Double-table reciprocating type jet printing machine

Abstract

The utility model relates to a double-platform reciprocating type jet printing machine, which comprises a base (100), a jet printing system (200) and a platform system (300), the platform system (300) is movably arranged on the base (100), the jet printing system (200) is arranged above the platform system (300), the platform system (300) comprises a first platform (400) and a second platform (500), and the first platform (400) and the second platform (500) are arranged on the base (100). The first platform (400) and the second platform (500) are both movably arranged on the base (100), the first platform (400) and the second platform (500) are parallel to each other, the base (100) comprises a first platform track (110) and a second platform track (120), the first platform track (110) and the second platform track (120) are arranged on the base (100) in parallel, and the first platform track (110) and the second platform track (120) are parallel to each other. The first platform (400) is arranged on the first platform track (110) in a sliding mode, and the second platform (500) is arranged on the second platform track (120) in a sliding mode.

Description

TECHNICAL FIELD

[0001] The utility model relates to a kind of spray printing machines, especially a kind of double-station reciprocating spray printing machine. BACKGROUND

[0002] It is known that the spray printing machine is a kind of equipment widely used in manufacturing industry, electronic industry and packaging industry, and its main function is to spray the information such as text, pattern, bar code and two-dimensional code on the product surface through the nozzle. The spray printing machine is usually used in food packaging, electronic component identification, industrial product marking and other fields, and is an indispensable identification equipment on modern production line. However, with the increasing requirements of market on product quality and production efficiency, the traditional spray printing machine has many shortcomings in actual use, which cannot fully meet the current demand of efficient production.

[0003] The traditional spray printing machine is mainly composed of a nozzle, a work platform and a control system. The nozzle is used to spray ink onto the surface of the product to be processed, and the work platform is responsible for carrying and moving the workpiece to accurately reach the spray printing position. However, this traditional structure design has many shortcomings, which are as follows.

[0004] Firstly, the traditional spray printing machine usually only has a single work platform. During the spraying process, the cooperation between the nozzle and the work platform is limited, which cannot meet the demand of efficient production. The design of single platform means that the operations such as spraying, loading and unloading workpieces can only be completed on the same platform in sequence, which causes obvious waiting time. For mass production, this mode seriously affects the production efficiency and increases the production cycle.

[0005] Secondly, the movement range of the nozzle of the traditional spray printing machine is limited, and it can only move along a single axis in most cases. This design is not sufficient when facing large-scale printing or complex patterns. In order to achieve complete printing, the equipment needs to be repositioned multiple times, which not only increases the working burden of the equipment, but also may cause misplacement and blurring of patterns or text, reducing the precision and quality of product identification.

[0006] Finally, the traditional spray printing machine lacks sufficient consideration of production flexibility and efficiency in its structural design. Due to the single work platform, the equipment needs to spend a lot of time adjusting when switching between different sizes or shapes of workpieces, further increasing downtime. At the same time, this single-platform design makes the utilization rate of the spray printing machine low, especially when dealing with small batches or multiple varieties of orders, the cost-effectiveness is poor, which is not conducive to the improvement of enterprise competitiveness.

[0007] In summary, the shortcomings of the traditional spray printing machine mainly lie in low printing efficiency, limited movement range and insufficient equipment flexibility. SUMMARY

[0008] The utility model adopts the technical scheme: a double table reciprocating type jet printing machine, including base (100), jet printing system (200) and platform system (300), wherein, the platform system (300) is movably arranged on the base (100), the jet printing system (200) is arranged above the platform system (300).

[0009] The platform system (300) includes first platform (400) and second platform (500), wherein, the first platform (400) and the second platform (500) are movably arranged on the base (100), the first platform (400) and the second platform (500) are parallel to each other.

[0010] When implementing, the base (100) includes first platform track (110) and second platform track (120), wherein, the first platform track (110) and the second platform track (120) are arranged on the base (100) in parallel, the first platform (400) is slidably arranged on the first platform track (110), and the second platform (500) is slidably arranged on the second platform track (120).

[0011] The utility model has the advantages that the utility model provides a double table reciprocating type jet printing machine, which realizes the separation of jet printing and workpiece loading and unloading by adopting a double table structure design.

[0012] The utility model provides a double table reciprocating type jet printing machine, and the movement of the nozzle adopts a multi-axis linkage design and can be flexibly moved in multiple directions.

[0013] The utility model provides a double table reciprocating type jet printing machine, and the overall structure design pays more attention to flexibility and adaptability. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of this utility model.

[0015] Figure 2 This is a schematic diagram of the platform system of this utility model.

[0016] Figure 3 This is a side view of the base and printing frame of this utility model.

[0017] Figure 4 This is a schematic diagram of the structure of the base and printing frame of this utility model.

[0018] Figure 5 This is a top view of the structure of this utility model.

[0019] Figure 6 This is a schematic diagram of the back structure of the first platform of this utility model.

[0020] Figure 7 This is a schematic diagram of the back structure of the second platform of this utility model.

[0021] Figure 8 This is a structural schematic diagram of the present invention from another angle.

[0022] Figure 9 This is a schematic diagram showing the connection of the inkjet printer, inkjet printer assembly, and alignment camera assembly of this utility model.

[0023] Figure 10 This is a schematic diagram of the installation structure of the inkjet printing track and inkjet printing assembly of this utility model.

[0024] Figure 11 This is a schematic diagram of the connection structure between the printing component and the driving part of this utility model.

[0025] Figure 12 This is a schematic diagram showing the connection between the alignment camera track and the alignment camera assembly of this utility model.

[0026] Figure 13 This is a schematic diagram of the alignment camera track and the installation structure of the alignment camera assembly according to this utility model. Detailed Implementation

[0027] like Figures 1 to 13 As shown, a dual-stage reciprocating inkjet printer includes a base (100), an inkjet system (200), and a platform system (300), wherein the platform system (300) is movably mounted on the base (100), and the inkjet system (200) is mounted above the platform system (300).

[0028] The platform system (300) comprises a first platform (400) and a second platform (500), wherein the first platform (400) and the second platform (500) are movably arranged on the base (100), and the first platform (400) and the second platform (500) are parallel to each other.

[0029] In specific implementation, the base (100) comprises a first platform track (110) and a second platform track (120), wherein the first platform track (110) and the second platform track (120) are arranged in parallel on the base (100), the first platform (400) is slidingly arranged on the first platform track (110), and the second platform (500) is slidingly arranged on the second platform track (120).

[0030] As shown in Figure 2 , the bottom of the first platform (400) is provided with a first transverse moving mechanism (410), wherein the first transverse moving mechanism (410) is movably arranged on the first platform track (110) of the base (100).

[0031] The first platform (400) can be moved along the first platform track (110) by the first transverse moving mechanism (410).

[0032] The bottom of the second platform (500) is provided with a second transverse moving mechanism (510), wherein the second transverse moving mechanism (510) is movably arranged on the second platform track (120) of the base (100).

[0033] The second platform (500) can be moved along the second platform track (120) by the second transverse moving mechanism (510).

[0034] As shown in Figures 3 to 4 , the base (100) comprises a seat (130) and a chassis (140), wherein the seat (130) is erected on the chassis (140), and the first platform track (110) and the second platform track (120) are arranged in parallel on the seat (130).

[0035] As shown in Figures 5 to 8 , the first platform track (110) comprises a first driving track (111) and a plurality of first positioning sliding tracks (112), wherein the plurality of first positioning sliding tracks (112) are arranged in parallel on both sides of the first driving track (111).

[0036] The first transverse moving mechanism (410) comprises a first driving block (411) and a plurality of first positioning sliding blocks (412), wherein the plurality of first positioning sliding blocks (412) are arranged on both sides of the first driving block (411).

[0037] The first driving block (411) is movably arranged on the first driving rail (111), and the first positioning sliders (412) are in one-to-one correspondence with the first positioning rails (112), and the first positioning sliders (412) are movably arranged on the corresponding first positioning rails (112).

[0038] The second platform rail (120) comprises a second driving rail (121) and a plurality of second positioning rails (122), wherein the second positioning rails (122) are arranged in parallel on both sides of the second driving rail (121).

[0039] The second transverse moving mechanism (510) comprises a second driving block (511) and a plurality of second positioning sliders (512), wherein the second positioning sliders (512) are arranged on both sides of the second driving block (511).

[0040] The second driving block (511) is movably arranged on the second driving rail (121), and the second positioning sliders (512) are in one-to-one correspondence with the second positioning rails (122), and the second positioning sliders (512) are movably arranged on the corresponding second positioning rails (122).

[0041] As shown in Figures 9 to 11 The printing system (200) comprises a cross beam (210) and two upright columns (220), wherein the two upright columns (220) are arranged on the left and right ends of the cross beam (210), the upright columns (220) are fixedly arranged on the two side edges of the base (130), and the first platform rail (110) and the second platform rail (120) are located between the two upright columns (220).

[0042] The printing system (200) further comprises a printing assembly (230) and a registration camera assembly (240), and the printing assembly (230) and the registration camera assembly (240) are respectively arranged on the front and rear sides of the cross beam (210).

[0043] In specific implementation, the cross beam (210) comprises a printing member rail (250), wherein the printing member rail (250) is perpendicular to the first platform rail (110) and the second platform rail (120), and the printing assembly (230) is movably arranged on the printing member rail (250).

[0044] The printing assembly (230) comprises a driving part, wherein the driving part comprises a longitudinal moving mechanism (260) and a lifting mechanism (270), and the longitudinal moving mechanism (260) and the lifting mechanism (270) are arranged on the front and rear sides of the driving part, respectively.

[0045] The longitudinal moving mechanism (260) is movably arranged on the printing element track (250), and the printing assembly (230) is movably arranged on the lifting mechanism (270).

[0046] The longitudinal moving mechanism (260) comprises a plurality of printing element sliders (261) and a driving module (262), wherein the plurality of printing element sliders (261) are arranged on both sides of the driving module (262).

[0047] The printing element track (250) comprises a plurality of printing element sliding rails (251) and a driving part sliding cavity (252), wherein the plurality of printing element sliding rails (251) are arranged on both sides of the driving part sliding cavity (252), respectively.

[0048] The plurality of printing element sliders (261) correspond to the plurality of printing element sliding rails (251) one by one, the printing element sliders (261) are movably arranged on the corresponding printing element sliding rails (251), and the driving module (262) is movably arranged in the driving part sliding cavity (252).

[0049] The lifting mechanism (270) comprises a plurality of vertical sliding rails (271) and a lifting part (272), wherein the lifting part (272) is located at the top of the plurality of vertical sliding rails (271), and the end of the lifting part (272) is provided with a sliding rod (273) extending, and the sliding rod (273) is located between the plurality of vertical sliding rails (271).

[0050] The printing assembly (230) comprises a functional plate (231) and a printing element (232), wherein the functional plate (231) has a lifting part connecting surface (233) and a printing function surface (234), the lifting part connecting surface (233) and the printing function surface (234) are located on the front and back of the functional plate (231), respectively, and the printing element (232) is connected to the printing function surface (234) through a fixing member.

[0051] The lifting part connecting surface (233) is provided with a plurality of vertical sliding blocks (235), wherein the plurality of vertical sliding blocks (235) correspond to the plurality of vertical sliding rails (271) one by one, and the vertical sliding blocks (235) are movably arranged on the corresponding vertical sliding rails (271).

[0052] The printing function surface (234) is provided with a sliding rod interface (236), and the sliding rod (273) of the lifting part (272) penetrates the sliding rod interface (236).

[0053] As Figures 12 to 13As shown, the other side of the crossbeam (210) is also provided with a pair of alignment camera tracks (280), wherein the pair of alignment camera tracks (280) are parallel to the jet printing element track (250), and the pair of alignment camera assemblies (240) are movably arranged on the pair of alignment camera tracks (280).

[0054] The pair of alignment camera tracks (280) comprises a plurality of camera sliding rails (281) and a camera driving part sliding groove (282), wherein the plurality of camera sliding rails (281) are arranged on both sides of the camera driving part sliding groove (282) respectively.

[0055] The pair of alignment camera assemblies (240) comprises a camera panel (241) and a pair of alignment cameras (242), wherein the camera panel (241) has a camera track connecting surface (243) and a camera connecting surface (244).

[0056] 4), wherein the camera track connecting surface (243) and the camera connecting surface (244) are respectively located on the front and rear sides of the camera panel (241), and the pair of alignment cameras (242) are connected to the camera connecting surface (244).

[0057] The camera track connecting surface (243) is provided with a plurality of camera track sliding blocks (245) and a camera driving module (246), wherein the plurality of camera track sliding blocks (245) are dispersedly arranged on both sides of the camera driving module (246).

[0058] The plurality of camera track sliding blocks (245) correspond to the plurality of camera sliding rails (281) one by one, the camera track sliding blocks (245) are movably arranged on the corresponding camera sliding rails (281), and the camera driving module (246) is movably arranged in the camera driving part sliding groove (282).

Claims

1. A dual stage reciprocating jet printer comprising a base (100), a jet printing system (200) and a stage system (300), wherein, The platform system (300) is movably arranged on the base (100), and the jet printing system (200) is arranged above the platform system (300), The platform system (300) comprises a first platform (400) and a second platform (500), wherein the first platform (400) and the second platform (500) are movably arranged on the base (100), and the first platform (400) and the second platform (500) are parallel to each other, The base (100) comprises a first platform track (110) and a second platform track (120), wherein the first platform track (110) and the second platform track (120) are arranged on the base (100) in parallel, the first platform (400) is slidingly arranged on the first platform track (110), and the second platform (500) is slidingly arranged on the second platform track (120).

2. A dual stage shuttle ink jet printer as claimed in claim 1 wherein: The bottom of the first platform (400) is provided with a first transverse moving mechanism (410), wherein the first transverse moving mechanism (410) is movably arranged on the first platform track (110) of the base (100), The bottom of the second platform (500) is provided with a second transverse moving mechanism (510), wherein the second transverse moving mechanism (510) is movably arranged on the second platform track (120) of the base (100).

3. A dual stage shuttle ink jet printer as claimed in claim 2 wherein: The base (100) comprises a seat (130) and a chassis (140), wherein the seat (130) is erected on the chassis (140), and the first platform track (110) and the second platform track (120) are arranged on the seat (130) in parallel.

4. A dual stage shuttle ink jet printer as claimed in claim 3 wherein: The first platform track (110) comprises a first driving rail (111) and a plurality of first positioning sliding rails (112), wherein the plurality of first positioning sliding rails (112) are arranged on both sides of the first driving rail (111) in parallel, The first transverse moving mechanism (410) comprises a first driving block (411) and a plurality of first positioning sliding blocks (412), wherein the plurality of first positioning sliding blocks (412) are arranged on both sides of the first driving block (411) in dispersion, The first driving block (411) is movably arranged on the first driving rail (111), the plurality of first positioning sliding blocks (412) correspond to the first positioning sliding rails (112) one by one, and the plurality of first positioning sliding blocks (412) are movably arranged on the corresponding first positioning sliding rails (112), The second platform track (120) comprises a second driving rail (121) and a plurality of second positioning sliding rails (122), wherein the plurality of second positioning sliding rails (122) are arranged on both sides of the second driving rail (121) in parallel, The second transverse moving mechanism (510) comprises a second driving block (511) and a plurality of second positioning sliding blocks (512), wherein the plurality of second positioning sliding blocks (512) are arranged on both sides of the second driving block (511) in dispersion, The second driving block (511) is movably arranged on the second driving rail (121), and the second positioning sliders (512) are in one-to-one correspondence with the second positioning slide rails (122), and the second positioning sliders (512) are movably arranged on the corresponding second positioning slide rails (122).

5. A dual stage shuttle ink jet printer as claimed in claim 4 wherein: The inkjet system (200) comprises a cross beam (210) and two columns (220), wherein the two columns (220) are arranged at the left and right ends of the cross beam (210), the columns (220) are fixedly arranged on the two side edges of the seat (130), the first platform rail (110) and the second platform rail (120) are located between the two columns (220), The inkjet system (200) further comprises an inkjet assembly (230) and a registration camera assembly (240), and the inkjet assembly (230) and the registration camera assembly (240) are respectively arranged on the front and rear sides of the cross beam (210).

6. A dual stage shuttle ink jet printer as claimed in claim 5 wherein: The cross beam (210) comprises an inkjet member rail (250), wherein the inkjet member rail (250) is perpendicular to the first platform rail (110) and the second platform rail (120), and the inkjet assembly (230) is movably arranged on the inkjet member rail (250), The inkjet assembly (230) comprises a driving part, wherein the driving part comprises a longitudinal movement mechanism (260) and a lifting mechanism (270), wherein the longitudinal movement mechanism (260) and the lifting mechanism (270) are respectively arranged on the front and rear sides of the driving part, The longitudinal movement mechanism (260) is movably arranged on the inkjet member rail (250), and the inkjet assembly (230) is movably arranged on the lifting mechanism (270).

7. A dual stage shuttle ink jet printer as claimed in claim 6 wherein: The longitudinal movement mechanism (260) comprises a plurality of inkjet member sliders (261) and a driving module (262), wherein the inkjet member sliders (261) are arranged on both sides of the driving module (262), The inkjet member rail (250) comprises a plurality of inkjet member slide rails (251) and a driving part slide cavity (252), wherein the inkjet member slide rails (251) are arranged on both sides of the driving part slide cavity (252), The inkjet member sliders (261) are in one-to-one correspondence with the inkjet member slide rails (251), and the inkjet member sliders (261) are movably arranged on the corresponding inkjet member slide rails (251), and the driving module (262) is movably arranged in the driving part slide cavity (252), The lifting mechanism (270) comprises a plurality of vertical slide rails (271) and a lifting part (272), wherein the lifting part (272) is located at the top of the vertical slide rails (271), the end of the lifting part (272) extends to be provided with a slide rod (273), and the slide rod (273) is located between the vertical slide rails (271), The inkjet assembly (230) comprises a functional plate (231) and an inkjet (232), wherein the functional plate (231) has a lifting part connecting surface (233) and an inkjet functional surface (234), the lifting part connecting surface (233) and the inkjet functional surface (234) are respectively located on the front and back sides of the functional plate (231), the inkjet (232) is connected to the inkjet functional surface (234) through a fixing part, A plurality of vertical sliding blocks (235) are arranged on the lifting part connecting surface (233), wherein the plurality of vertical sliding blocks (235) correspond to the vertical sliding rails (271) one-to-one, and the vertical sliding blocks (235) are movably arranged on the corresponding vertical sliding rails (271), The inkjet functional surface (234) is provided with a sliding rod interface (236), and the sliding rod (273) of the lifting part (272) is arranged in the sliding rod interface (236).

8. A dual stage shuttle ink jet printer as claimed in claim 7 wherein: The other side of the cross beam (210) is also provided with an alignment camera track (280), wherein the alignment camera track (280) is parallel to the inkjet track (250), and the alignment camera assembly (240) is movably arranged on the alignment camera track (280), The alignment camera track (280) comprises a plurality of camera sliding rails (281) and a camera driving part sliding groove (282), wherein the plurality of camera sliding rails (281) are respectively arranged on both sides of the camera driving part sliding groove (282), The alignment camera assembly (240) comprises a camera panel (241) and an alignment camera (242), wherein the camera panel (241) has a camera track connecting surface (243) and a camera connecting surface (244), the camera track connecting surface (243) and the camera connecting surface (244) are respectively located on the front and back sides of the camera panel (241), and the alignment camera (242) is connected to the camera connecting surface (244), The camera track connecting surface (243) is provided with a plurality of camera track sliding blocks (245) and a camera driving module (246), wherein the plurality of camera track sliding blocks (245) are dispersedly arranged on both sides of the camera driving module (246), The plurality of camera track sliding blocks (245) correspond to the camera sliding rails (281) one-to-one, and the camera track sliding blocks (245) are movably arranged on the corresponding camera sliding rails (281), and the camera driving module (246) is movably arranged in the camera driving part sliding groove (282).

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