CN210281798U - Numerical control groove cutting machine - Google Patents
Numerical control groove cutting machine Download PDFInfo
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- CN210281798U CN210281798U CN201920416322.2U CN201920416322U CN210281798U CN 210281798 U CN210281798 U CN 210281798U CN 201920416322 U CN201920416322 U CN 201920416322U CN 210281798 U CN210281798 U CN 210281798U
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Abstract
The utility model relates to a numerical control groove cutting machine. It has solved current oil groove processing equipment design technical problem such as reasonable inadequately. The numerical control lathe comprises a lathe body, a gantry frame body, a cutter shaft carriage, a vertical driving structure and a cutter blade mounting shaft, wherein a plurality of annular grooving cutters are sequentially arranged in the axial direction of the cutter blade mounting shaft, the cutter shaft carriage is provided with a grooving driving structure, the lathe body is horizontally slidably provided with a sucker carriage positioned on one side below the cutter blade mounting shaft, the sucker carriage is provided with an electromagnetic chuck, the electromagnetic chuck is connected with a sucker rotation driving mechanism, and a horizontal driving structure is arranged between the lathe body and the sucker carriage. Has the advantages that: rotation and removal and the rotation and the removal of marking out the groove blade of electromagnet all independent control to make whole marking out groove process need not operations such as artifical promotion, lift, degree of automation is high, can realize that friction disc, clutch disc list groove, multislot, the automatic marking out of multi-angle, product quality obtains promoting.
Description
Technical Field
The utility model belongs to the technical field of the grinding machine processing equipment, concretely relates to numerical control groove cutting machine.
Background
Automobile friction plates and clutch plates are common automobile parts, and in order to improve the braking effect of the automobile friction plates and the separation or engagement effect of the clutch plates, oil grooves need to be machined in the surfaces of the friction plates or the clutch plates. The existing oil groove processing is generally formed by refitting a bench drilling machine, a manual mechanical index plate, an electromagnetic chuck and the like, although a groove milling cutter is driven by a motor to automatically rotate, the up-and-down movement of the milling cutter and the propulsion of the electromagnetic chuck still need to be operated manually, the labor intensity is high, manual operation of workers is too frequent, the labor efficiency is low, the oil groove processing precision is low, the rejection rate is high, and the grooving of a friction plate or a clutch plate is greatly influenced.
In order to solve the problems of the prior art, various solutions have been proposed through long-term research, and, for example, chinese patent literature discloses a device for machining a mesh oil groove of a friction plate [ application No.: 201020296767.0]: the machine comprises a machine body, a torque input gear, an additional gear set, a torque transfer gear, a gear changing mechanism, a reduction gearbox, a workpiece fixing disc, a rotating disc and a machining cutter, wherein the torque input gear is installed on the right side of the machine body, one end of the additional gear set is meshed with the torque input gear, the other end of the additional gear set is meshed with the torque transfer gear, the gear changing mechanism is installed between the additional gear sets, the reduction gearbox is connected with the torque transfer gear, the workpiece fixing disc is installed on the rotating disc, and the machining cutter is fixed on a clamp above the workpiece fixing.
Above-mentioned scheme has solved the problem that current oil groove processingequipment need rely on the manual work to realize to a certain extent, but this application still has a great deal of not enough, for example, degree of automation is low, and the machining precision is low etc..
Disclosure of Invention
The utility model aims at the above-mentioned problem, provide a numerical control grooving machine that degree of automation is high.
In order to achieve the above purpose, the utility model adopts the following technical proposal: the numerical control grooving machine comprises a machine body and is characterized in that a gantry support body arranged in the vertical direction is arranged on the machine body, a cutter shaft carriage is movably arranged on one side of the gantry support body, a vertical driving structure capable of driving the cutter shaft carriage to ascend and descend along the gantry support body is arranged between the gantry support body and the cutter shaft carriage, a blade installation shaft horizontally arranged is arranged on the outer side of the cutter shaft carriage, a plurality of annular grooving blades are sequentially arranged in the axial direction of the blade installation shaft, a grooving driving structure capable of driving the blade installation shaft to rotate in the circumferential direction is arranged on the cutter shaft carriage, a sucker carriage positioned on one side below the blade installation shaft is arranged on the machine body in a horizontal sliding mode, an electromagnetic sucker is arranged on the sucker carriage and connected with a sucker rotation driving mechanism capable of driving the electromagnetic sucker to rotate in the circumferential direction, and a horizontal driving joint capable of driving the sucker to be close to or far away from the gantry support body in the horizontal direction is And (5) forming.
The grooving blade is a diamond blade or an alloy blade, the grooving blade is sequentially sleeved on a blade mounting shaft and driven by a grooving driving structure, two adjacent grooving blades are sequentially arranged at equal intervals, workpieces such as a friction plate and a clutch plate are positioned on an electromagnetic chuck, the electromagnetic chuck is driven to rotate by a chuck rotation driving mechanism, meanwhile, the workpieces can be moved towards the grooving blade through a horizontal driving structure, the grooving blade is driven to move up and down by a vertical driving mechanism, and therefore the whole grooving process does not need manual pushing, lifting and other operations, the automation degree is high, the friction plate can be realized, the clutch plate is single-groove, multiple grooves and multi-angle automatic grooving.
In foretell numerical control groove cutting machine, the longmen support body include two vertical symmetry sets up the stand in lathe bed both sides, stand lower extreme link to each other with the lathe bed, and link to each other through the top crossbeam between two stand upper ends.
In the numerical control groove cutting machine, the vertical driving structure comprises vertical slide rails respectively arranged at the front sides of the two stand columns, vertical slide blocks are respectively arranged on the two vertical slide rails in a sliding manner, the vertical slide blocks are connected with the inner sides of the cutter shaft plankers, and the cutter shaft plankers are connected with the top cross beam through vertical driving assemblies.
In foretell numerical control groove cutting machine, vertical drive assembly including set up the Z axle bearing frame on the top crossbeam, the Z axle bearing frame in wear to be equipped with the Z axle lead screw, Z axle lead screw upper end be connected with the Z axle reduction gear, just Z axle reduction gear be connected with Z axle lead screw driving motor, Z axle lead screw lower extreme downwardly extending and wear to locate in the vertical sliding seat, vertical sliding seat link to each other with the arbor planker inboard, just Z axle lead screw and vertical sliding seat screw thread link to each other.
In the above numerical control grooving machine, the grooving driving structure comprises two cutter shaft mounting seats symmetrically arranged on the outer sides of the cutter shaft plankers, a cutter shaft follower shaft is rotationally arranged in any one of the two cutter shaft mounting seats, a cutter shaft driving shaft is rotationally arranged in the other cutter shaft mounting seat, the blade mounting shaft is arranged between the cutter shaft follower shaft and the cutter shaft driving shaft, and the cutter shaft driving shaft is connected with the grooving driving assembly.
In the numerical control grooving machine, the grooving driving assembly comprises an extension seat which is arranged on the inner side of the cutter shaft planker and penetrates between the two stand columns, the extension seat is positioned on one side, away from the cutter shaft planker, of the gantry frame body and is connected with a cutter shaft motor mounting seat, a cutter shaft motor is arranged on the cutter shaft motor mounting seat, an output shaft of the cutter shaft motor is connected with the cutter shaft driving shaft through an annular transmission belt, one end, close to the cutter shaft driving shaft, of the cutter shaft planker is connected with one end, close to the cutter shaft driving shaft, of the cutter shaft motor mounting seat through a connecting plate which is positioned on the periphery of the gantry frame body, and a multi-wedge.
In foretell numerical control groove cutting machine, the sucking disc rotate actuating mechanism including setting up the worm case on the sucking disc planker, the electromagnet lower extreme be equipped with the electric slip ring seat that is located the worm incasement, just electric slip ring seat lower extreme be equipped with pneumatic brake subassembly and electric slip ring, be equipped with the cover at the electromagnet lower extreme and locate the peripheral sucking disc of electric slip ring seat and rotate the seat, just the sucking disc rotate between seat and the worm case and rotate through the revolving stage bearing and link to each other, just the sucking disc rotate the seat and be connected with the sucking disc and rotate drive assembly.
In the numerical control grooving machine, the sucker rotation driving assembly comprises a worm gear body which is arranged at the lower end of the sucker rotation seat and coaxially connected with the sucker rotation seat, a worm body which is meshed with the worm gear body penetrates through the worm box, and one end of the worm body is connected with the workbench rotation servo motor along the outer side of the worm box.
In the numerical control grooving machine, the horizontal driving structure comprises two horizontal guide rails which are horizontally arranged on two sides of the upper end of the machine body in parallel, each horizontal guide rail extends along the front side to the rear side of the machine body, horizontal sliding blocks are respectively arranged on the horizontal guide rails in a sliding manner, the sucking disc dragging plate is fixedly arranged on the horizontal sliding blocks, and a horizontal driving assembly is further arranged between the sucking disc dragging plate and the machine body.
In the numerical control groove cutting machine, the horizontal driving assembly comprises a depressed part which is arranged on the machine body and is positioned below the sucker planker, a plurality of horizontal mounting seats are arranged in the depressed part, X-axis lead screws which are parallel to the horizontal guide rails are arranged on the horizontal mounting seats in a penetrating mode in a rotating mode, one end of each X-axis lead screw is connected with an X-axis lead screw driver, a horizontal sliding seat which is connected with the lower end of the sucker planker is sleeved on each X-axis lead screw, and the horizontal sliding seat is in threaded connection with the X-axis lead screws.
Compared with the prior art, the utility model has the advantages of: rotation and removal and the rotation and the removal of marking out the groove blade of electromagnet all independent control to make whole marking out groove process need not operations such as artifical promotion, lift, degree of automation is high, can realize that friction disc, clutch disc list groove, multislot, the automatic marking out of multi-angle, product quality obtains promoting, workman intensity of labour obtains reducing, and the labor condition obtains improving, and production efficiency obtains obviously improving.
Drawings
Fig. 1 is a front view of the present invention;
FIG. 2 is a cross-sectional view of the structure at A-A in FIG. 1;
fig. 3 is a schematic structural diagram of the present invention;
fig. 4 is a schematic structural view of another viewing angle in the present invention;
FIG. 5 is an exploded view of the local structure of the present invention;
in the figure, a lathe bed 1, a gantry body 2, a column 21, a top cross beam 22, a cutter shaft carriage 3, a blade mounting shaft 31, a grooving blade 32, a vertical driving structure 4, a vertical slide rail 41, a vertical slide block 42, a Z-axis bearing seat 43, a Z-axis lead screw 44, a Z-axis reducer 45, a Z-axis lead screw driving motor 46, a vertical sliding seat 47, a grooving driving structure 5, a cutter shaft mounting seat 51, a cutter shaft follow-up shaft 52, a cutter shaft driving shaft 53, an extension seat 54, a cutter shaft motor mounting seat 55, a cutter shaft motor 56, an annular transmission belt 57, a connecting plate 58, a poly-wedge belt tensioner 59, a suction cup 6, an electromagnetic suction cup 7, a suction cup rotation driving mechanism 8, a worm box 81, an electrical slip ring seat 82, a pneumatic brake assembly 83, an electrical slip ring 84, a suction cup rotation seat 85, a turntable bearing 86, a worm gear body 87, a worm body 88, a workbench rotation servo motor 89, horizontal slider 92, depressed part 93, horizontal mount 94, X-axis lead screw 95, X-axis lead screw driver 96, horizontal sliding seat 97.
Detailed Description
The present invention will be described in further detail with reference to the accompanying drawings and specific embodiments.
As shown in fig. 1-5, the numerical control grooving machine comprises a machine body 1, a gantry frame body 2 arranged along the vertical direction is arranged on the machine body 1, a cutter shaft carriage 3 is movably arranged on one side of the gantry frame body 2, a vertical driving structure 4 capable of driving the cutter shaft carriage 3 to ascend and descend along the gantry frame body 2 is arranged between the gantry frame body 2 and the cutter shaft carriage 3, a blade mounting shaft 31 arranged horizontally is arranged on the outer side of the cutter shaft carriage 3, a plurality of annular grooving blades 32 are sequentially arranged on the axial direction of the blade mounting shaft 31, a grooving driving structure 5 capable of driving the blade mounting shaft 31 to rotate circumferentially is arranged on the cutter shaft carriage 3, a suction disc carriage 6 positioned on one side below the blade mounting shaft 31 is arranged on the machine body 1 in a horizontal sliding manner, an electromagnetic suction disc 7 is arranged on the suction disc carriage 6, the electromagnetic suction disc 7 is connected with a suction disc rotation driving mechanism 8 capable of driving the suction disc to rotate circumferentially, and a suction disc driving A horizontal drive mechanism 9.
The grooving blade 32 is a diamond blade or an alloy blade, the grooving blade is sequentially sleeved on the blade mounting shaft 31 and driven by the grooving driving structure 5, two adjacent grooving blades 32 are sequentially arranged at equal intervals, the friction plate, a clutch plate and other workpieces are positioned on the electromagnetic chuck 7, the electromagnetic chuck 7 is driven to rotate by the chuck rotating and driving mechanism 8, meanwhile, the workpiece can be moved towards the grooving blade 32 through the horizontal driving structure 9, the grooving blade 32 is driven to move up and down through the vertical driving mechanism 4, so that the whole grooving process does not need manual pushing, lifting and other operations, the automation degree is high, the friction plate can be realized, the clutch plate is single-grooved, multiple grooves, and multi-angle automatic grooving.
In order to realize the lifting of the grooving blade 32, the vertical driving structure 4 comprises vertical slide rails 41 respectively arranged at the front sides of the two upright posts 21, vertical slide blocks 42 are respectively arranged on the two vertical slide rails 41 in a sliding manner, the vertical slide blocks 42 are connected with the inner sides of the cutter shaft planker 3, and the cutter shaft planker 3 is connected with the top cross beam 22 through a vertical driving assembly. Preferably, the vertical driving assembly comprises a Z-axis bearing seat 43 arranged on the top cross beam 22, a Z-axis lead screw 44 penetrates through the Z-axis bearing seat 43, a Z-axis reducer 45 is connected to the upper end of the Z-axis lead screw 44, a Z-axis lead screw driving motor 46 is connected to the Z-axis reducer 45, the lower end of the Z-axis lead screw 44 extends downwards and penetrates through a vertical sliding seat 47, the vertical sliding seat 47 is connected with the inner side of the cutter shaft carriage 3, and the Z-axis lead screw 44 is in threaded connection with the vertical sliding seat 47. The Z-axis screw rod driving motor 46 drives the Z-axis screw rod 44 to rotate, so that the vertical sliding seat 47 moves on the Z-axis screw rod 44, and the cutter shaft carriage 3 moves up and down.
Further, the grooving driving structure 5 in this embodiment includes two cutter shaft mounting seats 51 symmetrically disposed on the outer side of the cutter shaft planker 3, a cutter shaft follower shaft 52 is rotatably disposed in any one cutter shaft mounting seat 51 of the two cutter shaft mounting seats 51, a cutter shaft driving shaft 53 is rotatably disposed in the other cutter shaft mounting seat 51, the blade mounting shaft 31 is disposed between the cutter shaft follower shaft 52 and the cutter shaft driving shaft 53, and the cutter shaft driving shaft 53 is connected to a grooving driving assembly.
Preferably, the grooving drive assembly comprises an extension seat 54 which is arranged on the inner side of the cutter shaft carriage 3 and penetrates between the two upright posts 21, one side, which is away from the cutter shaft carriage 3, of the extension seat 54 is connected with a cutter shaft motor mounting seat 55, which is located on the gantry frame body 2, the cutter shaft motor mounting seat 55 is provided with a cutter shaft motor 56, an output shaft of the cutter shaft motor 56 is connected with the cutter shaft driving shaft 53 through an annular transmission belt 57, one end, which is close to the cutter shaft driving shaft 53, of the cutter shaft carriage 3 is connected with one end, which is located on the periphery of the gantry frame body 2, of the cutter shaft motor mounting seat 55 through a connecting plate 58, the connecting plate 58 is provided with a poly-wedge belt tensioner 59 which abuts against the annular transmission belt 57, and obviously, the cutter shaft carriage 3, the extension seat 54, the cutter.
As shown in fig. 5, in order to realize circumferential rotation of the electromagnetic chuck 7, the chuck rotation driving mechanism 8 herein includes a worm box 81 disposed on the chuck planker 6, an electrical slip ring seat 82 located in the worm box 81 is disposed at the lower end of the electromagnetic chuck 7, a pneumatic brake assembly 83 and an electrical slip ring 84 are disposed at the lower end of the electrical slip ring seat 82, a chuck rotation seat 85 sleeved on the circumferential periphery of the electrical slip ring seat 82 is disposed at the lower end of the electromagnetic chuck 7, the chuck rotation seat 85 is rotatably connected with the worm box 81 through a turntable bearing 86, and the chuck rotation seat 85 is connected with a chuck rotation driving assembly. Preferably, the suction cup rotation driving assembly includes a worm gear body 87 disposed at a lower end of the suction cup rotation seat 85 and coaxially connected to the suction cup rotation seat 85, a worm gear 88 engaged with the worm gear body 87 is inserted into the worm case 81, and one end of the worm gear 88 extends to an outside of the worm case 81 and is connected to the table rotation servo motor 89. The worm body 88 rotates circumferentially to drive the worm body 87 to rotate circumferentially, and when the worm body 87 rotates, the suction cup rotating seat 85 rotates together with the worm body, so as to drive the electromagnetic suction cup 7 to rotate circumferentially.
In addition, in order to realize that the electromagnetic chuck 7 is close to or far away from the grooving blade 32, the horizontal driving structure 9 here comprises two horizontal guide rails 91 which are horizontally arranged on two sides of the upper end of the machine body 1 in parallel, each horizontal guide rail 91 extends from the front side to the rear side of the machine body 1, horizontal sliding blocks 92 are respectively arranged on the horizontal guide rails 91 in a sliding manner, the chuck planker 6 is fixedly arranged on the horizontal sliding block 92, and a horizontal driving assembly is further arranged between the chuck planker 6 and the machine body 1.
Preferably, the horizontal driving assembly comprises a recessed portion 93 which is arranged on the bed body 1 and located below the suction cup carriage 6, a plurality of horizontal mounting seats 94 are arranged in the recessed portion 93, an X-axis lead screw 95 which is arranged in parallel with the horizontal guide rail 91 is arranged on the horizontal mounting seats 94 in a rotating and penetrating mode, one end of the X-axis lead screw 95 is connected with an X-axis lead screw driver 96, a horizontal sliding seat 97 which is connected with the lower end of the suction cup carriage 6 is sleeved on the X-axis lead screw 95, and the horizontal sliding seat 97 is in threaded connection with the X-axis lead screw 95. Obviously, when the X-axis screw driver 96 drives the X-axis screw 95 to rotate circumferentially, the horizontal sliding seat 97 sleeved on the X-axis screw 95 moves axially along the X-axis screw 95, so as to realize the horizontal movement of the suction cup carriage 6.
The specific embodiments described herein are merely illustrative of the spirit of the invention. Various modifications, additions and substitutions for the specific embodiments described herein may be made by those skilled in the art without departing from the spirit of the invention or exceeding the scope of the invention as defined in the accompanying claims.
Although the lathe bed 1, the gantry body 2, the column 21, the top cross beam 22, the cutter shaft carriage 3, the blade mounting shaft 31, the grooving blade 32, the vertical driving structure 4, the vertical slide rail 41, the vertical slide block 42, the Z shaft bearing block 43, the Z shaft screw 44, the Z shaft reducer 45, the Z shaft screw driving motor 46, the vertical sliding seat 47, the grooving driving structure 5, the cutter shaft mounting seat 51, the cutter shaft follower shaft 52, the cutter shaft driving shaft 53, the extension seat 54, the cutter shaft motor mounting seat 55, the cutter shaft motor 56, the endless belt 57, the connecting plate 58, the poly-v-belt tensioner 59, the suction cup 6, the electromagnetic suction cup 7, the suction cup rotation driving mechanism 8, the worm box 81, the electrical slide ring seat 82, the pneumatic brake assembly 83, the electrical slide ring 84, the suction cup rotation seat 85, the turntable bearing 86, the worm wheel body 87, the worm body 88, the worktable rotation servo motor 89, the horizontal driving structure 9, the horizontal driving structure, Horizontal guide rail 91, horizontal slider 92, recess 93, horizontal mount 94, X-axis screw 95, X-axis screw driver 96, horizontal slide mount 97, etc., but does not exclude the possibility of using other terms. These terms are used merely to more conveniently describe and explain the nature of the present invention; they are to be construed in a manner that is inconsistent with the spirit of the invention.
Claims (10)
1. A numerical control grooving machine comprises a machine body (1) and is characterized in that a gantry frame body (2) arranged along the vertical direction is arranged on the machine body (1), a cutter shaft planker (3) is movably arranged on one side of the gantry frame body (2), a vertical driving structure (4) capable of driving the cutter shaft planker (3) to ascend and descend along the gantry frame body (2) is arranged between the gantry frame body (2) and the cutter shaft planker (3), a blade mounting shaft (31) horizontally arranged is arranged on the outer side of the cutter shaft planker (3), a plurality of annular grooving blades (32) are sequentially arranged on the blade mounting shaft (31) in the axial direction, a grooving driving structure (5) capable of driving the blade mounting shaft (31) to rotate in the circumferential direction is arranged on the cutter shaft planker (3), and a sucking disc (6) located on one side below the blade mounting shaft (31) is horizontally arranged on the machine body (1) in a sliding, the gantry crane is characterized in that an electromagnetic chuck (7) is arranged on the chuck planker (6), the electromagnetic chuck (7) is connected with a chuck rotation driving mechanism (8) capable of driving the chuck rotation driving mechanism to rotate in the circumferential direction, and a horizontal driving structure (9) capable of driving the chuck planker (6) to be close to or far away from the gantry frame body (2) along the horizontal direction is arranged between the lathe bed (1) and the chuck planker (6).
2. The numerical control groove cutting machine according to claim 1, characterized in that the gantry frame body (2) comprises two upright columns (21) which are vertically and symmetrically arranged at two sides of the machine body (1), the lower ends of the upright columns (21) are connected with the machine body (1), and the upper ends of the two upright columns (21) are connected through a top cross beam (22).
3. The numerical control groove cutting machine according to claim 2, characterized in that the vertical driving structure (4) comprises vertical slide rails (41) respectively arranged at the front sides of the two upright posts (21), vertical slide blocks (42) are respectively arranged on the two vertical slide rails (41) in a sliding manner, the vertical slide blocks (42) are connected with the inner sides of the cutter shaft plankers (3), and the cutter shaft plankers (3) are connected with the top cross beam (22) through vertical driving components.
4. The numerical control groove cutting machine according to claim 3, wherein the vertical driving assembly comprises a Z-axis bearing seat (43) arranged on the top cross beam (22), a Z-axis lead screw (44) penetrates through the Z-axis bearing seat (43), a Z-axis reducer (45) is connected to the upper end of the Z-axis lead screw (44), the Z-axis reducer (45) is connected with a Z-axis lead screw driving motor (46), the lower end of the Z-axis lead screw (44) extends downwards and penetrates through a vertical sliding seat (47), the vertical sliding seat (47) is connected with the inner side of the cutter shaft carriage (3), and the Z-axis lead screw (44) is in threaded connection with the vertical sliding seat (47).
5. The numerical control grooving machine according to claim 2, 3 or 4, wherein the grooving driving structure (5) comprises two cutter shaft mounting seats (51) symmetrically arranged on the outer side of the cutter shaft planker (3), a cutter shaft follower shaft (52) is rotatably arranged in any one cutter shaft mounting seat (51) of the two cutter shaft mounting seats (51), a cutter shaft driving shaft (53) is rotatably arranged in the other cutter shaft mounting seat (51), the blade mounting shaft (31) is arranged between the cutter shaft follower shaft (52) and the cutter shaft driving shaft (53), and the cutter shaft driving shaft (53) is connected with a grooving driving assembly.
6. The numerical control groove cutting machine according to claim 5, characterized in that the groove cutting driving component comprises an extension seat (54) which is arranged at the inner side of the cutter shaft planker (3) and is arranged between two upright posts (21) in a penetrating way, the extension seat (54) is positioned at one side of the gantry frame body (2) far away from the cutter shaft carriage (3) and is connected with a cutter shaft motor mounting seat (55), a cutter shaft motor (56) is arranged on the cutter shaft motor mounting seat (55), and the output shaft of the cutter shaft motor (56) is connected with the cutter shaft driving shaft (53) through an annular transmission belt (57), one end of the cutter shaft planker (3) close to the cutter shaft driving shaft (53) is connected with one end of the cutter shaft motor mounting seat (55) through a connecting plate (58) positioned on the periphery of the gantry frame body (2), and a multi-wedge belt tensioner (59) which is abutted against the annular transmission belt (57) is arranged on the connecting plate (58).
7. The numerical control groove cutting machine according to claim 1, wherein the sucking disc rotation driving mechanism (8) comprises a worm box (81) arranged on the sucking disc dragging plate (6), an electric slip ring seat (82) located in the worm box (81) is arranged at the lower end of the electromagnetic sucking disc (7), a pneumatic brake assembly (83) and an electric slip ring (84) are arranged at the lower end of the electric slip ring seat (82), a sucking disc rotation seat (85) sleeved on the periphery of the electric slip ring seat (82) is arranged at the lower end of the electromagnetic sucking disc (7), the sucking disc rotation seat (85) is rotatably connected with the worm box (81) through a turntable bearing (86), and the sucking disc rotation seat (85) is connected with a sucking disc rotation driving assembly.
8. The numerical control grooving machine as claimed in claim 7, wherein the suction cup rotation driving assembly comprises a worm gear body (87) which is arranged at the lower end of the suction cup rotation seat (85) and coaxially connected with the suction cup rotation seat (85), a worm body (88) which is meshed with the worm gear body (87) penetrates through the worm box (81), and one end of the worm body (88) extends to the outer side of the worm box (81) and is connected with the workbench rotation servo motor (89).
9. The numerical control groove cutting machine according to claim 1, wherein the horizontal driving structure (9) comprises two horizontal guide rails (91) which are horizontally arranged on two sides of the upper end of the machine body (1) in parallel, each horizontal guide rail (91) extends along the front side to the rear side of the machine body (1), horizontal sliding blocks (92) are respectively arranged on the horizontal guide rails (91) in a sliding manner, the sucking disc dragging plate (6) is fixedly arranged on the horizontal sliding blocks (92), and a horizontal driving assembly is arranged between the sucking disc dragging plate (6) and the machine body (1).
10. The numerical control groove cutting machine according to claim 9, wherein the horizontal driving assembly comprises a recessed portion (93) which is arranged on the machine body (1) and located below the sucker planker (6), a plurality of horizontal mounting seats (94) are arranged in the recessed portion (93), an X-axis screw rod (95) which is parallel to the horizontal guide rail (91) is rotatably arranged on each horizontal mounting seat (94), one end of each X-axis screw rod (95) is connected with an X-axis screw rod driver (96), a horizontal sliding seat (97) which is connected with the lower end of the sucker planker (6) is sleeved on each X-axis screw rod (95), and the horizontal sliding seat (97) is in threaded connection with the X-axis screw rod (95).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201920416322.2U CN210281798U (en) | 2019-03-29 | 2019-03-29 | Numerical control groove cutting machine |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201920416322.2U CN210281798U (en) | 2019-03-29 | 2019-03-29 | Numerical control groove cutting machine |
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| Publication Number | Publication Date |
|---|---|
| CN210281798U true CN210281798U (en) | 2020-04-10 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201920416322.2U Active CN210281798U (en) | 2019-03-29 | 2019-03-29 | Numerical control groove cutting machine |
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| CN (1) | CN210281798U (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN109968167A (en) * | 2019-03-29 | 2019-07-05 | 德清勤龙磨床制造有限公司 | Numerical control paddle-tumble machine |
-
2019
- 2019-03-29 CN CN201920416322.2U patent/CN210281798U/en active Active
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN109968167A (en) * | 2019-03-29 | 2019-07-05 | 德清勤龙磨床制造有限公司 | Numerical control paddle-tumble machine |
| CN109968167B (en) * | 2019-03-29 | 2025-04-29 | 浙江登亿自动化设备股份有限公司 | CNC Slotting Machine |
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