Cutting and feeding device

Abstract

The invention relates to the technical field of plate cutting equipment, and discloses a cutting and feeding device which comprises a feeding part used for grabbing a plate body and a moving part used for moving the position of the grabbing part, the feeding part is arranged on the moving part, and the feeding part comprises the grabbing part used for adsorbing the plate body and a dust removing part used for removing dust on the surface of the plate body; the dust cleaning part can blow dust on the surface of the plate through composite airflow and form a negative pressure field for guiding the dust before the suction cup makes contact with the plate, and the composite airflow comprises spiral airflow in the tangential direction of the surface of the plate and central airflow perpendicular to the surface of the plate. Full-automatic grabbing, transferring and positioning of large-size plates are achieved, manual carrying is completely replaced, the feeding efficiency of the plates is effectively improved, and the risk of lumbar muscle strain caused by bowing and lifting and potential safety hazards such as falling and scratching of the plates are eliminated.

Description

Technical Field

[0001] The present invention relates to the technical field of sheet cutting equipment, and particularly to a cutting and feeding device. Background Art

[0002] In the modern woodworking industry, sheet cutting is one of the core processes that runs through furniture manufacturing, building decoration and other fields. With the continuous improvement of the market's requirements for sheet processing accuracy, efficiency and large-scale production, the automation level of panel cutting equipment has gradually become an important indicator of industry competitiveness. However, in the process of sheet loading, especially for the handling and positioning of large-sized sheets, manual operation is still widely relied on; Currently, when loading large-sized sheets in a woodworking workshop, two or more workers need to hold both sides of the sheet respectively, lift it by relying on the strength of the waist and arms, adjust the angle and then place it on the workbench of the panel cutting equipment; finally, manually push and pull to adjust the position of the sheet to align it with the equipment positioning reference. Workers need to bend down and lift frequently during handling, which is likely to cause occupational injuries such as lumbar muscle strain. Moreover, during the manual handling process, the sheet may fall due to the cooperation error of workers, wet ground or slippery hands, resulting in equipment damage or personnel injury accidents. At the same time, the edge of the sheet is sharp and easy to scratch the hand. Summary of the Invention

[0003] Aiming at the deficiencies in the prior art, the present invention provides a cutting and feeding device, which can not only replace manual handling, but also efficiently clean dust and ensure reliable adsorption of the suction cup.

[0004] In order to achieve the above object, the present invention adopts the following technical solutions: A cutting and feeding device includes a loading member for grasping a plate body and a moving member for moving the position of the loading member. The loading member is arranged on the moving member. The loading member includes a grasping member for adsorbing the plate body and a dust cleaning member for removing dust on the surface of the plate body; Before the grasping member contacts the sheet, the dust cleaning member can blow the dust on the surface of the sheet through a composite air flow and form a negative pressure field for guiding the dust. The composite air flow includes a spiral air flow tangential to the surface of the sheet and a central air flow perpendicular to the surface of the sheet.

[0005] Preferably, the dust cleaning member includes a sleeve provided on the grasping member. An inclined conical channel is formed in the sleeve wall. The conical channel can eject a spiral air flow. A linear through hole capable of ejecting a vertical air flow from the central area is provided in the grasping member. The spiral air flow and the vertical air flow cooperate to form a negative pressure field. The inclined conical channel in the sleeve wall enables the air flow to be ejected in a spiral manner. This spiral air flow has a strong tangential force, which can effectively peel the dust from the surface of the board and guide it to the edge. The linear through hole in the grasping member ejects a vertical air flow, which can lift the dust from the central area and cooperate with the spiral air flow to form a stable negative pressure field. This structural design makes the dust cleaning process more accurate and efficient, can effectively reduce dust residue, improve the cleanliness of the board, and provide a good foundation for subsequent adsorption and processing processes.

[0006] Preferably, the loading member includes a frame and a lifting device. The lifting device is installed on the frame and connected to the grasping member. The moving member includes a bracket and a linear module. The linear module is provided on the bracket, and the frame is provided on the linear module. The lifting device can drive the grasping member to move up and down to realize the grasping and placing of the board. The linear module can accurately control the horizontal movement of the frame, enabling the loading member to accurately reach the board placement area and the workbench of the board cutting device.

[0007] Preferably, a plurality of grasping members are provided. The grasping member includes a connecting rod and a suction cup. The connecting rod is connected to the loading member. The linear through hole is provided on the connecting rod. A first connecting pipe head communicating with the linear through hole is provided on the connecting rod. The first connecting pipe head is connected to a negative pressure air source device through a pipeline. The suction cup is provided on the sleeve. The linear through hole communicates with the inner cavity of the suction cup. The linear through hole on the connecting rod is not only used to eject a vertical air flow for dust cleaning but also serves as a negative pressure channel, enabling the suction cup to generate an adsorption force.

[0008] Preferably, the frame includes a moving plate. The moving plate is connected to the linear module. Connecting plates are symmetrically provided on the moving plate. Fixing plates are provided on the two connecting plates. The lifting device is provided on the fixing plates. An installation plate is provided on the output shaft of the lifting device. The connecting rod is provided on the installation plate. The lifting device can be a cylinder or an electric cylinder and other devices during use to drive the installation plate to move up and down. The distance sensor can be installed on the installation plate during setting.

[0009] Preferably, the sleeve is sleeved on the connecting rod. A third connecting pipe head communicating with the conical channel is provided on the sleeve. The air outlet end of the conical channel faces the plate body. A second connecting pipe head communicating with the linear through hole is provided on one side of the connecting rod. Both the second connecting pipe head and the third connecting pipe head are connected to a blowing device through pipelines. The second connecting pipe head and the third connecting pipe head are connected to the blowing device, so as to introduce compressed air into the linear through hole and the conical channel respectively. The compressed air introduced into the conical channel forms a spiral air flow. The air outlet end of the conical channel faces the plate body, ensuring that the spiral air flow can directly act on the surface of the plate, improving the dust cleaning effect. A mesh plate can be provided at the end of the second connecting pipe head where the gas enters according to actual conditions, ensuring that the vertical air flow is not stronger than the spiral air flow.

[0010] Preferably, the dust cleaning member further includes a cover body. A fixing block is provided on the sleeve. The cover body is movably sleeved on the sleeve. A spring is provided between the cover body and the fixing block. A fitting ring is provided on the contact surface between the lower part of the cover body and the plate body. When the cover body contacts the surface of the plate, the spring can play a buffering role to avoid damaging the plate. The setting of the fitting ring enhances the sealing performance between the cover body and the surface of the plate, preventing dust from leaking from the edge of the cover body. During the dust cleaning process, a relatively closed space is formed between the cover body and the surface of the plate, which is beneficial to the formation of a stable negative pressure field by the spiral air flow and the vertical air flow, improving the dust collection and guiding effect.

[0011] Preferably, a distance sensor is provided on the loading member. A pressure sensor is provided inside the pipeline connection where the pipeline is connected to the first connecting pipe head. The distance sensor is used to control the moving distance of the lifting device. The pressure sensor is used to monitor the negative pressure value inside the suction cup. A controller and an alarm are further provided on the moving member. The distance sensor can detect the position of the plate in real time, providing an accurate control signal for the movement of the lifting device to ensure that the grasping member can accurately reach the surface of the plate. The pressure sensor is used to monitor the negative pressure value inside the suction cup and feedback it to the controller.

[0012] Preferably, the controller can execute the following steps: when the pressure sensor detects that the negative pressure value inside the suction cup has not reached the preset adsorption threshold, control the lifting device to drive the suction cup to move up a certain distance, and at the same time send an instruction to the dust cleaning member to restart blowing the surface of the plate; After the blowing is completed, the controller controls the lifting device to drive the suction cup to descend again to contact the plate body for secondary adsorption; If the adsorption fails three times in a row, the controller triggers the alarm and controls the device to stop running; It stipulates the processing logic of the controller when the adsorption fails. When the pressure sensor detects that the negative pressure value in the suction cup does not reach the preset adsorption threshold, the controller controls the lifting device to move the suction cup up by a certain distance, and then starts the dust cleaning component again for secondary purging to remove the possibly remaining dust. After the purging is completed, the adsorption is attempted again. If the adsorption fails three times in a row, the controller triggers the alarm component and controls the device to stop running, and at the same time stores the relevant data. This retry mechanism and fault handling method improve the fault tolerance of the feeding rack, reduce the adsorption failures caused by accidental factors, and ensure the continuity and stability of production.

[0013] Preferably, the controller includes a storage module for recording the negative pressure value, the number of purging times, and the plate position data each time the adsorption fails. The alarm includes an audible and visual alarm arranged on the device main body. When the adsorption fails three times in a row, the controller controls the audible and visual alarm to emit a flashing light and a beeping alarm signal. The storage module records the negative pressure value, the number of purging times, and the plate position data each time the adsorption fails, providing an important basis for the maintenance and fault diagnosis of the device. The audible and visual alarm emits an obvious alarm signal when the adsorption fails three times in a row, attracting the attention of the operator. A solenoid valve one is provided on the connecting pipe head one, and solenoid valve twos are provided on both the connecting pipe head two and the connecting pipe head three. The solenoid valve one and the solenoid valve twos are all linked with the controller and can close the corresponding channels when blowing air or forming negative pressure. When the solenoid valve one, the solenoid valve twos, the negative pressure air source device, the blowing device, the lifting device, the linear module, and the alarm are connected to the power supply, they are all connected to the power supply through the relay module. The controller is connected to the control module to control the on-off of the power supply.

[0014] Compared with the prior art, the present invention has the following beneficial effects: The present invention realizes the full-automatic grasping, transferring, and positioning of large-size plates through the linkage of the linear module and the lifting device, completely replacing manual handling, effectively improving the feeding efficiency of the plates, and eliminating the risk of lumbar muscle strain caused by bending down to lift and safety hazards such as the falling and scratching of the plates. Moreover, the provided dust cleaning component forms a vortex negative pressure field through the spiral + vertical composite air flow, can effectively remove the dust at the adsorption part of the plate, and cooperates with the elastic sealing cover to avoid the scattering of dust, ensuring the cleanliness of the adsorption surface of the suction cup. And the intelligent control system supports automatic retry (up to 3 times) when the adsorption fails, and records data such as the negative pressure value and the plate position to assist in fault diagnosis, which can effectively improve the adsorption success rate. Description of the Drawings

[0015] To more clearly illustrate the technical solutions in the embodiments of the present invention, the following will briefly introduce the drawings required for use in the embodiments. Obviously, the drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on these drawings.

[0016] Figure 1 Schematic diagram of the overall structure of the present invention; Figure 2 Connection view of the moving part and the feeding part of the present invention; Figure 3 Structure view of the feeding part of the present invention; Figure 4 Structure view of the grasping part of the present invention; Figure 5 Exploded view of the structure of the grasping part of the present invention; Figure 6 Cross-sectional view of the structure of the grasping part of the present invention; Figure 7 Circuit connection process view of the present invention; Figure 8 Overall control flow chart of the present invention.

[0017] Explanation of figure numbers: 1. Moving part; 11. Bracket; 12. Linear module; 2. Feeding part; 21. Frame; 211. Moving plate; 212. Connecting plate; 213. Fixed plate; 22. Lifting device; 23. Mounting plate; 24. Grasping part; 241. Suction cup; 242. Connecting rod; 2421. Connecting pipe head one; 2422. Connecting pipe head two; 2423. Solenoid valve one; 2424. Straight through hole; 25. Dust cleaning part; 251. Sleeve; 2511. Conical channel; 252. Connecting pipe head three; 253. Solenoid valve two; 254. Fixed block; 255. Spring; 256. Cover body; 2561. Fitting ring; 3. Distance sensor; 4. Pressure sensor; 5. Controller; 6. Relay module. Detailed implementation manners

[0018] The present invention will be further described in detail below with reference to the drawings.

[0019] The following description is used to disclose the present invention so that those skilled in the art can implement the present invention. The preferred embodiments described below are only examples, and those skilled in the art can think of other obvious deformations. The basic principles defined in the following description can be used in other implementation schemes, deformation schemes, improvement schemes, equivalent schemes, and other technical schemes that do not deviate from the spirit and scope of the present invention.

[0020] Those skilled in the art should understand that in the disclosure of the present invention, the orientations or positions indicated by the terms "longitudinal", "transverse", "upper", "lower", "left", "right", "front", "rear", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. are based on the orientations or position relationships shown in the drawings. It is only for the convenience of simplifying the description of the present invention, rather than indicating or implying that the device or component referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, the above terms should not be construed as limiting the present invention.

[0021] It can be understood that the term "a" should be understood as "at least one" or "one or more". That is, in one embodiment, the number of an element can be one, while in other embodiments, the number of the element can be multiple. The term "a" should not be construed as limiting the quantity. Embodiment

[0022] Please refer to Figure 1-8 , a cutting and feeding device, including a loading member 2 for grasping a plate body and a moving member 1 for moving the position of the loading member 2. The loading member 2 is provided on the moving member 1. The loading member 2 includes a grasping member 24 for adsorbing the plate body and a dust cleaning member 25 for removing dust on the surface of the plate body. The dust cleaning member 25 can, before the grasping member 24 contacts the plate, blow the dust on the surface of the plate through a composite air flow and form a negative pressure field for guiding the dust. The composite air flow includes a spiral air flow tangential to the surface of the plate and a central air flow perpendicular to the surface of the plate.

[0023] The dust cleaning member 25 includes a sleeve 251 provided on the grasping member 24. An inclined tapered channel 2511 is formed in the wall of the sleeve 251. The tapered channel 2511 can eject a spiral air flow. A linear through hole 2424 capable of ejecting a vertical air flow is provided in the grasping member 24. The spiral air flow and the vertical air flow cooperate to form a negative pressure field. The inclined tapered channel 2511 in the wall of the sleeve 251 can make the air flow eject in a spiral manner. This spiral air flow has a strong tangential force, which can effectively peel the dust from the surface of the plate and guide it to the edge. The linear through hole 2424 in the grasping member 24 ejects a vertical air flow, which can raise the dust from the central area and cooperate with the spiral air flow to form a stable negative pressure field. This structural design makes the dust cleaning process more accurate and efficient, can effectively reduce dust residue, improve the cleanliness of the plate, and provide a good foundation for subsequent adsorption and processing processes.

[0024] The loading part 2 includes a frame 21 and a lifting device 22. The lifting device 22 is installed on the frame 21 and connected to the grasping part 24. The moving part 1 includes a bracket 11 and a linear module 12. The linear module 12 is arranged on the bracket 11, and the frame 21 is arranged on the linear module 12. The lifting device 22 can drive the grasping part 24 to move up and down to realize the grasping and placing of the plate. The linear module 12 can accurately control the horizontal movement of the frame 21, enabling the loading part 2 to accurately reach the plate placement area and the workbench of the plate cutting device. The linear module 12 is a mechanical device for realizing linear motion when in use.

[0025] There are multiple grasping parts 24. The grasping part 24 includes a connecting rod 242 and a suction cup 241. The connecting rod 242 is connected to the loading part 2. A linear through hole 2424 is arranged on the connecting rod 242. A first connecting pipe head 2421 communicating with the linear through hole 2424 is arranged on the connecting rod 242. The first connecting pipe head 2421 is connected to a negative pressure air source device through a pipeline. The suction cup 241 is arranged on a sleeve 251. The linear through hole 2424 communicates with the inner cavity of the suction cup 241. The linear through hole 2424 on the connecting rod 242 is not only used to eject vertical air flow for dust cleaning but also serves as a negative pressure channel, enabling the suction cup 241 to generate an adsorption force.

[0026] The frame 21 includes a moving plate 211. The moving plate 211 is connected to the linear module 12. Connecting plates 212 are symmetrically arranged on the moving plate 211. A fixing plate 213 is arranged on the two connecting plates 212. The lifting device 22 is arranged on the fixing plate 213. An installation plate 23 is arranged on the output shaft of the lifting device 22. The connecting rod 242 is arranged on the installation plate 23. The lifting device 22 can be a cylinder or an electric cylinder and other devices when in use, used to drive the installation plate 23 to move up and down. The distance sensor 3 can be installed on the installation plate 23 when set.

[0027] The sleeve 251 is sleeved on the connecting rod 242. A third connecting pipe head 252 communicating with a conical channel 2511 is arranged on the sleeve 251. The air outlet end of the conical channel 2511 faces the plate body. A second connecting pipe head 2422 communicating with the linear through hole 2424 is arranged on one side of the connecting rod 242. Both the second connecting pipe head 2422 and the third connecting pipe head 252 are connected to a blowing device through pipelines. The second connecting pipe head 2422 and the third connecting pipe head 252 are connected to the blowing device, thereby introducing compressed air into the linear through hole 2424 and the conical channel 2511 respectively. The compressed air introduced into the conical channel 2511 forms a spiral air flow. The air outlet end of the conical channel 2511 faces the plate body, ensuring that the spiral air flow can directly act on the surface of the plate to improve the dust cleaning effect. Whether to set a mesh plate for weakening the vertical air flow can be selected according to the actual situation at the end of the second connecting pipe head 2422 where the gas enters, ensuring that the vertical air flow is not stronger than the spiral air flow.

[0028] The dust cleaning member 25 further includes a cover body 256. A fixing block 254 is provided on the sleeve 251. The cover body 256 is movably sleeved on the sleeve 251. A spring 255 is provided between the cover body 256 and the fixing block 254. A fitting ring 2561 is provided on the contact surface between the lower part of the cover body 256 and the plate body. When the cover body 256 contacts the surface of the plate, the spring 255 can play a buffering role to avoid damaging the plate. The setting of the fitting ring 2561 enhances the sealing performance between the cover body 256 and the surface of the plate, preventing dust from leaking from the edge of the cover body 256. During the dust cleaning process, a relatively closed space is formed between the cover body 256 and the surface of the plate, which is conducive to the formation of a stable negative pressure field by the spiral air flow and the vertical air flow, improving the dust collection and guiding effect.

[0029] The feeding member 2 is provided with a distance sensor 3. A pressure sensor 4 is provided inside the pipeline connection part connected to the connecting pipe head 2421. The distance sensor 3 is used to control the moving distance of the lifting device 22. The pressure sensor 4 is used to monitor the negative pressure value inside the suction cup 241. The moving member 1 is further provided with a controller 5 and an alarm. The distance sensor 3 can detect the position of the plate in real time, providing an accurate control signal for the movement of the lifting device 22 to ensure that the grasping member 24 can accurately reach the surface of the plate. The pressure sensor 4 is used to monitor the negative pressure value inside the suction cup 241 and feedback it to the controller 5.

[0030] The controller 5 can execute the following steps: when the pressure sensor 4 detects that the negative pressure value inside the suction cup 241 does not reach the preset adsorption threshold, control the lifting device 22 to drive the suction cup 241 to move up a certain distance, and at the same time send an instruction to the dust cleaning member 25 to restart purging the surface of the plate; After the purging is completed, the controller 5 controls the lifting device 22 to drive the suction cup 241 to descend again to contact the plate for secondary adsorption; If the adsorption fails three times in a row, the controller 5 triggers the alarm and controls the device to stop running; The processing logic of the controller 5 in case of adsorption failure is specified. When the pressure sensor 4 detects that the negative pressure value inside the suction cup 241 does not reach the preset adsorption threshold, the controller 5 controls the lifting device 22 to move the suction cup 241 up a certain distance, and starts the dust cleaning member 25 again for secondary purging to remove the possibly remaining dust. After the purging is completed, try to adsorb again. If the adsorption fails three times in a row, the controller 5 triggers the alarm and controls the device to stop running, and stores the relevant data at the same time. This retry mechanism and fault handling method improve the fault tolerance ability of the feeding rack, reduce the adsorption failure caused by accidental factors, and ensure the continuity and stability of production.

[0031] The controller 5 includes a storage module for recording the negative pressure value, the number of purging times, and the plate position data each time the adsorption fails. The alarm includes an audible and visual alarm disposed on the device main body. When the adsorption fails three times in a row, the controller 5 controls the audible and visual alarm to emit a flashing light and a buzzer alarm signal. The storage module records the negative pressure value, the number of purging times, and the plate position data each time the adsorption fails, providing an important basis for the maintenance and fault diagnosis of the device. The audible and visual alarm emits an obvious alarm signal when the adsorption fails three times in a row, attracting the attention of the operator; A first solenoid valve 2423 is provided on the first connecting pipe head 2421, and second solenoid valves 253 are provided on both the second connecting pipe head 2422 and the third connecting pipe head 252. The first solenoid valve 2423 and the second solenoid valves 253 are both linked with the controller 5 and can close the corresponding channels when blowing air or forming a negative pressure. When the first solenoid valve 2423, the second solenoid valves 253, the negative pressure air source device, the blowing device, the lifting device 22, the linear module 12, and the alarm are connected to the power supply, they are all connected to the power supply through the relay module 6. The controller 5 is connected to the control module to control the on / off of the power supply.

[0032] When loading the board, the linear module 12 is started through the controller 5 to drive the frame 21 and the loading part 2 to move to the board placement area. The distance sensor 3 can check the board position and feedback it to the controller 5. The controller 5 drives the lifting device 22 to act by controlling the relay module 6. The output shaft of the lifting device 22 extends and drives the grasping part 24 to move downward through the mounting plate 23, so that the cover 256 of the dust cleaning part 25 contacts and fits with the surface of the board (at this time, the spring 255 is compressed by a certain distance). At this time, there is still a certain distance between the suction cup 241 and the board. Then the controller 5 controls the relay module 6 of the blowing device to open through the control relay module 6. At this time, the first solenoid valve 2423 is in the closed state. The controller 5 controls the two second solenoid valves 253 corresponding to the second connecting pipe head 2422 and the third connecting pipe head 252 to open. The blowing device blows compressed air into the conical channel 2511 and the straight through hole 2424 through the second connecting pipe head 2422 and the third connecting pipe head 252 respectively. The air flow entering the conical channel 2511 is ejected in the form of a spiral air flow, and the air flow entering the straight through hole 2424 is ejected in a vertical air flow. The middle vertical air flow can blow the dust, and the spiral air flow can form a negative pressure field in the center, and the blown dust is spirally thrown to the edge of the cover 256, so as to perform local dust treatment on the board body, and the treated dust will not fly in the air or blow under the adjacent suction cup 241 to cause interference; After dust cleaning is completed, the controller 5 controls the relay module 6 to turn off the blowing device. At the same time, the second solenoid valve 253 is also closed, and the first solenoid valve 2423 is opened. The controller 5 controls the relay module 6 to start the lifting device 22 to move downward, ensuring that the suction cup 241 is in contact with and fits the plate body, and turns on the relay of the negative pressure air source device. At this time, the circuit of the negative pressure air source device is connected, and a negative pressure is established in the suction cup 241 through the linear through hole 2424 to adsorb the plate body. The pressure sensor 4 continuously monitors the negative pressure value in the suction cup 241 and transmits the data to the controller 5. If the negative pressure meets the standard, the lifting device 22 lifts the plate to the transportation height; if it does not meet the standard, the following steps are executed: Adsorption failure handling: The controller 5 controls the relay module 6 to control the lifting device 22 to move the suction cup 241 upward by 5 - 10 mm. At the same time, the blowing device is turned on again, the negative pressure air source device is turned off, the second solenoid valve 253 is opened, and the first solenoid valve 2423 is closed. The dust cleaning part 25 is restarted for secondary purging. After the purging is completed, the relay is controlled again to switch the air path and attempt adsorption. When the adsorption fails three times in a row, the controller 5 controls the relay module 6 to energize the alarm for alarming, and at the same time, the device stops. The controller 5 stores the current negative pressure value (such as -70 kPa), the purging times (3 times), and the plate position (X = 1.2 m, Y = 0.8 m) in the storage module for subsequent maintenance.

[0033] When the adsorption is successful, the linear module 12 drives the feeding part 2 to move to the workbench of the plate cutting device, and the lifting device 22 descends to place the plate, completing the feeding. During the transfer process, the controller 5 controls the relay to drive the linear module 12 and the lifting device 22 to act according to the preset program to ensure that the plate is accurately placed on the plate cutting device.

[0034] Those skilled in the art should understand that the embodiments of the present invention described above and shown in the drawings are only examples and do not limit the present invention. The object of the present invention has been fully and effectively achieved. The functions and structural principles of the present invention have been shown and described in the embodiments. Without departing from the above principles, the embodiments of the present invention can have any deformation or modification.

Claims

1. A cutting and feeding device, characterized in that: It comprises a loading piece (2) for grabbing a plate body and a moving piece (1) for moving the loading piece (2), the loading piece (2) being arranged on the moving piece (1), and the loading piece (2) comprising a grabbing piece (24) for adsorbing the plate body and a dust cleaning piece (25) for removing dust from the surface of the plate body; The dust cleaning member (25) can sweep away dust on the surface of the plate through a composite airflow and form a negative pressure field to guide the dust before the grabbing member (24) contacts the plate, wherein the composite airflow includes a spiral airflow tangential to the plate surface and a central airflow perpendicular to the plate surface.

2. A cutting and feeding device according to claim 1, characterized in that: The dust cleaning member (25) comprises a sleeve (251) arranged on the gripping member (24); an inclined conical channel (2511) is provided in the wall of the sleeve (251); the conical channel (2511) is capable of ejecting a spiral airflow; a linear through hole (2424) is provided in the gripping member (24) which is capable of ejecting a vertical airflow from a central area; the spiral airflow cooperates with the vertical airflow to form a negative pressure field.

3. A cutting and feeding device according to claim 2, characterized in that: The loading member (2) comprises a frame (21) and a lifting device (22), wherein the lifting device (22) is mounted on the frame (21) and connected to a grabbing member (24), and the moving member (1) comprises a bracket (11) and a linear module (12), wherein the linear module (12) is arranged on the bracket (11), and the frame (21) is arranged on the linear module (12).

4. A cutting and feeding device according to claim 3, characterized in that: The grasping members (24) are provided in plurality, and the grasping members (24) include a connecting rod (242) and a suction cup (241); the connecting rod (242) is connected to the feeding member (2); the linear through hole (2424) is provided on the connecting rod (242); a connecting pipe head (2421) in communication with the linear through hole (2424) is provided on the connecting rod (242); the connecting pipe head (2421) is connected to a negative pressure air source device via a pipeline; the suction cup (241) is provided on the sleeve (251); and the linear through hole (2424) is in communication with an inner chamber of the suction cup (241).

5. A cutting and feeding device according to claim 4, characterized in that: The frame (21) comprises a movable plate (211), the movable plate (211) being connected to the linear module (12), the movable plate (211) being symmetrically provided with connecting plates (212), two connecting plates (212) being provided with fixing plates (213), the lifting device (22) being provided on the fixing plates (213), the output shaft of the lifting device (22) being provided with a mounting plate (23), and the connecting rod (242) being provided on the mounting plate (23).

6. A cutting and feeding device according to claim 5, characterized in that: The sleeve (251) is sleeved on the connecting rod (242); a third connecting pipe head (252) in communication with the tapered channel (2511) is provided on the sleeve (251); an air outlet end of the tapered channel (2511) faces the plate body; a second connecting pipe head (2422) in communication with the linear through hole (2424) is provided on one side of the connecting rod (242); the second connecting pipe head (2422) and the third connecting pipe head (252) are both connected to the blowing device via pipelines.

7. A cutting and feeding device according to claim 6, characterized in that: The dust cleaning member (25) further comprises a cover body (256), a fixing block (254) is provided on the sleeve (251), the cover body (256) is movably sleeved on the sleeve (251), a spring (255) is provided between the cover body (256) and the fixing block (254), and a fitting ring (2561) is provided below the cover body (256) on the contact surface with the plate body.

8. A cutting and feeding device according to claim 7, characterized in that: The distance sensor (3) on the loading part (2) is provided with a pressure sensor (4) in the pipe connection portion connected to the connecting pipe head (2421); the distance sensor (3) is used to control the moving distance of the lifting device (22); the pressure sensor (4) is used to monitor the negative pressure value in the suction cup (241); and the moving part (1) is also provided with a controller (5) and an alarm.

9. A cutting and feeding device according to claim 8, characterized in that: The controller (5) can perform the following steps: when the pressure sensor (4) detects that the negative pressure value in the suction cup (241) does not reach a preset adsorption threshold, the lifting device (22) is controlled to drive the suction cup (241) to move up a certain distance, and at the same time, a command is sent to the dust cleaning component (25) to restart the blowing of the plate surface; After the purging is completed, the controller (5) controls the lifting device (22) to drive the suction cup (241) to descend again until it contacts the plate body, thereby performing secondary adsorption; If adsorption fails three times in succession, the controller (5) triggers an alarm and controls the device to stop running.

10. A cutting and feeding device according to claim 9, characterized in that: The controller (5) comprises a storage module for recording the negative pressure value, the number of purges and the plate position data at each adsorption failure. The alarm comprises an audible and visual alarm arranged on the main body of the device. When adsorption fails three times in a row, the controller (5) controls the audible and visual alarm to emit a flashing light and a buzzing alarm signal. The connecting pipe head 1 (2421) is provided with a solenoid valve 1 (2423), and the connecting pipe head 2 (2422) and the connecting pipe head 3 (252) are both provided with a solenoid valve 2 (253). The solenoid valve 1 (2423) and the solenoid valve 2 (253) are both linked to the controller (5) and can close the corresponding channel when blowing or forming negative pressure.

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