distribution assembly 33 distributes the angle-calibrated ceramic workpiece to the distribution track 51 of the feed track 5 according to the set rules, further ensuring the uniform distribution and correct placement of the workpiece. The cooperation of the angle recognition mechanism 2 and the sorting and positioning mechanism 3 significantly improves the production efficiency, accuracy and stability of the utility model.

[0053] The above-mentioned embodiments are only preferred embodiments of the present invention and cannot be used to limit the scope of protection of the present invention. For ordinary technicians in this field, it can be understood that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principle and spirit of the present invention. The scope of the present invention is defined by the attached claims and their equivalents.

Claims

1. A high-speed tile feeding device, used in a lamp assembly production line; characterized in that: It includes a tile feeding mechanism, an angle recognition mechanism, and a sorting and positioning mechanism that are arranged adjacent to each other in sequence; the tile feeding mechanism includes a tile feeding vibration plate, a feeding track that is connected to the feeding vibration plate, and a linear vibrator located below the feeding track; The angle recognition mechanism is arranged above the end of the feeding track, and is used for positioning and identifying the ceramic workpiece on the feeding track and outputting an angle signal; the sorting and positioning mechanism includes a rotary arm assembly driven by a servo mechanism and a rotary suction assembly connected to the rotary arm assembly; the servo mechanism can receive the angle signal output by the angle recognition mechanism and drive the rotary arm assembly and the rotary suction assembly to work; The end of the feeding track is connected with a conveying track. The rotating suction component, driven by the rotary arm component, absorbs the ceramic workpiece on the feeding track and places it on the conveying track after rotation and positioning, and enters the next assembly process.

2. The high-speed ceramic chip feeding equipment according to claim 1, characterized in that: The rotary arm assembly includes a rotary arm and a rotating frame rotatably connected to the rotary arm; the rotary suction assembly is installed on the rotating frame; the rotary suction assembly includes a vacuum suction cup for adsorbing a ceramic workpiece and a suction cup bracket for installing the vacuum suction cup; the servo mechanism includes a rotary arm servo motor for driving the rotary arm, and an angle-seeking servo motor that is transmission-connected to the suction cup bracket and drives the vacuum suction cup to rotate; the angle-seeking servo motor is installed on the rotating frame, and the suction cup bracket and the vacuum suction cup extend to the bottom of the rotating frame.

3. The high-speed ceramic chip feeding equipment according to claim 2, characterized in that: The sorting and positioning mechanism includes a workpiece distribution component that is movably arranged between the feed track and the conveyor track; the workpiece distribution component includes a distribution plate with a distribution hole, and a movable plate that can be extended and retracted along the conveying direction is provided below the distribution plate. The ceramic workpiece is placed in the distribution hole and supported by the movable plate. After the movable plate retracts toward the feed track, the ceramic workpiece slides into the conveyor track.

4. The high-speed ceramic chip feeding equipment according to claim 3, characterized in that: A plurality of distribution holes are arranged at intervals on the distribution plate along its moving direction; a plurality of distribution tracks corresponding to the distribution holes are provided on the feed track; the workpiece distribution assembly includes a distribution slide extending in a vertical direction along the feed track and a distribution slide that can reciprocate on the distribution slide; the distribution slide is mounted with the distribution plate and a movable plate; the distribution slide is used to adjust the position of the distribution plate, so that after the ceramic workpieces of all the distribution holes are placed, the movable plate retracts toward the feed track, and each ceramic workpiece in the distribution hole slides into the corresponding distribution track.

5. The high-speed ceramic chip feeding equipment according to claim 4, characterized in that: Two rows of ceramic workpieces are transported in parallel on the feeding track; two groups of vacuum suction cups, suction cup brackets, and servo motors are respectively installed on the rotating frame and are respectively arranged corresponding to the two rows of ceramic workpieces.

6. The high-speed ceramic chip feeding equipment according to claim 4, characterized in that: The angle recognition mechanism is a high-speed industrial camera, which can perform angle recognition on the ceramic workpiece and output an angle signal to the servo mechanism.

7. The high-speed ceramic chip feeding equipment according to claim 6, characterized in that: The swing arm assembly includes two swing arms. A support seat for installing the swing arm servo motor is provided on one side of the feeding track. The swing arm is installed on the support seat and is transmission-connected to the swing arm servo motor through a rotating shaft.

8. The high-speed ceramic chip feeding equipment according to claim 1, characterized in that: Induction devices are provided on both sides of the feeding track, and the induction devices are used to detect whether the ceramic workpiece is in place and to feed back a signal.

9. The high-speed ceramic chip feeding equipment according to claim 1, characterized in that: It also includes a base and a stand arranged on the base; the linear vibrator, sorting positioning mechanism, and servo mechanism are arranged on the base and located in the inner cavity of the stand; the angle recognition mechanism is arranged on the top of the stand and extends to the inner cavity of the stand; a light shield is provided on the stand; the feed track and the conveyor track extend through the bottom of the inner cavity of the stand respectively.

10. The high-speed ceramic chip feeding equipment according to claim 9, characterized in that: The ceramic sheet feeding vibration plate is located at one side of the base, and a sound insulation cover is provided on its outer periphery.

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