Direct-output digital grooving machine

Abstract

The invention relates to the technical field of paperboard processing equipment, and discloses a straight-out digital grooving machine which comprises a supporting mechanism, a device shell, an operation cavity formed in the middle of the device shell, a driving cavity formed in one side of the operation cavity, and a transmission cavity formed in the other side of the operation cavity. Through collaborative design of the supporting mechanism, the line pressing mechanism and the grooving mechanism, integrated machining of materials from feeding and line pressing to grooving and discharging is achieved, the line pressing mechanism guarantees stable conveying and accurate line pressing of the materials through transmission of a servo motor and a gear, the grooving mechanism adopts the design that a cutter is perpendicular to the feeding direction, and the cutting efficiency is improved. According to the full-automatic paperboard grooving machine, machining of infinite large paperboards is achieved, matching with narrow-width straight-out numbers is met, a linkage line is formed, the production cost is reduced, the grooving efficiency is improved, the distance adjusting assembly can adjust the distance between cutters, the gap adjusting assembly can adjust gaps of corresponding parts, the applicability of the device is greatly improved, and the diversified use requirements of users are met.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of paperboard processing equipment, and particularly relates to a straight-out digital slotting machine. BACKGROUND

[0002] Paperboard processing equipment is a mechanical device for cutting, indenting, printing, die cutting, laminating and other series of processing of paperboard, and is widely applied to packaging, printing and logistics industries. Common paperboard processing equipment includes a die cutting machine, a slitting machine, a box pasting machine, a printing slotting machine and the like. Traditional slotting machines mostly adopt a horizontal paper feeding mode, are equipped with four circular knives, the knives are consistent with the paper feeding direction, one knife needs to be responsible for one slot in front and one slot behind, and two slots can be slotted by one rotation of the knife. The slotting efficiency is low. Meanwhile, the positions of the knife of the traditional machine type are relatively fixed, and it is difficult to flexibly adjust the knife spacing according to the specifications of different materials, and the slotting width requirement cannot be met. In addition, the traditional slotting machine lacks an effective gap adjustment mechanism, and when facing materials of different thicknesses, the gap between the related components cannot be flexibly adjusted, and problems such as material conveying jamming, inaccurate line pressing and poor slotting quality are prone to occur, and it is difficult to meet the requirements of processing efficiency, precision and flexibility in modern production. SUMMARY

[0003] In view of the above problems existing in the prior art straight-out digital slotting machine, the present application is proposed.

[0004] Therefore, the purpose of the present application is to provide a straight-out digital slotting machine.

[0005] To solve the above technical problems, the present application provides the following technical scheme: comprising,

[0006] The support mechanism comprises a device housing, a working cavity formed in the middle of the device housing, a driving cavity formed on one side of the working cavity, a transmission cavity formed on the other side of the working cavity, a control panel arranged on one side of the device housing, and a moving track symmetrically arranged at the bottom of the device housing.

[0007] The line pressing mechanism comprises a feeding assembly arranged on the inner wall of the device housing, a line pressing assembly arranged on one side of the feeding assembly, and a conveying assembly arranged on one side of the line pressing assembly.

[0008] The slotting mechanism comprises an upper slotting assembly arranged on the inner wall of the working cavity, a distance adjusting assembly arranged on the top of the upper slotting assembly, a lower slotting assembly arranged on the bottom of the upper slotting assembly, a discharging assembly arranged on one side of the lower slotting assembly, and a plurality of gap adjusting assemblies arranged on the inner wall of the device housing.

[0009] As a preferred scheme of the digital slotter, the feeding assembly comprises a first servo motor mounted on the inner wall of the driving cavity, a first belt synchronizer arranged at the output end of the first servo motor, a front paper feeding glue roller connected with the output end of the first belt synchronizer, a first paper feeding upper shaft gear arranged at the end of the front paper feeding glue roller, a paper feeding lower shaft gear arranged at the bottom of the first paper feeding upper shaft gear, and a first line pressing flower roller lower shaft arranged at the end surface of the paper feeding lower shaft gear.

[0010] As a preferred scheme of the digital slotter, the line pressing assembly comprises a second servo motor arranged at one side of the first servo motor, a second belt synchronizer arranged at the output end of the second servo motor, a line pressing lower shaft connected with the output end of the second belt synchronizer, a first line pressing bridge gear arranged at one side of the first paper feeding upper shaft gear, a first lower shaft gear arranged at one side of the first line pressing bridge gear, and a line pressing glue roller upper shaft arranged at the end surface of the first lower shaft gear.

[0011] The outer surface of the line pressing lower shaft is circumferentially provided with four line pressing bottom grooves.

[0012] As a preferred scheme of the digital slotter, the conveying assembly comprises a second line pressing bridge gear arranged at one side of the first lower shaft gear, a second paper feeding upper shaft gear arranged at one side of the second line pressing bridge gear, a first slotting part glue roller arranged at the end surface of the second paper feeding upper shaft gear, a second lower shaft gear arranged at the bottom of the second paper feeding upper shaft gear, and a second line pressing flower roller lower shaft arranged at the end surface of the second lower shaft gear.

[0013] As a preferred scheme of the digital slotter, the upper slotting assembly comprises a third servo motor arranged at one side of the second servo motor, a third belt synchronizer arranged at the output end of the third servo motor, an upper cutter shaft arranged at the output end of the third belt synchronizer, cutter dies symmetrically arranged on the upper cutter shaft, and four circumferential arrayed cutters arranged on the outer surface of the cutter dies.

[0014] As a preferred scheme of the digital slotter, the distance adjusting assembly comprises a first worm gear reducer arranged on the inner wall of the driving cavity, a transverse moving screw arranged at the output end of the first worm gear reducer, linkage plates arranged at the top of the cutter dies, and upper pull rods arranged at the top of the two linkage plates.

[0015] As a preferred scheme of the straight-out digital slotting machine, the lower slotting assembly comprises a first slotting bridge gear arranged on one side of the second paper feeding upper shaft gear, a second slotting bridge gear arranged on one side of the first slotting bridge gear, a rubber roller large gear arranged at the bottom of the second slotting bridge gear, and a rubber roller cylinder arranged at the end surface of the rubber roller large gear.

[0016] As a preferred scheme of the straight-out digital slotting machine, the discharge assembly comprises a third slotting bridge gear arranged on one side of the second slotting bridge gear, a third paper feeding upper shaft gear arranged on one side of the third slotting bridge gear, a second slotting part rubber roller arranged at the end surface of the third paper feeding upper shaft gear, a third lower shaft gear arranged at the bottom of the third paper feeding upper shaft gear, and a third line pressing pattern roller lower shaft arranged at the end surface of the third lower shaft gear.

[0017] As a preferred scheme of the straight-out digital slotting machine, the gap adjusting assembly has five groups, which are arranged at the bottom of the first line pressing pattern roller lower shaft, the second line pressing pattern roller lower shaft, the rubber roller cylinder, and the third line pressing pattern roller lower shaft, and the top of the line pressing rubber roller upper shaft.

[0018] As a preferred scheme of the straight-out digital slotting machine, the gap adjusting assembly comprises a second worm gear and worm gear gearbox, a line wheel gap adjusting shaft arranged at the output end of the second worm gear and worm gear gearbox, two lifting adjusting gears fixedly sleeved on the line wheel gap adjusting shaft, and a lower shaft eccentric gear arranged on one side of the lifting adjusting gear.

[0019] The beneficial effects of the present application are as follows: through the cooperative design of the supporting mechanism, the line pressing mechanism, and the slotting mechanism, the integrated processing of the material from feeding, line pressing to slotting, and discharging is realized; the line pressing mechanism ensures the stable conveying and accurate line pressing of the material through the servo motor and gear transmission; the slotting mechanism adopts the design that the cutting knife is perpendicular to the feeding direction, realizing the processing of the infinite long large paperboard, satisfying the matching with the narrow width surface straight-out digital, forming a linkage line, reducing the production cost, significantly improving the slotting efficiency, the gap adjusting assembly can adjust the gap of the corresponding components, greatly enhancing the applicability of the device, and satisfying the diversified use requirements of the user. BRIEF DESCRIPTION OF DRAWINGS

[0020] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings needed in the embodiment description will be briefly introduced as follows. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creating any creative labor. Among them:

[0021] Figure 1 Fig. 1 is a schematic diagram of the overall structure of the present application.

[0022] Figure 2 Fig. 2 is a schematic diagram of the internal structure of the present application.

[0023] Figure 3 Fig. 3 is a schematic diagram of the internal structure of the present application from another perspective.

[0024] Figure 4 Fig. 4 is a schematic diagram of the internal structure of the present application in partial section.

[0025] Figure 5 Fig. 5 is a schematic diagram of the internal structure of the present application in partial section.

[0026] Figure 6 Fig. 6 is a schematic diagram of the line pressing assembly of the present application in partial section.

[0027] Figure 7 Fig. 7 is a schematic diagram of the slotting mechanism of the present application in partial section.

[0028] Figure 8 Fig. 8 is a schematic diagram of the slotting mechanism of the present application in partial structure.

[0029] Figure 9 Fig. 9 is a schematic diagram of the slotting mechanism of the present application in structure.

[0030] Figure 10 Fig. 10 is a schematic diagram of the gap adjusting assembly of the present application in partial section.

[0031] In the figure: 100, support mechanism; 101, device housing; 102, working cavity; 103, driving cavity; 104, transmission cavity; 105, control panel; 106, moving track; 200, line pressing mechanism; 201, feeding assembly; 201a, first servo motor; 201b, first belt synchronization part; 201c, front paper feeding glue roller; 201d, first paper feeding upper shaft gear; 201e, paper feeding lower shaft gear; 201f, first line pressing roller lower shaft; 202, line pressing assembly; 202a, second servo motor; 202b, second belt synchronization part; 202c, line pressing lower shaft; 202d, first line pressing bridge gear; 202e, first lower shaft gear; 202f, line pressing roller upper shaft; 203, conveying assembly; 203a, second line pressing bridge gear; 203b, second paper feeding upper shaft gear; 203c, first slotting part upper glue roller; 203d, second lower shaft gear; 203e, second line pressing roller lower shaft; 300, slotting mechanism; 301, upper slotting assembly; 301a, third servo motor; 301b, third belt synchronization part; 301c, knife shaft; 301d, knife die; 301e, cutter; 302, distance adjusting assembly; 302a, first worm gear reduction box; 302b, transverse moving screw; 302c, linkage plate; 302d, upper pull rod; 303, lower slotting assembly; 303a, first slotting bridge gear; 303b, second slotting bridge gear; 303c, glue roller gear; 303d, glue roller cylinder; 304, discharging assembly; 304a, third slotting bridge gear; 304b, third paper feeding upper shaft gear; 304c, second slotting part upper glue roller; 304d, third lower shaft gear; 304e, third line pressing roller lower shaft; 305, gap adjusting assembly; 305a, second worm gear reduction box; 305b, line wheel gap adjusting shaft; 305c, lifting adjusting gear; 305d, lower shaft eccentric gear. DETAILED DESCRIPTION

[0032] In order to make the above objectives, features and advantages of the present application more obvious and easy to understand, the specific embodiments of the present application will be described in detail below with reference to the accompanying drawings.

[0033] In the following description, a lot of specific details are set forth in order to provide a thorough understanding of the present application, but the present application can also be implemented in other ways different from those described herein, and those skilled in the art can make similar generalizations without departing from the concept of the present application, so the present application is not limited to the specific embodiments disclosed below.

[0034] Secondly, "one embodiment" or "embodiment" referred to herein means that a specific feature, structure or characteristic can be included in at least one implementation of the present application. "In one embodiment" appearing in different places in the specification does not mean the same embodiment, nor is it an embodiment that is separate or alternative to other embodiments.

[0035] Thirdly, the present application is described in detail in combination with the schematic diagram. In the detailed description of the embodiments of the present application, the cross-sectional view of the device structure is partially enlarged without the general proportion for the convenience of description, and the schematic diagram is only an example which should not limit the scope of protection of the present application. In addition, the three-dimensional spatial dimensions of length, width and depth should be included in the actual manufacture.

[0036] Embodiment 1

[0037] Reference Figure 1-8 For the first embodiment of the present application, a straight-out digital slotting machine is provided, which comprises,

[0038] The supporting mechanism 100 comprises a device housing 101, a working cavity 102 provided in the middle of the device housing 101, a driving cavity 103 provided on one side of the working cavity 102, a transmission cavity 104 provided on the other side of the working cavity 102, a control panel 105 provided on one side of the device housing 101, and a moving track 106 symmetrically provided at the bottom of the device housing 101.

[0039] The line pressing mechanism 200 comprises a feeding assembly 201 provided on the inner wall of the device housing 101, a line pressing assembly 202 provided on one side of the feeding assembly 201, and a conveying assembly 203 provided on one side of the line pressing assembly 202; and

[0040] The slotting mechanism 300 comprises an upper slotting assembly 301 provided on the inner wall of the working cavity 102, a distance adjusting assembly 302 provided on the top of the upper slotting assembly 301, a lower slotting assembly 303 provided on the bottom of the upper slotting assembly 301, and a discharging assembly 304 provided on one side of the lower slotting assembly 303.

[0041] It should be noted that the material to be processed is processed in the working cavity 102, the driving cavity 103 is mainly used for installing various driving motors and related transmission components, which provide power for the operation of the equipment, the transmission cavity 104 provides the installation position of various gears, the control panel 105 is used to control the equipment to slot, the moving track 106 facilitates the movement of the equipment in the working site, and can be used in cooperation with the digital printing machine to make the material directly enter the slotting machine after printing, the line pressing mechanism 200 is used for conveying and pressing the material, and the slotting mechanism 300 is used for slotting the material.

[0042] Specifically, the feeding assembly 201 comprises a first servo motor 201a installed on the inner wall of the driving cavity 103, a first belt synchronization part 201b arranged at the output end of the first servo motor 201a, a front paper feeding glue roller 201c connected with the output end of the first belt synchronization part 201b, a first paper feeding upper shaft gear 201d arranged at the end of the front paper feeding glue roller 201c, a paper feeding lower shaft gear 201e arranged at the bottom of the first paper feeding upper shaft gear 201d, and a first line pressing pattern roller lower shaft 201f arranged at the end surface of the paper feeding lower shaft gear 201e.

[0043] It should be noted that the front paper feeding glue roller 201c is installed in the working cavity 102, and when the first servo motor 201a rotates, the front paper feeding glue roller 201c is driven to rotate through the first belt synchronization part 201b. The front paper feeding glue roller 201c drives the paper feeding lower shaft gear 201e engaged therewith to rotate through the first paper feeding upper shaft gear 201d arranged at the end thereof, thereby driving the first line pressing pattern roller lower shaft 201f to rotate synchronously, and the material to be processed such as paperboard is stably fed into the equipment.

[0044] Further, the line pressing assembly 202 comprises a second servo motor 202a arranged on one side of the first servo motor 201a, a second belt synchronization part 202b arranged at the output end of the second servo motor 202a, a line pressing lower shaft 202c connected with the output end of the second belt synchronization part 202b, a first line pressing bridge gear 202d arranged on one side of the first paper feeding upper shaft gear 201d, a first lower shaft gear 202e arranged on one side of the first line pressing bridge gear 202d, and a line pressing glue roller upper shaft 202f arranged at the end surface of the first lower shaft gear 202e.

[0045] The outer surface of the line pressing lower shaft 202c is circumferentially provided with four line pressing grooves.

[0046] It should be noted that the line pressing lower shaft 202c can also be arranged on the top of the line pressing glue roller upper shaft 202f according to the use requirement. The line pressing lower shaft 202c is driven to rotate by the second servo motor 202a through the second belt synchronization part 202b. When the first paper feeding upper shaft gear 201d rotates, the first lower shaft gear 202e is driven to rotate through the first line pressing bridge gear 202d, thereby transmitting power to the line pressing glue roller upper shaft 202f. The line pressing lower shaft 202c cooperates with the line pressing glue roller upper shaft 202f to accurately press the material by using the four line pressing grooves on the outer surface of the line pressing lower shaft 202c.

[0047] The conveying assembly 203 comprises a second pressure line bridge gear 203a arranged on one side of the first lower shaft gear 202e, a second paper feeding upper shaft gear 203b arranged on one side of the second pressure line bridge gear 203a, a first slotted upper rubber roller 203c arranged on the end face of the second paper feeding upper shaft gear 203b, a second lower shaft gear 203d arranged on the bottom of the second paper feeding upper shaft gear 203b, and a second pressure line roller lower shaft 203e arranged on the end face of the second lower shaft gear 203d.

[0048] It should be noted that when the first lower shaft gear 202e rotates, the second paper feeding upper shaft gear 203b is driven to rotate by the second pressure line bridge gear 203a engaged with the first lower shaft gear 202e, and the second lower shaft gear 203d engaged with the second paper feeding upper shaft gear 203b is driven to rotate synchronously, thereby realizing synchronous rotation of the first slotted upper rubber roller 203c and the second pressure line roller lower shaft 203e.

[0049] Preferably, the upper slotting assembly 301 comprises a third servo motor 301a arranged on one side of the second servo motor 202a, a third belt synchronization member 301b arranged on the output end of the third servo motor 301a, an upper cutter shaft 301c arranged on the output end of the third belt synchronization member 301b, cutter dies 301d symmetrically arranged on the upper cutter shaft 301c, and eight circumferentially arrayed cutters 301e arranged on the outer surface of the cutter dies 301d.

[0050] It should be noted that the connection mode of the output ends of the first servo motor 201a, the second servo motor 202a and the third servo motor 301a is not limited to a transmission belt, and can also be connected with a universal joint or other transmission members. The outer surface of the upper cutter shaft 301c is axially provided with a cutter shaft long key, the cutter dies 301d are slidingly sleeved on the outer surface of the upper cutter shaft 301c, the inner surface of the cutter dies 301d is provided with a slot matching the cutter shaft long key, and the eight symmetrically arranged cutters 301e include three cutting angle cutters and one slotting cutter. One cutter corresponds to one slot, and the direction thereof is perpendicular to the paper feeding direction. In the rotation process, the upper cutter shaft 301c is turned by 90 degrees to open one slot, and one rotation can open four slots. The third servo motor 301a drives the upper cutter shaft 301c to rotate through the third belt synchronization member 301b, and the cutter dies 301d and the cutters 301e on the upper cutter shaft 301c rotate accordingly, thereby performing slotting operation on the material by the cutters 301e.

[0051] Specifically, the distance adjusting assembly 302 comprises a first worm gear and worm reduction box 302a arranged on the inner wall of the driving cavity 103, a transverse moving screw 302b arranged on the output end of the first worm gear and worm reduction box 302a, linkage plates 302c arranged on the top of the cutter dies 301d, and upper pull rods 302d arranged on the top of the two linkage plates 302c.

[0052] It should be noted that the transverse screw 302b is a bidirectional thread screw, and the surface thereof is symmetrically provided with threads, the linkage plates 302c are provided with internal threads engaged with the transverse screw 302b, and the transverse screw 302b drives the two linkage plates 302c to move towards or away from each other when rotating, thereby driving the knife die 301d to move, adjusting the distance between the cutters 301e, and adapting to the slotting requirements of different specifications of materials. The upper pull rod 302d provides support and guidance for the two linkage plates 302c.

[0053] Further, the lower slotting assembly 303 comprises a first slotting bridge gear 303a provided on one side of the second paper feeding upper shaft gear 203b, a second slotting bridge gear 303b provided on one side of the first slotting bridge gear 303a, a rubber roller large gear 303c provided at the bottom of the second slotting bridge gear 303b, and a rubber roller barrel 303d provided at the end face of the rubber roller large gear 303c.

[0054] It should be noted that the upper cutter shaft 301c can also be provided at the bottom of the rubber roller barrel 303d according to the use requirements. The lower slotting assembly 303 receives power from the feeding assembly 201 through the first slotting bridge gear 303a engaged with the second paper feeding upper shaft gear 203b. The first slotting bridge gear 303a drives the second slotting bridge gear 303b engaged therewith to rotate. The second slotting bridge gear 303b drives the rubber roller large gear 303c engaged therewith to rotate when rotating. In turn, the rubber roller large gear 303c drives the rubber roller barrel 303d fixedly connected therewith to rotate. The rubber roller barrel 303d is installed at the end face of the rubber roller large gear 303c, below the upper cutter shaft 301c of the upper slotting assembly 301, and corresponds to the cutters 301e on the upper cutter shaft 301c. In the slotting process, the rubber roller barrel 303d supports and extrudes the material, cooperates with the upper slotting assembly 301 to complete the slotting operation, and assists the material conveying.

[0055] The discharge assembly 304 comprises a third slotting bridge gear 304a provided on one side of the second slotting bridge gear 303b, a third paper feeding upper shaft gear 304b provided on one side of the third slotting bridge gear 304a, a second slotting upper rubber roller 304c provided at the end face of the third paper feeding upper shaft gear 304b, a third lower shaft gear 304d provided at the bottom of the third paper feeding upper shaft gear 304b, and a third line pressing flower roller lower shaft 304e provided at the end face of the third lower shaft gear 304d.

[0056] It should be noted that the front paper feeding glue roller 201c corresponds to the first line pressing roller lower shaft 201f, the first slotting part upper glue roller 203c corresponds to the second line pressing roller lower shaft 203e, and the second slotting part upper glue roller 304c corresponds to the third line pressing roller lower shaft 304e, and the three groups of structures are respectively matched, and each of the three groups of structures constitutes a conveying structure and is used to realize material conveying, and any one group, two groups or all three groups can be replaced by a bellows according to actual use requirements; in the discharging assembly 304, the third slotting bridge gear 304a is engaged with the second slotting bridge gear 303b and the third paper feeding upper shaft gear 304b respectively, so that the second slotting bridge gear 303b can drive the third paper feeding upper shaft gear 304b to rotate together when the second slotting bridge gear 303b rotates, and the third paper feeding upper shaft gear 304b drives the third lower shaft gear 304d engaged therewith to rotate when the third paper feeding upper shaft gear 304b rotates, thereby realizing synchronous rotation of the second slotting part upper glue roller 304c and the third line pressing roller lower shaft 304e, and conveying the processed material out of the equipment.

[0057] In use, according to the requirement of the work site, the straight digital slotting machine can be moved to a suitable position through the moving track 106, and can also be used in cooperation with a digital printing machine, so that the material can directly enter the slotting machine after printing. The processed material is placed in the feeding port in a vertical manner, and the operator starts the equipment through the control panel 105, and then the first servo motor 201a is started to drive the front paper feeding upper glue roller 201c and the first line pressing roller lower shaft 201f to rotate synchronously through the first belt synchronous part 201b, so that the material is smoothly sent into the line pressing assembly 202. After the material enters the line pressing assembly 202, the second servo motor 202a drives the line pressing lower shaft 202c to rotate through the second belt synchronous part 202b, and at the same time, the first paper feeding upper shaft gear 201d drives the first lower shaft gear 202e to rotate through the first line pressing bridge gear 202d, so that the line pressing upper shaft 202f rotates. The line pressing lower shaft 202c and the line pressing upper shaft 202f cooperate to press the material, and the material is sent into the conveying assembly 203. The first lower shaft gear 202e drives the second paper feeding upper shaft gear 203b to rotate through the second line pressing bridge gear 203a, and the second paper feeding upper shaft gear 203b drives the second lower shaft gear 203d to rotate, so as to realize synchronous rotation of the first slotting part upper glue roller 203c and the second line pressing roller lower shaft 203e, and convey the material to the slotting mechanism 300;

[0058] When the material reaches the slotting area, the third servo motor 301a drives the upper cutter shaft 301c to rotate through the third belt synchronous component 301b, and the left and right cutter dies 301d on the upper cutter shaft 301c drive the cutter 301e to rotate accordingly. At the same time, the rubber roller cylinder 303d rotates under the transmission of the gear, and the cutter 301e cooperates with the rubber roller cylinder 303d to perform slotting operation on the material. After slotting is completed, the material enters the discharge assembly 304. The second slotting bridge gear 303b drives the third paper feeding upper shaft gear 304b to rotate through the third slotting bridge gear 304a, and the third paper feeding upper shaft gear 304b drives the third lower shaft gear 304d to rotate, so that the second slotting part upper rubber roller 304c and the third line pressing roller lower shaft 304e rotate synchronously, and the processed material is discharged from the equipment.

[0059] In summary, the support mechanism 100 provides a stable support frame through the device housing 101, the reasonable layout of the operation cavity 102, the drive cavity 103 and the transmission cavity 104 ensures the coordinated operation of each functional component, the mobile rail 106 facilitates flexible movement of the equipment, the line pressing mechanism 200 realizes precise material conveying and efficient line pressing through the cooperation of the feeding assembly 201, the line pressing assembly 202 and the conveying assembly 203, and the combination of servo motor driving and gear transmission ensures the stability and accuracy of power transmission. The slotting mechanism 300 realizes efficient and accurate slotting of the material through the linkage design of the upper slotting assembly 301, the distance adjusting assembly 302, the lower slotting assembly 303 and the discharge assembly 304. In particular, the innovative layout of the cutter die 301d and the cutter 301e, with the cutter 301e perpendicular to the feeding direction, opens a slot every 90 degrees, significantly improving the slotting quality.

[0060] In addition, the distance adjusting assembly 302 realizes stepless adjustment of the cutter distance through the precise cooperation of the worm gear reducer 302a and the horizontal moving screw 302b, meeting the processing needs of different specifications of products, and the discharge assembly 304 ensures the smooth output of the processed products.

[0061] Embodiment 2

[0062] Reference Figure 9-10 For the second embodiment of the present application, which is different from the first embodiment, the embodiment provides a gap adjusting assembly 305 of the straight-out digital slotting machine, solving the problem that the device cannot press and slot materials of different thicknesses.

[0063] Specifically, the slotting mechanism 300 further comprises a plurality of gap adjusting assemblies 305 arranged on the inner wall of the device housing 101.

[0064] Further, the gap adjusting assembly 305 has five sets, which are respectively arranged at the bottom of the first pressure line roller lower shaft 201f, the second pressure line roller lower shaft 203e, the rubber roller barrel 303d and the third pressure line roller lower shaft 304e, and the top of the pressure line rubber roller upper shaft 202f.

[0065] It should be noted that the five sets of gap adjusting assemblies 305 respectively fine-tune the height of the first pressure line roller lower shaft 201f, the second pressure line roller lower shaft 203e, the rubber roller barrel 303d, the third pressure line roller lower shaft 304e and the pressure line rubber roller upper shaft 202f, thereby changing the gap with the corresponding components.

[0066] Further, the gap adjusting assembly 305 includes a second worm gear box 305a, a line wheel gap adjusting shaft 305b arranged at the output end of the second worm gear box 305a, two lifting adjusting gears 305c fixedly sleeved on the line wheel gap adjusting shaft 305b, and a lower shaft eccentric gear 305d arranged on one side of the lifting adjusting gear 305c.

[0067] It should be noted that the two lower shaft eccentric gears 305d are respectively arranged on the inner walls on both sides of the working cavity 102, and the two lower shaft eccentric gears 305d are rotatably sleeved on the outer surfaces of the shafts whose gaps need to be adjusted. The second worm gear box 305a drives the line wheel gap adjusting shaft 305b to rotate, the line wheel gap adjusting shaft 305b drives the two lifting adjusting gears 305c to rotate synchronously, thereby driving the two lower shaft eccentric gears 305d to rotate synchronously. The rotation of the lower shaft eccentric gear 305d causes the shaft connected thereto to be offset in position, thereby achieving gap adjustment between related components.

[0068] In use, before the material is processed, the second worm gear box 305a is started, the second worm gear box 305a drives the line wheel gap adjusting shaft 305b to rotate, thereby driving the two lifting adjusting gears 305c to rotate synchronously. The rotation of the lifting adjusting gear 305c drives the lower shaft eccentric gear 305d connected thereto to rotate. Since the lower shaft eccentric gear 305d is rotatably sleeved on the outer surface of the shaft whose gap needs to be adjusted, the rotation of the lower shaft eccentric gear 305d drives the corresponding shaft, such as the first pressure line roller lower shaft 201f, to lift, thereby changing the gap between these shafts and the corresponding components, so that the device can process materials of different thicknesses. Then the material can be put into the device for processing.

[0069] In summary, the five sets of gap adjusting assemblies 305 correspond to different working positions, and can adjust the gap during the stages of feeding, pressure line, slotting and conveying out of material according to the thickness of the material to be processed, so as to ensure that materials of different thicknesses can be smoothly conveyed, accurately pressure lined and slotted;

[0070] The gap adjusting assembly 305 can fine tune the height of the first line pressing roller lower shaft 201f, the second line pressing roller lower shaft 203e and other components, change the gap with the corresponding components, and solve the problem that the device cannot press lines and groove on materials with different thicknesses, through the cooperation of the line wheel gap adjusting shaft 305b, the lifting adjusting gear 305c and the lower shaft eccentric gear 305d.

[0071] Importantly, it should be noted that the constructions and arrangements of the present application shown in the various exemplary embodiments are illustrative only. Although only a few embodiments have been described in detail in this disclosure, those skilled in the art who review this disclosure will readily appreciate that many modifications can be made to the embodiments without departing from the novel teachings and the advantages that are described in this application (e.g., variations in sizes, dimensions, structures, shapes and proportions of the various elements, values of parameters, mounting arrangements, use of materials, colors, orientations, etc.). For example, elements shown as integrally formed can be constructed of multiple parts or elements, the position of elements can be reversed or otherwise varied, and the nature or number of elements or positions can be altered or varied. Accordingly, all such modifications are intended to be included within the scope of the present application. The order or sequence of any process or method steps can be varied or re-sequenced without departing from the generality of the application. In the claims, any means-plus-function clause is intended to cover the structures described herein as performing the recited function and not only structural equivalents but also equivalent structures. Other substitutions, modifications, changes, and omissions can be made in the design, operating conditions, and arrangement of the exemplary embodiments without departing from the scope of the present application. Accordingly, the present application is not limited to the particular embodiments described and illustrated herein, but extends to equivalents of which the foregoing describes are intended to cover.

[0072] Furthermore, in an effort to provide a concise description of exemplary embodiments, all features of an actual implementation can not be described (i.e., those unrelated to the presently contemplated best mode of carrying out the application, or those unrelated to enabling the claimed application).

[0073] It should be noted that the above-mentioned embodiments are only used to illustrate the technical solutions of the present application but not limit the present application, and although the present application is described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present application can be modified or equivalent replaced without departing from the spirit and scope of the present application, and all should be included in the scope of the claims of the present application.

Claims

1. Direct output digital slotting machine, characterized by: include, A support mechanism (100) comprises a device housing (101), an operating chamber (102) provided in the middle of the device housing (101), a driving chamber (103) provided on one side of the operating chamber (102), a transmission chamber (104) provided on the other side of the operating chamber (102), a control panel (105) provided on one side of the device housing (101), and a moving track (106) symmetrically provided at the bottom of the device housing (101); A wire pressing mechanism (200) comprises a feed assembly (201) arranged on the inner wall of the device housing (101), a wire pressing assembly (202) arranged on one side of the feed assembly (201), and a conveying assembly (203) arranged on one side of the wire pressing assembly (202); and, The slotting mechanism (300) comprises an upper slotting assembly (301) arranged on the inner wall of the working chamber (102), a distance adjustment assembly (302) arranged on the top of the upper slotting assembly (301), a lower slotting assembly (303) arranged on the bottom of the upper slotting assembly (301), a discharge assembly (304) arranged on one side of the lower slotting assembly (303), and a plurality of gap adjustment assemblies (305) arranged on the inner wall of the device housing (101).

2. The direct-output digital slotting machine according to claim 1, characterized in that: The feeding assembly (201) comprises a first servo motor (201a) mounted on the inner wall of the driving chamber (103), a first belt synchronous component (201b) arranged at the output end of the first servo motor (201a), a front paper feeding upper glue roller (201c) connected to the output end of the first belt synchronous component (201b), a first paper feeding upper shaft gear (201d) arranged at the end of the front paper feeding upper glue roller (201c), a paper feeding lower shaft gear (201e) arranged at the bottom of the first paper feeding upper shaft gear (201d), and a first crimping roller lower shaft (201f) arranged at the end surface of the paper feeding lower shaft gear (201e).

3. The direct-output digital slotting machine according to claim 2, characterized in that: The line pressing assembly (202) comprises a second servo motor (202a) arranged on one side of the first servo motor (201a), a second belt synchronous component (202b) arranged on the output end of the second servo motor (202a), a line pressing lower shaft (202c) connected to the output end of the second belt synchronous component (202b), a first line pressing bridge gear (202d) arranged on one side of the first paper feeding upper shaft gear (201d), a first lower shaft gear (202e) arranged on one side of the first line pressing bridge gear (202d), and a line pressing rubber roller upper shaft (202f) arranged on the end surface of the first lower shaft gear (202e); The outer surface of the wire pressing lower shaft (202c) is provided with four wire pressing bottom grooves in a circumferential array.

4. The direct-output digital slotting machine according to claim 3, characterized in that: The conveying assembly (203) comprises a second crimping bridge gear (203a) arranged on one side of the first lower shaft gear (202e), a second paper feeding upper shaft gear (203b) arranged on one side of the second crimping bridge gear (203a), a first slotted upper rubber roller (203c) arranged on the end surface of the second paper feeding upper shaft gear (203b), a second lower shaft gear (203d) arranged at the bottom of the second paper feeding upper shaft gear (203b), and a second crimping flower roller lower shaft (203e) arranged on the end surface of the second lower shaft gear (203d).

5. The direct-output digital slotting machine according to claim 4, characterized in that: The upper slotting assembly (301) comprises a third servo motor (301a) arranged on one side of the second servo motor (202a), a third belt synchronous member (301b) arranged at the output end of the third servo motor (301a), an upper cutter shaft (301c) arranged at the output end of the third belt synchronous member (301b), a cutter die (301d) symmetrically arranged on the upper cutter shaft (301c), and four cutters (301e) arranged in a circumferential array on the outer surface of the cutter die (301d).

6. The direct-output digital slotting machine according to claim 5, characterized in that: The distance adjustment assembly (302) includes a first worm gear reduction box (302a) arranged on the inner wall of the driving chamber (103), a transverse screw (302b) arranged at the output end of the first worm gear reduction box (302a), a linkage plate (302c) arranged on the top of the cutting die (301d), and an upper pull rod (302d) arranged on the top of the two linkage plates (302c).

7. The direct-output digital slotting machine according to claim 6, characterized in that: The lower slotted assembly (303) comprises a first slotted bridge gear (303a) arranged on one side of the second paper feeding upper shaft gear (203b), a second slotted bridge gear (303b) arranged on one side of the first slotted bridge gear (303a), a rubber roller gear (303c) arranged at the bottom of the second slotted bridge gear (303b), and a rubber roller cylinder (303d) arranged on the end surface of the rubber roller gear (303c).

8. The direct-output digital slotting machine according to claim 7, characterized in that: The discharging assembly (304) comprises a third slotted bridge gear (304a) arranged on one side of the second slotted bridge gear (303b), a third paper feeding upper shaft gear (304b) arranged on one side of the third slotted bridge gear (304a), a second slotted upper rubber roller (304c) arranged on the end surface of the third paper feeding upper shaft gear (304b), a third lower shaft gear (304d) arranged at the bottom of the third paper feeding upper shaft gear (304b), and a third crimping roller lower shaft (304e) arranged on the end surface of the third lower shaft gear (304d).

9. The direct-output digital slotting machine according to claim 8, characterized in that: There are five groups of gap adjustment components (305), which are respectively arranged at the bottom of the first crimping roller lower shaft (201f), the second crimping roller lower shaft (203e), the rubber roller cylinder (303d) and the third crimping roller lower shaft (304e), and the top of the crimping rubber roller upper shaft (202f).

10. The direct-output digital slotting machine according to claim 9, characterized in that: The gap adjustment component (305) comprises a second worm gearbox (305a), a reel gap adjustment shaft (305b) arranged at the output end of the second worm gearbox (305a), two lifting adjustment gears (305c) fixedly sleeved on the reel gap adjustment shaft (305b), and a lower shaft eccentric gear (305d) arranged on one side of the lifting adjustment gear (305c).

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