Intelligent fully automatic cutting operation tool

Abstract

An intelligent fully automatic cutting operation tool comprises a cutting table, a table guide rail and a cutting table motor. The table guide rail is rotatably installed on the cutting table, the cutting table motor is installed on the table guide rail, an infrared emitting device is installed in the table guide rail, the infrared emitting device is adapted to the cutting table motor, the table guide rail can be rotated relative to the cutting table, so that the cutting table motor can switch back and forth between the two functions of vertical cutting and chamfering, and through the setting of the infrared emitting device, it is convenient to calibrate the cutting table motor, improve the accuracy of the blade in the cutting table motor, and thus improve the cutting accuracy of the cutting machine.

Description

Technical Field

[0001] The invention belongs to the field of cutting machines, and in particular relates to an intelligent fully automatic cutting operation tool. Background Art

[0002] A cutting machine is a commonly used tool for cutting tiles and other plates. Usually, the cutting machine includes a frame, a workbench is provided on the frame, and a guide rail is provided above the workbench, a cutting frame is slidably provided on the guide rail, a rotating motor is fixed on the cutting frame, and a cutting blade is fixed on the power output shaft of the rotating motor. Generally speaking, the cutting frame is also provided with a handle for pushing. That is, the workpiece is placed on the workbench, and after the cutting motor is turned on, the cutting blade rotates, and the user holds the handle and manually drives the cutting frame to move, and the workpiece can be cut. It can be seen that the cutting machines currently on the market have the following main shortcomings: (1) The degree of automation is low, and the cutting machine needs to be operated manually, which requires a large investment in labor costs and is not conducive to the development of the enterprise; (2) The cutting machines currently on the market do not have a chamfering function and cannot chamfer the workpiece according to demand; (3) The precision of the cutting machines currently on the market is poor, and it is impossible to check whether the tool is offset. Summary of the invention

[0003] In view of the above shortcomings, the technical problem to be solved by the present invention is to provide an intelligent fully automatic cutting operation tool. The cutting machine has a high degree of automation, which reduces the manpower cost investment of the enterprise, and the cutting tool can be calibrated during the production process, so as to improve the cutting accuracy of the cutting machine.

[0004] In order to solve the above technical problems, the technical solution adopted by the present invention is:

[0005] The intelligent fully automatic cutting operation tool comprises a cutting table, a table guide rail and a cutting table motor. The table guide rail is rotatably mounted on the cutting table, the cutting table motor is mounted on the table guide rail, a limit piece is fixedly mounted on the cutting table, and correspondingly, a sensor is fixedly mounted inside the cutting table motor, the sensor is adapted to the limit piece to automatically control the forward and reverse movement of the cutting table motor.

[0006] Furthermore, an infrared emitting device is installed in the guide rail of the workbench, and the infrared emitting device is compatible with the motor of the cutting workbench.

[0007] Furthermore, the workbench guide rail includes a crossbeam fixing splint, a slide rail, a slider and a slider driving assembly. The slider is slidably installed on the slide rail. The slider driving assembly is connected to the slider to drive the slider to move. A driving adjustment component is installed on the crossbeam fixing splint. The driving adjustment component is connected to the slider driving assembly. The infrared emitting device is fixedly installed on the crossbeam fixing splint.

[0008] Furthermore, the slider drive assembly includes a slider drive motor, a driving pulley, a driven pulley and a synchronous belt. The slider drive motor is fixedly mounted on a beam fixing clamp, the driving pulley is mounted on the slider drive motor, and the driven pulley is mounted on the beam fixing clamp through a driving adjustment member. The synchronous belt is respectively connected to the driving pulley and the driven pulley.

[0009] Furthermore, the driving adjustment member includes an adjusting bolt and a pulley mounting seat, the adjusting bolt is rotatably mounted on the beam fixing clamping plate, the pulley mounting seat is rotatably connected to the adjusting bolt, and the driven pulley is mounted on the pulley mounting seat.

[0010] Furthermore, the crossbeam fixing splint is rotatably mounted on the cutting workbench, and a fine-tuning component is fixedly connected to the side wall of the cutting workbench, and the fine-tuning component is adapted to the crossbeam fixing splint to adjust the crossbeam fixing splint.

[0011] Furthermore, the fine-tuning assembly includes a cutting adjustment member and a chamfering adjustment member, the cutting adjustment member and the chamfering adjustment member are respectively fixedly connected to the side walls of the workbench fixed clamping plate, and the cutting adjustment member and the chamfering adjustment member are respectively adjustably connected to the beam fixed clamping plate.

[0012] Furthermore, an angle adjustment groove and a beam shaft hole are dug on the beam fixing splint, a rotating shaft is installed in the beam shaft hole, the beam fixing splint is connected to the cutting workbench through the rotating shaft, an angle positioning piece is installed on the cutting workbench, and the angle positioning piece is slidably installed in the angle adjustment groove.

[0013] Furthermore, the cutting workbench motor includes a slide rail connector, a cutting motor assembly and an electronic control assembly. The cutting motor assembly and the electronic control assembly are respectively fixedly connected to the slide rail connector. The electronic control assembly is electrically connected to the cutting motor assembly. A height adjustment structure is provided in the cutting motor assembly. The slide rail connector is fixedly connected to the workbench guide rail.

[0014] Furthermore, the cutting motor assembly includes a cutting motor, a motor flange and a motor connector, the motor flange is fixedly connected to the cutting motor, the motor flange and the motor connector are connected via a height adjustment structure, and the motor connector is fixedly connected to the slide rail connector.

[0015] The beneficial effect of the present invention is that the worktable guide rail can rotate relative to the cutting worktable, so that the cutting worktable motor can switch back and forth between the two functions of vertical cutting and chamfering, and through the setting of the infrared transmitting device, it is convenient to calibrate the cutting table motor, improve the accuracy of the blade in the cutting table motor, and thus improve the cutting accuracy of the cutting machine. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of the present invention.

[0017] Figure 2 It is a schematic diagram of the split structure of the folding foot.

[0018] Figure 3 This is a partial enlarged view of point A.

[0019] Figure 4 It is a partial structural diagram of the auxiliary workbench.

[0020] Figure 5 It is a structural diagram of the workbench guide rail.

[0021] Figure 6 This is a partial enlarged view of point B.

[0022] Figure 7 This is a partial enlarged view of point C.

[0023] Figure 8 This is a half-section diagram of the motor.

[0024] Fig. 9 It is a schematic diagram of the structure of the cutting table motor.

[0025] Fig.10 yes Fig. 9 Schematic diagram of the structure after rotating at a certain angle.

[0026] Fig.11 It is a schematic diagram of the structure of the guide rail dust cover.

[0027] Fig.12 It is a schematic diagram of the structure of the dust cover.

[0028] Fig.13 It is a schematic diagram of the split structure of the connection between the workbench fixing splint and the beam fixing splint.

[0029] Fig.14 This is a partial enlarged view of point D.

[0030] Fig.15 This is a local enlarged view of point E. DETAILED DESCRIPTION

[0031] The present invention will be further described below in conjunction with the accompanying drawings.

[0032] The intelligent fully automatic cutting operation tool comprises a cutting table 1, a table guide rail 2 and a cutting table motor 3. The table guide rail 2 is rotatably mounted on the cutting table 1, and the cutting table motor 3 is mounted on the table guide rail 2. An infrared emitting device is installed in the table guide rail 2, and the infrared emitting device is adapted to the cutting table motor 3. The table guide rail 2 can rotate relative to the cutting table 1, so that the cutting table motor 3 can switch back and forth between the two functions of vertical cutting and chamfering. Furthermore, by setting the infrared emitting device, it is convenient to calibrate the cutting table motor 3, thereby improving the accuracy of the blade in the cutting table motor 3 and thus improving the cutting accuracy of the cutting machine.

[0033] A folding foot 1-3 is rotatably installed at the lower end of the cutting workbench 1-2, and an auxiliary workbench 1-1 is detachably connected to the side wall of the cutting workbench 1-2. An auxiliary table top 1-4 is slidably installed in the auxiliary workbench 1-1. Through the setting of the sliding auxiliary table top 1-4, the auxiliary workbench 1-1 is convenient for adaptive adjustment according to the size of the workpiece, thereby improving the application range of the machine frame, and through the setting of the detachable auxiliary workbench 1-1 and the foldable folding foot 1-3, the machine frame can be folded and stored conveniently, thereby reducing the storage space.

[0034] The cutting workbench 1-2 includes a work table surface 1-5, a work table crossbeam 1-6 and a work table fixing splint 1-7. The work table crossbeam 1-6 and the work table fixing splint 1-7 are interconnected to form a fixed frame. The work table surface 1-5 is fixedly installed in the fixed frame, and the folding legs 1-3 are fixedly connected to the fixed frame to facilitate the installation of the folding legs 1-3.

[0035] The folding foot 1-3 includes a folding connector 1-8, a supporting foot 1-9 and a movable connector 1-10. The folding connector 1-8 is fixedly installed at the bottom of the fixed frame, the movable connector 1-10 is rotatably installed in the folding connector 1-8, and the movable connector 1-10 is inserted in the supporting foot 1-9.

[0036] An adjustment groove 1-11 is formed in the folding connecting piece 1-8, and an arc-shaped slide 1-12 and a fixing screw hole 1-13 are dug on the side wall of the adjustment groove 1-11. The movable connecting head 1-10 is rotatably installed in the adjustment groove 1-11 through the fixing screw hole 1-13, so that the movable connecting head 1-10 rotates with the fixing screw hole 1-13 as the center of the circle, and the folding foot 1-3 is guided and positioned by the arc-shaped slide groove 1-12.

[0037] A first positioning hole 1-14 is dug on the movable connecting head 1-10, and a second positioning hole 1-15 is dug on the supporting leg 1-9. Positioning bolts 1-16 are fixedly connected in the first positioning hole 1-14 and the second positioning hole 1-15. The movable connecting head 1-10 and the supporting leg 1-9 are connected by the positioning bolts 1-6. The positioning bolts 1-16 are slidably installed in the arc slide 1-12. The folding leg 1-3 is fixed by the positioning screws 1-16 and the arc slide 1-12.

[0038] The bottom end of the support leg 1-9 is provided with a rubber sleeve 1-17 to prevent the support leg 1-9 from slipping.

[0039] A roller assembly is fixedly mounted on a side support leg 1-9 of the cutting workbench 1-2. The roller assembly includes a roller bracket 1-18 and a roller 1-19. The roller bracket 1-18 is fixedly mounted on the support leg 1-9, and the roller 1-19 is rotatably mounted on the roller bracket 1-18, so as to facilitate the movement of the frame in the storage state.

[0040] The auxiliary workbench 1-1 includes an auxiliary crossbeam 1-20 and a supporting column 1-21. The auxiliary crossbeam 1-20 is detachably installed on the side wall of the cutting workbench 1-2. The supporting column 1-21 is fixedly connected to the end of the auxiliary crossbeam 1-20. The auxiliary table top 1-4 is slidably installed on the auxiliary crossbeam 1-20. Through the setting of the auxiliary crossbeam 1-20, the auxiliary table top 1-4 is easy to slide, providing support for larger workpieces and ensuring the quality of the cutting surface.

[0041] A first beam groove 1-22 is formed on the bottom surface of the auxiliary beam 1-20, and the supporting column 1-21 is slidably connected to the first beam groove 1-22 by screws. A second beam groove 1-23 is formed on the side surface of the auxiliary beam 1-20, and the auxiliary table top 1-4 is slidably connected to the second beam groove 1-23.

[0042] A table top slot 1-24 is excavated on the lower end surface of the auxiliary table top 1-4, and the table top slot 1-24 is connected to the second cross beam slot 1-23 via a connecting block 1-25. Preferably, the connecting block 1-25 is L-shaped, and the L-shaped connecting block 1-25 is connected to the table top slot 1-24 and the second cross beam slot 1-23 via screws.

[0043] A water tank 5-9 is dug inside the work surface 1-5, and a water outlet pipe 5-10 is fixedly connected inside the water tank 5-9. The arrangement of the water tank 5-9 facilitates the discharge of cutting water in the cutting workbench 1-2.

[0044] The upper end surface of the work surface 1-5 is provided with a cutting groove 5-11 and a clamp mounting groove 5-12. The position of the cutting groove 5-11 matches the position of the blade 3-20. The clamp mounting groove 5-12 is arranged on both sides of the cutting groove 5-11 to facilitate the installation of the clamp on the work surface 1-5.

[0045] A workpiece ruler 5-13 is fixedly mounted on the work table 1-5, and an alignment groove 5-14 is dug in the middle of the workpiece ruler 5-13, and the alignment groove 5-14 is aligned with the cutting knife groove 5-11, which is convenient for the installation of the workpiece ruler 5-13.

[0046] A positioning arrow 5-15 is formed on the workpiece ruler 5-13, and the positioning arrow 5-15 corresponds to the position of the infrared emitting device 5-6, that is, the infrared emitting device 5-6, the positioning arrow 5-15 and the blade 3-20 are located on the same straight line.

[0047] The workpiece ruler 5-13 is formed with a scale starting from a center positioning arrow 5-15, and the positioning arrow 5-15 is located in the middle of the alignment groove 5-14, which is convenient for the user to calculate the size of the cut workpiece.

[0048] The workbench guide rail includes a crossbeam fixing splint 4-1, a slide rail 6-11, a slider 6-2 and a slider driving assembly 6-3. The slider 6-2 is slidably installed on the slide rail 6-11. The slider driving assembly 6-3 is connected to the slider 6-2 to drive the slider 6-2 to move. A driving adjustment member 6-4 is installed on the crossbeam fixing splint 4-1. The driving adjustment member 6-4 is connected to the slider driving assembly 6-3. The synchronous belt in the slider driving assembly 6-3 is adjusted by the driving adjustment member 6-4, which is convenient for adjusting the tension of the synchronous belt during the cutting process to prevent the synchronous belt and the synchronous wheel from slipping, thereby preventing the cut workpiece from being scrapped. The infrared emitting device 5-6 is fixedly installed on the crossbeam fixing splint 4-1.

[0049] The slider drive assembly 6-3 includes a slider drive motor 6-5, a driving pulley 6-6, a driven pulley 6-7 and a synchronous belt 6-8. The slider drive motor 6-5 is fixedly mounted on the beam fixing clamp 4-1, the driving pulley 6-6 is mounted on the slider drive motor 6-5, the driven pulley 6-7 is mounted on the beam fixing clamp 4-1 through a driving adjustment member 6-4, and the synchronous belt 6-8 is respectively connected to the driving pulley 6-6 and the driven pulley 6-7. The spacing between the driving pulley 6-6 and the driven pulley 6-7 is adjusted by the driving adjustment member 6-4, thereby adjusting the tension of the synchronous belt 6-8.

[0050] The driving adjustment member 6-4 includes an adjusting bolt 6-9 and a pulley mounting seat 6-10. The adjusting bolt 6-9 is installed on the beam fixing clamp 4-1 by threaded rotation. The pulley mounting seat 6-10 is rotationally connected to the adjusting bolt 6-9. The driven pulley 6-7 is installed on the pulley mounting seat 6-10. Rotating the adjusting bolt 6-9 changes the extension amount of the adjusting bolt 6-9, thereby adjusting the relative position of the pulley mounting seat 6-10.

[0051] A guide installation groove 6-12 is dug on the inner side of the beam fixing splint 4-1, and one side end face of the pulley mounting seat 6-10 slides and fits on the inner wall of the guide installation groove 6-12 to prevent the pulley mounting seat 6-10 from rotating with the adjusting bolt 6-9 during the adjustment process. The slide rail 6-11 is installed in the guide installation groove 6-12.

[0052] A mounting through hole 6-13 is dug on the side wall of the guide mounting groove 6-12, and a dust cover 6-14 is installed on the beam fixing clamping plate 4-1 through the mounting through hole 6-13.

[0053] A guide rail mounting cavity 2-13 is formed in the dust cover 6-14, and the slide rail 6-11, slider 6-2, and synchronous belt 6-8 are all installed in the guide rail mounting cavity 2-13. The dust cover 6-14 is set to prevent debris from splashing onto the slide rail 6-11, slider 6-2, and synchronous belt 6-8 during the cutting process.

[0054] A synchronous belt groove 6-15 is dug on the beam fixing splint 4-1 on which the slider driving motor 6-5 is installed. The synchronous belt groove 6-15 is dug in the guide installation groove 6-12. The synchronous belt 6-8 passes through the synchronous belt groove 6-15, which facilitates the installation of the synchronous belt 6-8 into the dust cover 6-14.

[0055] A buffer column 6-16 is fixedly installed on the inner side of the beam fixing splint 4-1. The buffer column 6-16 is located below the guide installation groove 6-12 to prevent the cutting tool on the slide rail 6-11 from colliding with the beam fixing splint 4-1.

[0056] The adjusting bolt 6-9 includes an adjusting stud 6-17 and an adjusting nut 6-18. The adjusting stud 6-17 is installed on the beam fixing clamp 4-1 by threaded rotation. The adjusting nut 6-18 is fixedly connected to the adjusting stud 6-17. Rotating the adjusting nut 6-18 causes the adjusting stud 6-7 to move relative to each other.

[0057] The dust cover 6-14 includes a cover shell 2-1, a fixture 2-2 and a dustproof part 2-3. A guide rail groove 2-4 is formed at the bottom of the cover shell 2-1. The dustproof part 2-3 is fixedly installed in the guide rail groove 2-4. The fixture 2-2 is fixedly installed on the side wall of the cover shell 2-1. Through the setting of the dustproof part 2-3, it is convenient to shield the guide rail groove 2-4 to prevent dust from splashing into the cover shell 2-1 during the cutting process, thereby improving the dustproof performance of the cover shell 2-1 and preventing dust from contaminating the guide rail.

[0058] Dustproof component installation grooves 2-6 and dustproof component clamping holes 2-7 are formed on the side walls of the guide rail groove 2-4. One end of the dustproof component 2-3 is fixedly installed in the dustproof component installation groove 2-6, and the other end of the dustproof component 2-3 is clamped into the dustproof component clamping hole 2-7. The dustproof component 2-3 is installed in the cover shell 2-1 with one end fixed, which facilitates the dustproof component 2-3 to be deformed under force and prevents the dustproof component 2-3 from interfering with the guide rail component.

[0059] A dustproof card slot 2-8 is dug on the side wall of the dustproof part card hole 2-7, and the dustproof part 2-3 is inserted into the dustproof part card hole 2-7 through the dustproof card slot 2-8. The dustproof card slot 2-8 is set toward the dustproof part installation slot 2-6. The setting of the dustproof card slot 2-8 facilitates the insertion of the dustproof part 2-3 into the dustproof part card hole 2-7.

[0060] A shell mounting portion 2-9 is fixedly connected inside the cover shell 2-1, and a shell mounting hole 2-10 is dug inside the cover shell mounting portion 2-9. The diameter of the dustproof component clamping hole 2-7 is consistent with the diameter of the cover shell mounting hole 2-10. Both side ends of the cover shell mounting hole 2-10 and the dustproof component clamping hole 2-7 are formed with internal threads to facilitate the connection of the cover shell 2-1 to the mounting plates on both sides by bolts.

[0061] The dustproof part 2-3 includes a dustproof mounting part 2-11 and a brush part 2-12 which are connected to each other. The dustproof mounting part 2-11 is installed in the dustproof part mounting groove 2-6, and one end of the brush part 2-12 is inserted into the dustproof part clamping hole 2-7. The brush part 2-12 can be deformed under force to prevent the dustproof part 2-3 from interfering with the guide rail component.

[0062] A guide rail installation cavity 2-13 is formed in the cover shell 2-1, and a cover shell clamping plate 2-14 is fixedly connected in the guide rail installation cavity 2-13. A slide rail groove 2-15 is formed on the lower end surface of the cover shell clamping plate 2-14. During installation, the slide rail groove 2-15 is used to adapt to the slide rail, thereby improving the installation efficiency of the cover shell 2-1.

[0063] The upper end surface of the cover housing clamping plate 2-14 is fixedly connected with a reinforcing rib 2-16, and the position of the reinforcing rib 2-16 is consistent with the position of the slide rail groove 2-15. By setting the reinforcing rib 2-16, the strength of the slide rail groove 2-15 of the cover housing clamping plate 2-14 is improved.

[0064] A fixture installation groove 2-17 is formed on one side wall of the cover shell 2-1, and the fixture 2-2 is fixedly connected to the fixture installation groove 2-17 by fixing screws. The fixture 2-2 is used to place the cable tie.

[0065] The fixture 2-2 includes a first fixture plate 2-18, a second fixture plate 2-19 and a third fixture plate 2-20 which are connected to each other. A wire harness groove 2-21 is formed in the fixture 2-2. The wire harness is placed in the wire harness groove 2-21. The first fixture plate 2-18 is fixedly connected to the fixture mounting groove 2-17.

[0066] A limit member installation groove 2-22 is formed on the upper end surface of the cover shell 2-1, and a limit member 2-5 is fixedly connected to the limit member installation groove 2-22. The setting of the limit member 2-5 facilitates limiting the moving range of the guide rail component.

[0067] The limit member 2-5 is a magnet, and the limit members 2-5 are fixedly installed at both ends of the cover shell 2-1. Correspondingly, sensors are installed on both sides of the electric control shell 3-21, and the sensors are magnetic sensors. The position of the magnetic sensor corresponds to the position of the limit member 2-5, so that when it moves to the limit member 2-5, it generates a driving signal to drive the cutting worktable motor 3 to move forward and reverse. The magnetic sensor is electrically connected to the slider drive motor 6-5 to drive the slider drive motor 6-5 to rotate forward and reverse. When the electric control shell 3-21 is close to the limit member 2-5, the magnetic sensor sends a control signal to the drive motor 6-5, so that the drive motor 6-5 reverses.

[0068] The crossbeam fixing splint 4-1 is rotatably mounted on the workbench fixing splint 1-7, and the fine-tuning component 4-2 is fixedly connected to the workbench fixing splint 1-7. The fine-tuning component 4-2 is adapted to the crossbeam fixing splint 4-1 to adjust the crossbeam fixing splint 4-1. Through the setting of the fine-tuning component 4-2, it is convenient to fine-tune the self-chamfering component in the cutting and chamfering state, thereby improving the cutting and chamfering accuracy.

[0069] The fine-tuning assembly 4-2 includes a cutting adjustment member 4-3 and a chamfering adjustment member 4-4. The cutting adjustment member 4-3 and the chamfering adjustment member 4-4 are respectively fixedly connected to the side walls of the workbench fixed splint 1-7. The cutting adjustment member 4-3 and the chamfering adjustment member 4-4 are respectively adjustably connected to the beam fixed splint 4-1. The cutting angle of the beam fixed splint 4-1 is adjusted by the cutting adjustment member 4-3, and the chamfering angle of the beam fixed splint 4-1 is adjusted by the chamfering adjustment member 4-4.

[0070] The cutting adjustment member 4-3 includes a cutting adjustment block 4-5 and a cutting adjustment screw 4-6. The cutting adjustment block 4-5 is fixedly connected to the workbench fixed clamp 1-7. The cutting adjustment screw 4-6 is vertically installed in the cutting adjustment block 4-5. Through the setting of the cutting adjustment screw 4-6, it is convenient to fine-tune the blade in the cutting state.

[0071] The chamfer adjustment member 4-4 includes a chamfer adjustment block 4-7 and a chamfer adjustment screw 4-8. The chamfer adjustment block 4-7 is fixedly connected to the workbench fixed clamp 1-7, and the chamfer adjustment screw 4-8 is horizontally installed in the chamfer adjustment block 4-7. Through the setting of the chamfer adjustment screw 4-8, it is convenient to fine-tune the blade in the chamfering state.

[0072] A cutting top block 4-9 and a chamfering top block 4-10 are arranged on the side wall of the beam fixing splint 4-1. The cutting top block 4-9 is adapted to the cutting adjustment piece, and the chamfering top block 4-10 is adapted to the chamfering adjustment piece 4-4, so as to facilitate the connection between the beam fixing splint 4-1 and the fine-tuning component 4-2.

[0073] An anti-interference groove 4-11 is formed on the side wall of the beam fixing clamp 4-1 to prevent the beam fixing clamp 4-1 from interfering with the chamfer adjustment block 4-7.

[0074] An angle adjustment groove 4-12 and a beam shaft hole 4-13 are dug on the beam fixing splint 4-1, a rotating shaft 4-14 is installed in the beam shaft hole 4-13, the rotating shaft 4-14 is connected to the workbench fixing splint 1-7, an angle positioning member 4-15 is installed on the workbench fixing splint 1-7, and the angle positioning member 4-15 is slidably installed in the angle adjustment groove 4-12 to facilitate the connection between the workbench fixing splint 1-7 and the beam fixing splint 4-1.

[0075] The angle positioning member 4-15 includes an angle positioning handle 4-16 and an angle positioning bolt 4-17. The angle positioning bolt 4-17 is rotatably mounted on the workbench fixing clamp 1-7. The angle positioning handle 4-16 is fixedly connected to the angle positioning bolt 4-17. The workbench fixing clamp 1-7 and the crossbeam fixing clamp 4-1 are locked by the angle positioning handle 4-16.

[0076] An angle positioning mounting hole 4-18 and a shaft mounting hole 4-19 are dug on the workbench fixing splint 1-7, the shaft 4-14 is connected to the shaft mounting hole 4-19, and the angle positioning bolt 4-17 is connected to the angle positioning mounting hole 4-18, so as to facilitate the connection between the workbench fixing splint 1-7 and the beam fixing splint 4-1.

[0077] A rotation scale is carved on the end surface of the angle adjustment groove 4-12, which is convenient for adjusting the workbench fixing clamp 1-7 to a non-standard angle, thereby facilitating the cutting machine to process non-standard chamfers.

[0078] An emitter installation cavity 5-5 is dug inside the beam fixing splint 4-1, and an infrared emitting device 5-6 is fixedly installed in the emitter installation cavity 5-5, so that the infrared emitting device 5-6 and the beam fixing splint 4-1 rotate simultaneously, which is convenient for the infrared emitting device 5-6 to calibrate the cutting blade 5-8 in real time.

[0079] The cutting workbench motor includes a slide rail connector 3-1, a cutting motor assembly 3-2 and an electric control assembly 3-3. The cutting motor assembly 3-2 and the electric control assembly 3-3 are respectively fixedly connected to the slide rail connector 3-1. The electric control assembly 3-3 is electrically connected to the cutting motor assembly 3-2. A height adjustment structure 3-14 is provided in the cutting motor assembly 3-2. Through the setting of the height adjustment structure 3-14, it is convenient to adjust the height of the cutting blade in the cutting motor assembly 3-2 to meet the cutting needs of different users. The slide rail connector 3-1 is fixedly connected to the slider.

[0080] The cutting motor assembly 3-2 includes a cutting motor 3-4, a motor flange 3-5 and a motor connector 3-6. The motor flange 3-5 is fixedly connected to the cutting motor 3-4. The motor flange 3-5 and the motor connector 3-6 are connected via a height adjustment structure 3-14. The motor connector 3-6 is fixedly connected to the slide rail connector 3-1. The relative position between the motor flange 3-5 and the motor connector 3-6 is adjusted via the height adjustment structure 3-14, thereby adjusting the relative height of the cutting motor 3-4 to adjust the blade height in the cutting motor 3-4.

[0081] The motor connector 3-6 includes a connector mounting plate 3-7 and a flange mounting plate 3-8. The flange mounting plate 3-8 is vertically connected to the connector mounting plate 3-7, and the motor flange 3-5 is rotatably connected to the flange mounting plate 3-8.

[0082] A flange connecting hole 3-9 and a flange connecting groove 3-10 are dug inside the flange mounting plate 3-8, the motor flange 3-5 is rotatably connected to the flange connecting hole 3-9 by the motor bolt 3-11, and the flange connecting groove 3-10 is slidably connected to the motor flange 3-5. Preferably, the flange connecting groove 3-10 is an arc-shaped travel groove, and the relative height of the cutting motor 3-4 can be adjusted by adjusting the relative position of the height adjustment structure 3-14 in the flange connecting groove 3-10.

[0083] Mounting ears 3-12 are connected to both sides of the motor flange 3-5, and mounting holes 3-13 are dug inside the mounting ears 3-12. The mounting holes 3-13 on one side are rotatably connected to the flange connecting holes 3-9, and the height adjustment structure 3-14 is installed in the mounting holes 3-13 on the other side. The height adjustment structure 3-14 is slidably connected to the flange connecting groove 3-10. The relative height of the cutting motor 3-4 can be adjusted by adjusting the relative position of the height adjustment structure 3-14 in the flange connecting groove 3-10.

[0084] The height adjustment structure 3-14 includes a locking bolt 3-15 and a locking wrench 3-16. The locking bolt 3-15 is respectively connected to the flange connection groove 3-10 and the mounting hole 3-13. The locking wrench 3-16 is fixedly connected to the locking bolt 3-15. The motor flange 3-5 and the motor connector 3-6 are locked by the locking wrench 3-16.

[0085] A motor slot 3-17 is formed in the flange mounting plate 3-8, and the motor slot 3-17 is adapted to the cutting motor 3-4 to prevent the cutting motor 3-4 from interfering with the flange mounting plate 3-8.

[0086] The cutting motor 3-4 includes a motor 3-18, a reducer 3-19 and a blade 3-20. The motor 3-18 is fixedly mounted on the motor flange 3-5, the reducer 3-19 is connected to the motor, and the blade 3-20 is connected to the reducer 3-19.

[0087] The electric control assembly 3-3 includes an electric control housing 3-21, an electric control circuit board 3-22 and a display 3-23. The electric control housing 3-21 is fixedly connected to the slide rail connector 3-1. The electric control circuit board 3-22 is fixedly installed in the electric control housing 3-21. The display 3-23 is installed on the electric control housing 3-21 and connected to the electric control circuit board 3-22. The electric control circuit board 3-22 controls the motor 3-18 to work.

[0088] The slide rail connector 3-1 is in an I-shape, and the bottom of the slide rail connector 3-1 is fixedly connected to a mounting platform 3-24, and the electric control component 3-3 is fixedly mounted on the mounting platform 3-24.

[0089] In some preferred embodiments, a motor dustproof shell 3-25 is provided on the outer side of the motor 3-18, and a dustproof exhaust channel 3-26 is formed in the motor dustproof shell 3-25. The setting of the dustproof exhaust channel 3-26 can facilitate the heat dissipation of the motor 3-18 on the one hand, and can prevent the cutting fluid generated by cutting from splashing into the motor 3-18 on the other hand, thereby improving the service life of the motor 3-18.

[0090] In some preferred embodiments, the motor exhaust channel 3-26 is formed above the motor 3-18, and most of the cutting fluid is blocked during the cutting process to prevent the cutting fluid from splashing into the motor exhaust channel 3-26. Preferably, an exhaust groove 3-27 is dug on the upper end surface of the motor exhaust channel 3-26. The setting of the exhaust groove 3-27 facilitates heat dissipation of the motor 3-18.

[0091] The above description of the disclosed embodiments enables one skilled in the art to implement or use the present invention. Various modifications to these embodiments will be apparent to one skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention; therefore, the present invention will not be limited to the embodiments shown herein, but rather to the widest scope consistent with the principles and novel features disclosed herein.

[0092] Although this article uses more terms corresponding to the figure marks in the figures, it does not exclude the possibility of using other terms; these terms are used only to more conveniently describe and explain the essence of the present invention; interpreting them as any additional limitations is contrary to the spirit of the present invention.

Claims

1. Intelligent fully automatic cutting operation tool, characterized by: The invention comprises a cutting table (1), a table guide rail (2) and a cutting table motor (3), wherein the table guide rail (2) is rotatably mounted on the cutting table (1), the cutting table motor (3) is mounted on the table guide rail (2), a limiting member (2-5) is fixedly mounted on the cutting table (1), and correspondingly, a sensor is fixedly mounted inside the cutting table motor (3), the sensor is matched with the limiting member (2-5), so as to automatically control the forward and reverse movement of the cutting table motor (3); The workbench guide rail comprises a crossbeam fixing clamp (4-1), a slide rail (6-11), a slider (6-2) and a slider driving assembly (6-3); the slider (6-2) is slidably mounted on the slide rail (6-11); the slider driving assembly (6-3) is connected to the slider (6-2) and drives the slider (6-2) to move; a driving adjustment member (6-4) is mounted on the crossbeam fixing clamp (4-1); the driving adjustment member (6-4) is connected to the slider driving assembly (6-3); and an infrared emitting device (5-6) is fixedly mounted on the crossbeam fixing clamp (4-1); The slider driving assembly (6-3) comprises a slider driving motor (6-5), a driving pulley (6-6), a driven pulley (6-7) and a synchronous belt (6-8); the slider driving motor (6-5) is fixedly mounted on the beam fixing clamp (4-1); the driving pulley (6-6) is mounted on the slider driving motor (6-5); the driven pulley (6-7) is mounted on the beam fixing clamp (4-1) via a driving adjusting member (6-4); and the synchronous belt (6-8) is respectively connected to the driving pulley (6-6) and the driven pulley (6-7); The driving adjustment member (6-4) comprises an adjustment bolt (6-9) and a pulley mounting seat (6-10), the adjustment bolt (6-9) is rotatably mounted on the beam fixing clamp (4-1), the pulley mounting seat (6-10) is rotatably connected to the adjustment bolt (6-9), and the driven pulley (6-7) is mounted on the pulley mounting seat (6-10); An emitter installation cavity (5-5) is excavated inside the crossbeam fixing clamp (4-1), and the infrared emitting device (5-6) is fixedly installed in the emitter installation cavity (5-5), so that the infrared emitting device (5-6) and the crossbeam fixing clamp (4-1) rotate simultaneously, which facilitates the infrared emitting device (5-6) to calibrate the cutting blade in real time; A workpiece ruler (5-13) is fixedly mounted on the work table (1-5), a positioning arrow (5-15) is formed on the workpiece ruler (5-13), and the positioning arrow (5-15) corresponds to the position of the infrared emitting device (5-6); The crossbeam fixing clamp (4-1) is rotatably mounted on the cutting workbench, and a fine-tuning assembly (4-2) is fixedly connected to the side wall of the cutting workbench, and the fine-tuning assembly (4-2) is adapted to the crossbeam fixing clamp (4-1) to adjust the crossbeam fixing clamp (4-1); the fine-tuning assembly (4-2) includes a cutting adjustment member (4-3) and a chamfering adjustment member (4-4), and the cutting adjustment member (4-3) and the chamfering adjustment member (4-4) are respectively fixedly connected to the side wall of the workbench fixing clamp (1-7), and the cutting adjustment member (4-3) and the chamfering adjustment member (4-4) are respectively adjustably connected to the crossbeam fixing clamp (4-1); A dust cover (6-14) is installed on the crossbeam fixing clamping plate (4-1) through the installation through hole (6-13), a guide rail installation cavity (2-13) is formed in the dust cover (6-14), the slide rail (6-11), the slider (6-2), and the synchronous belt (6-8) are all installed in the guide rail installation cavity (2-13), the dust cover (6-14) comprises a cover shell (2-1), a retainer (2-2) and a dustproof part (2-3), a guide rail groove (2-4) is formed at the bottom of the cover shell (2-1), the dustproof part (2-3) is fixedly installed in the guide rail groove (2-4), and the retainer (2-2) is fixedly installed on the side wall of the cover shell (2-1); Dustproof component installation grooves (2-6) and dustproof component clamping holes (2-7) are formed on the side walls of the guide rail groove (2-4); one end of the dustproof component (2-3) is fixedly installed in the dustproof component installation groove (2-6); the other end of the dustproof component (2-3) is clamped in the dustproof component clamping hole (2-7); the dustproof component (2-3) is installed in the cover shell (2-1) in a fixed manner at one end; the dustproof component (2-3) comprises a dustproof installation part (2-11) and a brush part (2-12) connected to each other; the dustproof installation part (2-11) is installed in the dustproof component installation groove (2-6); one end of the brush part (2-12) is plugged into the dustproof component clamping hole (2-7); the brush part (2-12) can be deformed under force to prevent the dustproof component (2-3) from interfering with the guide rail component.

2. The intelligent fully automatic cutting operation tool according to claim 1, characterized in that: An angle adjustment groove (4-12) and a beam shaft hole (4-13) are formed on the beam fixing clamp (4-1), a rotating shaft (4-14) is installed in the beam shaft hole (4-13), the beam fixing clamp (4-1) is connected to the cutting workbench via the rotating shaft (4-14), an angle positioning member (4-15) is installed on the cutting workbench, and the angle positioning member (4-15) is slidably installed in the angle adjustment groove (4-12).

3. The intelligent fully automatic cutting operation tool according to claim 1, characterized in that: The cutting workbench motor comprises a slide rail connector (3-1), a cutting motor assembly (3-2) and an electric control assembly (3-3); the cutting motor assembly (3-2) and the electric control assembly (3-3) are respectively fixedly connected to the slide rail connector (3-1); the electric control assembly (3-3) is electrically connected to the cutting motor assembly (3-2); and a height adjustment structure (3-14) is provided in the cutting motor assembly (3-2).

4. The intelligent fully automatic cutting operation tool according to claim 3, characterized in that: The cutting motor assembly (3-2) comprises a cutting motor (3-4), a motor flange (3-5) and a motor connecting piece (3-6); the motor flange (3-5) is fixedly connected to the cutting motor (3-4); the motor flange (3-5) and the motor connecting piece (3-6) are connected via a height adjustment structure (3-14); and the motor connecting piece (3-6) and the slide rail connecting piece (3-1) are fixedly connected.

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