Digital printing indentation cutting intelligent scheduling and ordering system

Abstract

The utility model discloses a digital printing indentation cutting intelligent scheduling order system, including digital printing machine, digital indentation cutting machine, its characterized in that: digital indentation cutting machine is equipped with several side by side, and the paper feed direction of digital indentation cutting machine is perpendicular with the paper outlet direction of digital printing machine, and the paper outlet of digital printing machine is equipped with the paperboard transmission turning scheduling machine between the paper inlet of digital indentation cutting machine. The utility model discloses through intelligent turning, realizes the efficient parallel of multiple digital indentation cutting machines.

Description

Technical Field

[0001] This utility model relates to an improvement invention in the field of digital printing, and in particular to an improvement invention of an intelligent scheduling and ordering system for digital printing creasing and cutting. Background Technology

[0002] Traditional printing and cutting systems have the following limitations: traditional production lines suffer from long cycle times and slow processing speeds, making them particularly unsuitable for small to medium batch orders (such as proofing and reordering), resulting in low production efficiency. Manual scheduling and transfer processes lack automation, making it difficult to efficiently handle the collaborative work of multiple devices, increasing the risk of human intervention and errors. Therefore, the digital printing industry urgently needs a solution adapted to small to medium batch orders to shorten production cycles and improve flexibility (such as rapid response to reordering needs). Utility Model Content

[0003] The technical problem to be solved by this utility model is to overcome the shortcomings of the prior art and provide a digital printing, creasing, and cutting intelligent scheduling and ordering system.

[0004] To solve the above-mentioned technical problems, the present invention adopts the following technical solution: the intelligent scheduling and ordering system for digital printing, creasing and cutting includes a digital printing machine and a digital creasing and cutting machine, characterized in that: the digital creasing and cutting machine is provided with several side by side, and the paper feeding direction of the digital creasing and cutting machine is perpendicular to the paper output direction of the digital printing machine, and a paperboard conveying and steering scheduling machine is provided between the paper output port of the digital printing machine and the paper feeding port of the digital creasing and cutting machine.

[0005] The cardboard conveying and steering scheduling machine includes a frame and a conveyor roller group, a conveyor belt group, sensors, and an intelligent scheduling controller mounted on the frame. The conveyor roller group and the conveyor belt group are staggered. The conveyor belt group can move up and down through the conveyor roller group, and the conveyor belt group is equipped with a lifting mechanism. The conveying direction of the conveyor roller group is consistent with the paper output direction of the digital printing machine, and the conveying direction of the conveyor belt group is consistent with the paper feed direction of the digital creasing and cutting machine. The sensors are arranged on the conveying path of the conveyor roller group to sense the position of the cardboard. The sensors are connected to the intelligent scheduling controller, and the lifting mechanism is controlled by the intelligent scheduling controller.

[0006] The intelligent scheduling controller is responsible for dispatching work orders, issuing processing documents, assigning tasks according to the machine's working status, and controlling the cardboard conveyor to the dispatcher to convey cardboard to different digital creasing and cutting machines.

[0007] The lifting mechanism is a cylinder.

[0008] The digital printing machine is equipped with a paperboard flipping mechanism between the paper output port and the paperboard conveying and diverting scheduling machine, and the paperboard flipping mechanism is controlled by an intelligent scheduling controller.

[0009] The beneficial effect of this utility model is that the improved intelligent scheduling and order placement system for digital printing, creasing, and cutting allows for the selection and combination of printing presses, conveyor steering scheduling machines, and digital creasing and cutting machines according to business needs. It is used for small to medium quantity cardboard box printing and creasing processing, mainly suitable for small to medium batch orders, sampling, and replenishment orders. The process is fully automated, overcoming the problems of long cycles, slow speeds, and low efficiency for small-quantity orders in traditional production lines. Attached Figure Description

[0010] The specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings.

[0011] Figure 1 This is a schematic diagram of the structure of this utility model.

[0012] Figure 2 This is a structural diagram of the cardboard conveying and steering scheduling machine of this utility model.

[0013] Figure 3 A schematic diagram showing the flipping mechanism provided with this utility model. Detailed Implementation

[0014] The accompanying drawings illustrate the structure of this utility model, and further details will be described below with reference to the drawings. In this embodiment, see the attached drawings. Figure 1 This intelligent scheduling and order placement system for digital printing, creasing, and cutting includes a digital printing machine 1 and a digital creasing and cutting machine 2. Several digital creasing and cutting machines 2 are arranged side by side, and the paper feeding direction of the digital creasing and cutting machines 2 is perpendicular to the paper output direction of the digital printing machine 1. A paperboard conveying and steering scheduling machine 3 is provided between the paper output port of the digital printing machine 1 and the paper input port of the digital creasing and cutting machine 2, which reduces space occupation and achieves efficient parallel operation through intelligent steering. The fully automatic control eliminates human delays and optimizes the response speed of small batch orders.

[0015] For a further improved implementation method, see Appendix Figure 2 The cardboard conveying and steering scheduling machine 3 includes a frame 7 and a conveyor roller group 4, a conveyor belt group 5, a sensor 6, and an intelligent scheduling controller mounted on the frame 7. The conveyor roller group 4 and the conveyor belt group 5 are staggered. The conveyor belt group 5 can be raised and lowered through the conveyor roller group 4, and the conveyor belt group 5 is equipped with a lifting mechanism 8. Preferably, the lifting mechanism 8 is a cylinder, which is distributed in an array and is connected to the mounting frame of the conveyor belt group 5. The conveying direction of the conveyor roller group 4 is consistent with the paper output direction of the digital printing machine 1, and the conveying direction of the conveyor belt group 5 is consistent with the paper feed direction of the digital creasing and cutting machine 2. The sensor 6 is arranged on the conveying path of the conveyor roller group 4 to sense the position of the cardboard. The sensor 6 is connected to the intelligent scheduling controller. The lifting mechanism 8 is controlled by the intelligent scheduling controller.

[0016] As a further improved implementation, the intelligent scheduling controller is responsible for dispatching work orders, issuing processing documents, and assigning tasks according to the machine's working status, and controls the cardboard transfer to be directed by the dispatcher 3 to transfer cardboard to different digital creasing and cutting machines 2.

[0017] For a further improved implementation method, see Appendix Figure 3 A paperboard flipping mechanism 9 is provided between the paper output port 1 of the digital printing machine and the paperboard conveying and redirecting scheduling machine 3. The paperboard flipping mechanism 9 is controlled by an intelligent scheduling controller, which flips the paperboard 180 degrees according to instructions to adapt to creasing and cutting. The paperboard flipping mechanism includes a rotating frame that can be flipped. The rotating frame has an upper pressure frame and a lower pressure frame that are correspondingly positioned. The upper pressure frame and the lower pressure frame can be moved relative to each other, and both the upper pressure frame and the lower pressure frame are equipped with conveying structures. During operation, after the paperboard is printed by the digital printing machine, it is fed into the upper pressure frame and the lower pressure frame. Then, the paperboard is pressed between the conveying structures of the upper pressure frame and the lower pressure frame. The rotating frame flips the paperboard, causing it to turn over. The flipped paperboard is then sent into the paperboard conveying and redirecting scheduling machine.

[0018] The working principle of this utility model is as follows: Printing stage: After the digital printing machine 1 completes the printing on the cardboard, the cardboard is sent out from the paper outlet; Turning stage: The cardboard turning mechanism 9 can choose to turn the cardboard 180 degrees or not according to instructions, and then send the cardboard out; Transmission and turning stage: The cardboard enters the cardboard transmission and turning scheduling machine 3: First, it is conveyed by the conveyor roller group 4 along the paper output direction of the printing machine (e.g., horizontal direction); Sensor 6 detects the position of the cardboard and sends a signal to the intelligent scheduling controller. According to the task requirements, the intelligent scheduling controller controls the lifting mechanism 8 (e.g., cylinder) to raise the conveyor belt group 5, so that it passes through the conveyor roller group 4, turning the cardboard to the paper feeding direction of the digital creasing and cutting machine 2 (e.g., vertical direction); Cutting stage: The turned cardboard is sent to the digital creasing and cutting machine 2 through the conveyor belt group 5 for creasing and cutting processing. The scheduling control cycle involves the intelligent scheduling controller monitoring the machine's working status in real time, turning the cardboard as needed, and distributing the cardboard to different digital creasing and cutting machines 2.

[0019] In summary, the above are merely preferred embodiments of this utility model and are not intended to limit the scope of protection of this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the scope of protection of this utility model.

Claims

1. A digital printing, creasing, and cutting intelligent scheduling and order-setting system, comprising a digital printing machine and a digital creasing and cutting machine, characterized in that: The digital creasing and cutting machine is provided with several units arranged side by side, and the paper feeding direction of the digital creasing and cutting machine is perpendicular to the paper output direction of the digital printing machine. A paperboard conveying and steering mechanism is provided between the paper output port of the digital printing machine and the paper feeding port of the digital creasing and cutting machine.

2. The intelligent scheduling and order placement system for digital printing, creasing, and cutting as described in claim 1, characterized in that: The cardboard conveying and steering scheduling machine includes a frame and a conveyor roller group, a conveyor belt group, sensors, and an intelligent scheduling controller mounted on the frame. The conveyor roller group and the conveyor belt group are staggered. The conveyor belt group can move up and down through the conveyor roller group, and the conveyor belt group is equipped with a lifting mechanism. The conveying direction of the conveyor roller group is consistent with the paper output direction of the digital printing machine, and the conveying direction of the conveyor belt group is consistent with the paper feed direction of the digital creasing and cutting machine. The sensors are arranged on the conveying path of the conveyor roller group to sense the position of the cardboard. The sensors are connected to the intelligent scheduling controller, and the lifting mechanism is controlled by the intelligent scheduling controller.

3. The intelligent scheduling and order placement system for digital printing, creasing, and cutting as described in claim 2, characterized in that: The intelligent scheduling controller is responsible for dispatching work orders, issuing processing documents, assigning tasks according to the machine's working status, and controlling the cardboard conveyor to direct the cardboard to different digital creasing and cutting machines.

4. The intelligent scheduling and order placement system for digital printing, creasing, and cutting as described in claim 2, characterized in that: The lifting mechanism is a cylinder.

5. The intelligent scheduling and order placement system for digital printing, creasing, and cutting as described in claim 1, characterized in that: The digital printing machine is equipped with a paperboard flipping mechanism between the paper output port and the paperboard conveying and diverting scheduling machine, and the paperboard flipping mechanism is controlled by an intelligent scheduling controller.

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