Control method and system for die-cutting apparatus

Abstract

The application discloses a kind of control method and system of die cutting equipment, and the matching coefficient is determined based on the working mode of die cutting equipment and the parameter set of workpiece;If the matching coefficient is lower than the preset matching coefficient, the dynamic optimization of the working mode of die cutting equipment is triggered, and the multiple working parameters of die cutting equipment are autonomously regulated and controlled until the matching coefficient is equal to or greater than the preset matching coefficient.Further, according to the offset of die cutting area in different dimensions, die cutting control system and the conveying speed of workpiece, the corresponding die cutting trajectory is regulated and controlled, and the corresponding die cutting coefficient is matched along the die cutting trajectory, which is compatible with the overall consideration of the offset of die cutting area in different dimensions, die cutting control system and the conveying speed of workpiece, realizes the multidimensional control of the offset of die cutting area in different dimensions, die cutting control system and the conveying speed of workpiece, and ensures the autonomous regulation and control of die cutting trajectory, so as to realize the autonomous control of die cutting equipment in the die cutting process of workpiece.

Description

Technical Field

[0001] This invention relates to the technical field of commercial die-cutting equipment, and more particularly to a control method and system for die-cutting equipment. Background Technology

[0002] With the development of technology, die-cutting equipment has been gradually applied to people's industrial life to perform corresponding die-cutting on workpieces. At this time, the workpiece to be die-cut enters the die-cutting equipment, and the die-cutting equipment performs a preliminary die-cutting on the workpiece as a test die-cutting stage. After the test die-cutting stage is completed, the die-cutting equipment performs dynamic die-cutting on the workpiece. In the existing technology, the die-cutting equipment performs die-cutting on the workpiece along a single-dimensional program, without controlling the offset of the die-cutting area of ​​the workpiece in different dimensions. It is impossible to realize the autonomous control of the die-cutting equipment during the die-cutting process, which affects the die-cutting accuracy of the die-cutting equipment on various workpieces. Summary of the Invention

[0003] The purpose of this invention is to overcome the shortcomings of the prior art. This invention provides a control method and system for a die-cutting equipment. It determines multiple working data based on the dynamic detection of the die-cutting equipment; determines the working mode of the die-cutting equipment based on the multiple working data; determines a matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece; if the matching coefficient is lower than a preset matching coefficient, it triggers dynamic optimization of the working mode of the die-cutting equipment and autonomously adjusts multiple working parameters of the die-cutting equipment until the matching coefficient is equal to or greater than the preset matching coefficient, thus ensuring the matching of the working mode of the die-cutting equipment with respect to the workpiece, and thereby ensuring the rationality of the working mode of the die-cutting equipment.

[0004] Furthermore, based on the die-cutting area of ​​the workpiece and the die-cutting equipment, the corresponding die-cutting station is determined. A die-cutting control system is constructed based on the die-cutting area, die-cutting station, and multiple working parameters. Abnormal parts are identified based on the die-cutting image of the workpiece. The offset of the die-cutting area in different dimensions is defined based on each abnormal part. The corresponding die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. The corresponding die-cutting coefficient is matched along the die-cutting trajectory. This system takes into account the overall consideration of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. It achieves multi-dimensional control of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, ensuring the autonomous control of the die-cutting trajectory. This enables the die-cutting equipment to autonomously control the die-cutting process of the workpiece, ensuring the die-cutting accuracy of the die-cutting equipment for various different workpieces.

[0005] This invention provides a control method for a die-cutting equipment, applicable to control scenarios of die-cutting equipment;

[0006] The control method for the die-cutting equipment includes:

[0007] Multiple working data are determined based on the dynamic detection of the die-cutting equipment;

[0008] The working mode of the die-cutting equipment is determined based on multiple working data.

[0009] The matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece;

[0010] If the matching coefficient is lower than the preset matching coefficient, the working mode of the die-cutting equipment will be dynamically optimized, and multiple working parameters of the die-cutting equipment will be adjusted autonomously until the matching coefficient is equal to or greater than the preset matching coefficient.

[0011] The corresponding die-cutting station is determined based on the die-cutting area of ​​the workpiece and the die-cutting equipment. A die-cutting control system is constructed based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters.

[0012] Based on the die-cut image of the workpiece, identify the abnormal parts, define the offset of the die-cut area in different dimensions based on each abnormal part, adjust the corresponding die-cut trajectory according to the offset of the die-cut area in different dimensions, the die-cut control system and the conveying speed of the workpiece, and match the corresponding die-cut coefficient along the die-cut trajectory.

[0013] Optionally, the determination of multiple working data based on the dynamic detection of the die-cutting equipment includes:

[0014] Collect the die-cutting equipment and the workpiece to be die-cut;

[0015] When the workpiece to be die-cut enters the die-cutting equipment, the die-cutting equipment performs preliminary die-cutting on the workpiece and presents corresponding die-cutting marks on the workpiece;

[0016] Dynamic detection of the die-cutting equipment is triggered based on the die-cutting marks and corresponding die-cutting times;

[0017] The data space of the die-cutting equipment is determined based on the dynamic detection of the die-cutting equipment.

[0018] Multiple working data are determined based on the traversal of the dynamic detection of the die-cutting equipment.

[0019] Optionally, determining the working mode of the die-cutting equipment based on multiple working data includes:

[0020] Freeze multiple work data points;

[0021] Multiple die-cutting data combinations are constructed based on multiple working data and corresponding die-cutting stages;

[0022] The corresponding die-cutting working characteristics are defined based on the identification of multiple die-cutting data combinations;

[0023] Associate multiple die-cutting features, die-cutting equipment models, and workpiece thickness;

[0024] The first mode parameter is defined based on multiple die-cutting working characteristics and the model of the die-cutting equipment; the second mode parameter is defined based on multiple die-cutting working characteristics and the thickness of the work.

[0025] The working mode of the die-cutting equipment is determined based on the second mode parameter, the first mode parameter, and the mode matching table.

[0026] Optionally, determining the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece includes:

[0027] Working modes of the fixed-frame die-cutting equipment;

[0028] Collect the workpiece and perform positioning detection on the workpiece;

[0029] Based on the positioning detection of the workpiece, multiple parameters of the workpiece are collected at different latitudes;

[0030] The parameter set of the workpiece is determined based on multiple parameters of the workpiece at different latitudes;

[0031] The working mode of the associated die-cutting equipment and the parameter set of the workpiece;

[0032] The matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece.

[0033] Optionally, if the matching coefficient is lower than a preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are autonomously adjusted until the matching coefficient is equal to or greater than the preset matching coefficient, including:

[0034] Set the matching coefficient and compare it with the preset matching coefficient;

[0035] If the matching coefficient is lower than the preset matching coefficient, dynamic optimization of the working mode of the die-cutting equipment will be triggered.

[0036] Based on the dynamic optimization of the working mode of the die-cutting equipment, multiple working parameters of the die-cutting equipment are autonomously adjusted.

[0037] The optimized matching coefficient is defined based on multiple working parameters after autonomous adjustment. At this time, the optimized matching coefficient is equal to or greater than the preset matching coefficient.

[0038] Optionally, the step of determining the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and constructing a die-cutting control system based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters, includes:

[0039] Multiple die-cutting positions of the workpiece are fixed;

[0040] The die-cutting area of ​​the workpiece is constructed based on the multiple die-cutting positions of the workpiece and the set of parameters of the workpiece.

[0041] Optionally, the step of determining the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and constructing a die-cutting control system based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters, further includes:

[0042] Associate the die-cutting area and die-cutting equipment of the workpiece, and determine the corresponding die-cutting station based on the die-cutting area and die-cutting equipment of the workpiece;

[0043] Fixed-position die-cutting station;

[0044] Associated with the die-cutting area, die-cutting station, and multiple working parameters of the workpiece;

[0045] The die-cutting area, die-cutting station, and multiple working parameters of the workpiece are dynamically trained until the corresponding die-cutting control system is built.

[0046] Optionally, the step of determining abnormal parts based on the die-cutting image of the workpiece, defining the offset of the die-cutting area in different dimensions based on each abnormal part, adjusting the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, and matching the corresponding die-cutting coefficient along the die-cutting trajectory includes:

[0047] Acquire die-cut images of the workpiece;

[0048] The abnormal parts are determined based on the die-cut image of the workpiece and the image recognition module;

[0049] The offset of the die-cutting region in different dimensions is defined based on each abnormal part.

[0050] Optionally, the step of determining abnormal parts based on the die-cutting image of the workpiece, defining the offset of the die-cutting area in different dimensions based on each abnormal part, adjusting the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, and matching the corresponding die-cutting coefficient along the die-cutting trajectory, further includes:

[0051] The offset of the die-cutting area in different dimensions, the die-cutting control system, and the workpiece conveying speed are all considered.

[0052] The die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece.

[0053] The die-cutting trajectory is divided into multiple die-cutting nodes, and the die-cutting coefficients are matched based on the multiple die-cutting nodes, die-cutting tilt, and die-cutting pressure. The die-cutting trajectory and the corresponding die-cutting coefficients are then associated.

[0054] In addition, embodiments of the present invention also provide a control system for a die-cutting device, the control system of the die-cutting device comprising:

[0055] The working data module is used to determine multiple working data based on the dynamic detection of the die-cutting equipment;

[0056] The working mode module is used to determine the working mode of the die-cutting equipment based on multiple working data.

[0057] The matching coefficient module is used to determine the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece;

[0058] The autonomous control module is used to trigger dynamic optimization of the working mode of the die-cutting equipment if the matching coefficient is lower than the preset matching coefficient, and to autonomously control multiple working parameters of the die-cutting equipment until the matching coefficient is equal to or greater than the preset matching coefficient.

[0059] The die-cutting control system module is used to determine the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and to construct the die-cutting control system based on the die-cutting area, die-cutting station and multiple working parameters of the workpiece.

[0060] The die-cutting trajectory module is used to determine abnormal parts based on the die-cutting image of the workpiece, define the offset of the die-cutting area in different dimensions based on each abnormal part, adjust the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system and the conveying speed of the workpiece, and match the corresponding die-cutting coefficient along the die-cutting trajectory.

[0061] In this embodiment of the invention, the method described herein determines multiple working data based on the dynamic detection of the die-cutting equipment; determines the working mode of the die-cutting equipment based on the multiple working data; determines a matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece; if the matching coefficient is lower than a preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are autonomously adjusted until the matching coefficient is equal to or greater than the preset matching coefficient, thereby ensuring the matching of the working mode of the die-cutting equipment with respect to the workpiece and thus ensuring the rationality of the working mode of the die-cutting equipment.

[0062] Furthermore, based on the die-cutting area of ​​the workpiece and the die-cutting equipment, the corresponding die-cutting station is determined. A die-cutting control system is constructed based on the die-cutting area, die-cutting station, and multiple working parameters. Abnormal parts are identified based on the die-cutting image of the workpiece. The offset of the die-cutting area in different dimensions is defined based on each abnormal part. The corresponding die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. The corresponding die-cutting coefficient is matched along the die-cutting trajectory. This system takes into account the overall consideration of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. It achieves multi-dimensional control of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, ensuring the autonomous control of the die-cutting trajectory. This enables the die-cutting equipment to autonomously control the die-cutting process of the workpiece, ensuring the die-cutting accuracy of the die-cutting equipment for various different workpieces. Attached Figure Description

[0063] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0064] Figure 1 This is a flowchart illustrating the control method of the die-cutting equipment in an embodiment of the present invention;

[0065] Figure 2 This is a flowchart illustrating step S11 of the control method for the die-cutting equipment in an embodiment of the present invention.

[0066] Figure 3 This is a flowchart illustrating step S12 of the control method for the die-cutting equipment in an embodiment of the present invention.

[0067] Figure 4 This is a flowchart illustrating step S13 of the control method for the die-cutting equipment in an embodiment of the present invention.

[0068] Figure 5 This is a flowchart illustrating step S14 of the control method for the die-cutting equipment in an embodiment of the present invention.

[0069] Figure 6 This is a flowchart illustrating step S15 of the control method for the die-cutting equipment in an embodiment of the present invention.

[0070] Figure 7 This is a flowchart illustrating step S16 of the control method for the die-cutting equipment in an embodiment of the present invention.

[0071] Figure 8This is a schematic diagram of the structural composition of the control system of the die-cutting equipment in an embodiment of the present invention;

[0072] Figure 9 This is a hardware diagram of an electronic device according to an exemplary embodiment. Detailed Implementation

[0073] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only one part of the embodiments of the present invention, and not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0074] Please see Figures 1 to 9 A control method for a die-cutting machine, applied to a control scenario of a die-cutting machine; the control method for the die-cutting machine includes:

[0075] Step S11: Determine multiple working data based on the dynamic detection of the die-cutting equipment;

[0076] Step S12: Determine the working mode of the die-cutting equipment based on multiple working data;

[0077] Step S13: Determine the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece;

[0078] Step S14: If the matching coefficient is lower than the preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are automatically adjusted until the matching coefficient is equal to or greater than the preset matching coefficient.

[0079] Step S15: Determine the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and construct a die-cutting control system based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters;

[0080] Step S16: Determine the abnormal parts based on the die-cutting image of the workpiece, define the offset of the die-cutting area in different dimensions based on each abnormal part, adjust the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system and the conveying speed of the workpiece, and match the corresponding die-cutting coefficient along the die-cutting trajectory.

[0081] In this embodiment of the invention, the method described herein determines multiple working data based on the dynamic detection of the die-cutting equipment; determines the working mode of the die-cutting equipment based on the multiple working data; determines a matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece; if the matching coefficient is lower than a preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are autonomously adjusted until the matching coefficient is equal to or greater than the preset matching coefficient, thereby ensuring the matching of the working mode of the die-cutting equipment with respect to the workpiece and thus ensuring the rationality of the working mode of the die-cutting equipment.

[0082] Furthermore, based on the die-cutting area of ​​the workpiece and the die-cutting equipment, the corresponding die-cutting station is determined. A die-cutting control system is constructed based on the die-cutting area, die-cutting station, and multiple working parameters. Abnormal parts are identified based on the die-cutting image of the workpiece. The offset of the die-cutting area in different dimensions is defined based on each abnormal part. The corresponding die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. The corresponding die-cutting coefficient is matched along the die-cutting trajectory. This system takes into account the overall consideration of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. It achieves multi-dimensional control of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, ensuring the autonomous control of the die-cutting trajectory. This enables the die-cutting equipment to autonomously control the die-cutting process of the workpiece, ensuring the die-cutting accuracy of the die-cutting equipment for various different workpieces.

[0083] refer to Figure 2 In step S11, multiple working data are determined based on the dynamic detection of the die-cutting equipment;

[0084] In the specific implementation of this invention, the specific steps can be as follows:

[0085] S111: Collect the die-cutting equipment and the workpiece to be die-cut;

[0086] S112: When the workpiece to be die-cut enters the die-cutting equipment, the die-cutting equipment performs preliminary die-cutting on the workpiece and presents corresponding die-cutting marks on the workpiece;

[0087] S113: Dynamic detection of the die-cutting equipment is triggered based on the die-cutting marks and the corresponding die-cutting time;

[0088] S114: Determine the data space of the die-cutting equipment based on the dynamic detection of the die-cutting equipment;

[0089] S115: Determine multiple working data based on the traversal of the dynamic detection of the die-cutting equipment.

[0090] In the embodiments of this application, a die-cutting device and a workpiece to be die-cut are collected. The die-cutting device performs die-cutting processing on the workpiece to facilitate die-cutting within the workpiece. At this time, when the workpiece to be die-cut enters the die-cutting device, the die-cutting device performs preliminary die-cutting on the workpiece, and corresponding die-cutting marks are presented on the workpiece, introducing die-cutting marks. These die-cutting marks serve as the initial die-cutting of the workpiece and also as the initial test die-cutting.

[0091] Furthermore, the die-cutting time is matched with the die-cutting marks to associate the die-cutting marks and the corresponding die-cutting time. This allows for the dynamic detection of the die-cutting equipment to be triggered based on the die-cutting marks and the corresponding die-cutting time, thus introducing dynamic detection of the die-cutting equipment and realizing dynamic control of the die-cutting equipment.

[0092] Therefore, the data space of the die-cutting equipment is determined based on the dynamic detection of the die-cutting equipment. This data space is introduced to facilitate traversal of the data space of the die-cutting equipment. Multiple working data are determined based on the traversal of the dynamic detection of the die-cutting equipment, and multiple working data are introduced for dynamic interaction.

[0093] refer to Figure 3 In step S12, the working mode of the die-cutting equipment is determined based on multiple working data.

[0094] In the specific implementation of this invention, the specific steps can be as follows:

[0095] S121: Freeze multiple work data;

[0096] S122: Construct multiple die-cutting data combinations based on multiple working data and corresponding die-cutting stages;

[0097] S123: Define corresponding die-cutting working features based on the identification of multiple die-cutting data combinations;

[0098] S124: Associates multiple die-cutting features, die-cutting equipment models, and workpiece thickness;

[0099] S125: Define the first mode parameter based on multiple die-cutting working characteristics and the model of the die-cutting equipment; define the second mode parameter based on multiple die-cutting working characteristics and the thickness of the work.

[0100] S126: Determine the working mode of the die-cutting equipment based on the second mode parameter, the first mode parameter, and the mode matching table.

[0101] In the embodiments of this application, multiple working data are fixed, multiple working data and corresponding die-cutting stages are associated, and multiple working data and corresponding die-cutting stages are matched to construct multiple die-cutting data combinations based on multiple working data and corresponding die-cutting stages. Multiple die-cutting data combinations are introduced to realize multiple interactions between multiple working data and corresponding die-cutting stages.

[0102] Therefore, multiple die-cutting data combinations are dynamically identified. At the same time, corresponding die-cutting working features are defined based on the identification of multiple die-cutting data combinations. Multiple die-cutting working features are introduced, thereby associating multiple die-cutting working features, die-cutting equipment models, and workpiece thickness, realizing multiple interactions among multiple die-cutting working features, die-cutting equipment models, and workpiece thickness.

[0103] Furthermore, a first mode parameter is defined based on multiple die-cutting work characteristics and the model of the die-cutting equipment, and a second mode parameter is defined based on multiple die-cutting work characteristics and the thickness of the work. The second mode parameter, the first mode parameter, and the mode matching table are introduced to achieve multiple matching of the second mode parameter, the first mode parameter, and the mode matching table. Thus, the working mode of the die-cutting equipment is determined based on the second mode parameter, the first mode parameter, and the mode matching table, ensuring the accuracy of the working mode of the die-cutting equipment.

[0104] refer to Figure 4 In step S13, in the clean space of this floor, the matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece;

[0105] In the specific implementation of this invention, the specific steps can be as follows:

[0106] S131: Working mode of the fixed-position die-cutting equipment;

[0107] S132: Collect the workpiece and perform positioning detection on the workpiece;

[0108] S133: Collect multiple parameters of the workpiece at different latitudes based on the workpiece's positioning detection;

[0109] S134: Determine the parameter set of the workpiece based on multiple parameters of the workpiece at different latitudes;

[0110] S135: The set of parameters for the associated die-cutting equipment and the workpiece;

[0111] S136: Determine the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece.

[0112] In the embodiments of this application, the working mode of the fixed-grid die-cutting equipment is controlled, and at the same time, the workpiece is collected and the workpiece is positioned and detected. Based on the positioning and detection of the workpiece, multiple parameters of the workpiece under different latitudes are collected, thus introducing multiple parameters of the workpiece under different latitudes.

[0113] Furthermore, the parameter set of the workpiece is determined based on multiple parameters of the workpiece under different latitudes; the working mode of the die-cutting equipment and the parameter set of the workpiece are associated; the matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece, and the matching coefficient is used to present the degree of matching between the working mode of the die-cutting equipment and the parameter set of the workpiece, thereby dynamically controlling the working mode of the die-cutting equipment and the parameter set of the workpiece.

[0114] refer to Figure 5 S14: If the matching coefficient is lower than the preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are adjusted autonomously until the matching coefficient is equal to or greater than the preset matching coefficient.

[0115] In the specific implementation of this invention, the specific steps can be as follows:

[0116] S141: Fix the matching coefficient, compare the matching coefficient with the preset matching coefficient;

[0117] S142: If the matching coefficient is lower than the preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered;

[0118] S143: Based on the dynamic optimization of the working mode of the die-cutting equipment, the multiple working parameters of the die-cutting equipment are autonomously adjusted;

[0119] S144: Define the optimized matching coefficient based on multiple working parameters after autonomous adjustment. At this time, the optimized matching coefficient is equal to or greater than the preset matching coefficient.

[0120] In the embodiments of this application, multiple working data are determined based on the dynamic detection of the die-cutting equipment; the working mode of the die-cutting equipment is determined based on the multiple working data; a matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece; if the matching coefficient is lower than the preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are autonomously adjusted until the matching coefficient is equal to or greater than the preset matching coefficient, thereby ensuring the matching of the working mode of the die-cutting equipment with respect to the workpiece and thus ensuring the rationality of the working mode of the die-cutting equipment.

[0121] At this point, the matching coefficient is fixed and compared with the preset matching coefficient, thus realizing the comparison between the matching coefficient and the preset matching coefficient.

[0122] Furthermore, if the matching coefficient is lower than the preset matching coefficient, dynamic optimization of the working mode of the die-cutting equipment is triggered. Dynamic optimization of the working mode of the die-cutting equipment is performed, thereby autonomously adjusting multiple working parameters of the die-cutting equipment based on the dynamic optimization of the working mode. Thus, the optimized matching coefficient is defined according to the multiple working parameters after autonomous adjustment. At this time, the optimized matching coefficient is equal to or greater than the preset matching coefficient, ensuring the matching of the working mode of the die-cutting equipment with respect to the workpiece, thereby ensuring the rationality of the working mode of the die-cutting equipment.

[0123] refer to Figure 6 S15: Determine the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and construct a die-cutting control system based on the die-cutting area of ​​the workpiece, the die-cutting station and multiple working parameters;

[0124] In the specific implementation of this invention, the specific steps can be as follows:

[0125] S151: Multiple die-cutting positions for fixing the workpiece;

[0126] S152: Construct the die-cutting area of ​​the workpiece based on multiple die-cutting positions and the workpiece's parameter set;

[0127] S153: Associate the die-cutting area of ​​the workpiece and the die-cutting equipment, and determine the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment;

[0128] S154: Fixed-position die-cutting station;

[0129] S155: Associated workpiece's die-cutting area, die-cutting station, and multiple working parameters;

[0130] S156: Dynamically train the die-cutting area, die-cutting station, and multiple working parameters of the workpiece until a corresponding die-cutting control system is built.

[0131] In the embodiments of this application, multiple die-cutting positions of the workpiece are fixed, and dynamic control is performed on the multiple die-cutting positions of the workpiece. The multiple die-cutting positions of the workpiece and the parameter set of the workpiece are associated, thereby constructing the die-cutting area of ​​the workpiece based on the multiple die-cutting positions of the workpiece and the parameter set of the workpiece. This achieves multi-dimensional control of the multiple die-cutting positions of the workpiece and the parameter set of the workpiece, ensuring the accuracy of the die-cutting area of ​​the workpiece.

[0132] Furthermore, by associating the die-cutting area of ​​the workpiece with the die-cutting equipment, and determining the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, multiple interactions between the die-cutting area of ​​the workpiece and the die-cutting equipment are realized, and the die-cutting station is accurately positioned.

[0133] Therefore, the die-cutting station is fixed; the die-cutting area, die-cutting station, and multiple working parameters of the workpiece are associated; the die-cutting area, die-cutting station, and multiple working parameters of the workpiece are dynamically trained until the corresponding die-cutting control system is built. This ensures multiple optimizations of the die-cutting control system, is compatible with the dynamic training of the die-cutting area, die-cutting station, and multiple working parameters of the workpiece, and ensures the accuracy of the final die-cutting control system.

[0134] refer to Figure 7 S16: Determine the abnormal parts based on the die-cutting image of the workpiece, define the offset of the die-cutting area in different dimensions based on each abnormal part, adjust the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system and the conveying speed of the workpiece, and match the corresponding die-cutting coefficient along the die-cutting trajectory.

[0135] In the specific implementation of this invention, the specific steps can be as follows:

[0136] S161: Acquire the die-cut image of the workpiece;

[0137] S162: Determine abnormal parts based on the die-cut image of the workpiece and the image recognition module;

[0138] S163: Define the offset of the die-cutting region in different dimensions based on each abnormal part;

[0139] S164: The offset of the die-cutting area in different dimensions, the die-cutting control system, and the workpiece conveying speed;

[0140] S165: Adjust the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece;

[0141] S166: Divide the die-cutting trajectory into multiple die-cutting nodes, and match the corresponding die-cutting coefficients based on the multiple die-cutting nodes, die-cutting tilt, and die-cutting pressure, and associate the die-cutting trajectory with the corresponding die-cutting coefficients.

[0142] In the specific implementation of this invention, the corresponding die-cutting station is determined according to the die-cutting area of ​​the workpiece and the die-cutting equipment. A die-cutting control system is constructed based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters. Abnormal parts are determined based on the die-cutting image of the workpiece. The offset of the die-cutting area in different dimensions is defined based on each abnormal part. The corresponding die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. The corresponding die-cutting coefficient is matched along the die-cutting trajectory. This approach takes into account the overall consideration of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. It achieves multi-dimensional control of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, ensuring the autonomous control of the die-cutting trajectory. This enables the die-cutting equipment to autonomously control the die-cutting process of the workpiece, ensuring the die-cutting accuracy of the die-cutting equipment for various different workpieces.

[0143] At this time, the die-cutting status of the workpiece is monitored in real time, and the die-cutting image of the workpiece is collected. Based on the die-cutting image of the workpiece and the image recognition module, the abnormal part is determined. This realizes multiple recognition of the die-cutting image of the workpiece and the image recognition module, ensuring the accuracy of the abnormal part. Optionally, the image recognition module is trained based on previous image data.

[0144] Furthermore, based on the definition of the offset of the die-cutting region in different dimensions for each abnormal part, the offset of the die-cutting region in different dimensions is introduced to control the offset of the die-cutting region in different dimensions.

[0145] Therefore, by considering the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, the overall consideration of these factors is incorporated. This allows for the adjustment of the corresponding die-cutting trajectory based on the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece.

[0146] Furthermore, multiple die-cutting nodes are introduced based on the die-cutting trajectory, and reasonable management and control are implemented for these nodes. Simultaneously, based on the multiple die-cutting nodes, die-cutting tilt, and die-cutting pressure, corresponding die-cutting coefficients are matched, and the die-cutting trajectory and corresponding die-cutting coefficients are associated. This facilitates dynamic interaction between the die-cutting trajectory and the corresponding die-cutting coefficients, ensuring autonomous control of the die-cutting trajectory. Thus, the die-cutting equipment can autonomously control itself during the die-cutting process of the workpiece, ensuring the die-cutting accuracy of the equipment for various different workpieces.

[0147] In this embodiment of the invention, the method described herein determines multiple working data based on the dynamic detection of the die-cutting equipment; determines the working mode of the die-cutting equipment based on the multiple working data; determines a matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece; if the matching coefficient is lower than a preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are autonomously adjusted until the matching coefficient is equal to or greater than the preset matching coefficient, thereby ensuring the matching of the working mode of the die-cutting equipment with respect to the workpiece and thus ensuring the rationality of the working mode of the die-cutting equipment.

[0148] Furthermore, based on the die-cutting area of ​​the workpiece and the die-cutting equipment, the corresponding die-cutting station is determined. A die-cutting control system is constructed based on the die-cutting area, die-cutting station, and multiple working parameters. Abnormal parts are identified based on the die-cutting image of the workpiece. The offset of the die-cutting area in different dimensions is defined based on each abnormal part. The corresponding die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. The corresponding die-cutting coefficient is matched along the die-cutting trajectory. This system takes into account the overall consideration of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. It achieves multi-dimensional control of the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, ensuring the autonomous control of the die-cutting trajectory. This enables the die-cutting equipment to autonomously control the die-cutting process of the workpiece, ensuring the die-cutting accuracy of the die-cutting equipment for various different workpieces.

[0149] Please see Figure 8 , Figure 8 This is a schematic diagram of the structural composition of the control system of the die-cutting equipment in an embodiment of the present invention.

[0150] like Figure 8 As shown, a control system for a die-cutting machine includes:

[0151] Work data module 21 is used to determine multiple work data based on the dynamic detection of the die-cutting equipment;

[0152] Working mode module 22 is used to determine the working mode of the die-cutting equipment based on multiple working data;

[0153] Matching coefficient module 23 is used to determine the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece;

[0154] The autonomous control module 24 is used to trigger dynamic optimization of the working mode of the die-cutting equipment if the matching coefficient is lower than the preset matching coefficient, and to autonomously control multiple working parameters of the die-cutting equipment until the matching coefficient is equal to or greater than the preset matching coefficient.

[0155] The die-cutting control system module 25 is used to determine the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and to construct the die-cutting control system based on the die-cutting area of ​​the workpiece, the die-cutting station and multiple working parameters.

[0156] The die-cutting trajectory module 26 is used to determine abnormal parts based on the die-cutting image of the workpiece, define the offset of the die-cutting area in different dimensions based on each abnormal part, adjust the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system and the conveying speed of the workpiece, and match the corresponding die-cutting coefficient along the die-cutting trajectory.

[0157] Please see Figure 9 See below for reference. Figure 9 To describe an electronic device 40 according to this embodiment of the present invention. Figure 9 The electronic device 40 shown is merely an example and should not impose any limitation on the functionality and scope of use of the embodiments of the present invention.

[0158] like Figure 9 As shown, the electronic device 40 is manifested in the form of a general-purpose computing device. The components of the electronic device 40 may include, but are not limited to: at least one processing unit 41, at least one storage unit 42, and a bus 43 connecting different system components (including storage unit 42 and processing unit 41).

[0159] The storage unit stores program code that can be executed by the processing unit 41, causing the processing unit 41 to perform the steps described in the "Embodiment Method" section of this specification according to various exemplary embodiments of the present invention.

[0160] Storage unit 42 may include a readable medium in the form of a volatile storage unit, such as random access memory (RAM) 421 and / or cache memory 422, and may further include a read-only memory (ROM) 423.

[0161] Storage unit 42 may also include a program / utility 424 having a set (at least one) of program modules 425, including but not limited to: an operating system, one or more application programs, other program modules, and program data, each or some combination of these examples may include an implementation of a network environment.

[0162] Bus 43 can represent one or more of several types of bus structures, including a memory cell bus or memory cell controller, a peripheral bus, a graphics acceleration port, a processing unit, or a local bus using any of the multiple bus structures.

[0163] Electronic device 40 can also communicate with one or more external devices (e.g., keyboard, pointing device, Bluetooth device, etc.), and with one or more devices that enable a user to interact with electronic device 40, and / or with any device that enables electronic device 40 to communicate with one or more other computing devices (e.g., router, modem, etc.). This communication can be performed through input / output (I / O) interface 44. Furthermore, electronic device 40 can also communicate with one or more networks (e.g., local area network (LAN), wide area network (WAN), and / or public networks, such as the Internet) through network adapter 45. Figure 9 As shown, network adapter 45 communicates with other modules of electronic device 40 via bus 43. It should be understood that, although... Figure 9 As not shown, other hardware and / or software modules may be used in conjunction with electronic device 40, including but not limited to: microcode, device drivers, redundant processing units, external disk drive arrays, RAID systems, tape drives, and data backup planning systems.

[0164] From the above description of the embodiments, those skilled in the art will readily understand that the exemplary embodiments described herein can be implemented by software or by combining software with necessary hardware. Therefore, the technical solutions according to the embodiments of this disclosure can be embodied in the form of a software product, which can be stored in a non-volatile storage medium (such as a CD-ROM, USB flash drive, external hard drive, etc.) or on a network, including several instructions to cause a computing device (such as a personal computer, server, multi-parameter sensor device, or network device, etc.) to execute the method according to the embodiments of this disclosure.

[0165] Those skilled in the art will understand that all or part of the steps in the various methods of the above embodiments can be implemented by a program instructing related hardware. This program can be stored in a computer-readable storage medium, which may include: read-only memory (ROM), random access memory (RAM), a magnetic disk, or an optical disk, etc. Furthermore, it stores computer program instructions, which, when executed by a computer, cause the computer to perform the methods described above.

[0166] Furthermore, the control method and system of the die-cutting equipment provided in the embodiments of the present invention have been described in detail above. Specific examples have been used to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only for the purpose of helping to understand the method and core ideas of the present invention. For those skilled in the art, there will be changes in the specific implementation methods and application scope based on the ideas of the present invention. Therefore, the content of this specification should not be construed as a limitation of the present invention.

Claims

1. A control method for a die-cutting machine, characterized in that, Applications in control scenarios for die-cutting equipment; The control method for the die-cutting equipment includes: Multiple working data are determined based on the dynamic detection of the die-cutting equipment; The working mode of the die-cutting equipment is determined based on multiple working data. The matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece; If the matching coefficient is lower than the preset matching coefficient, the working mode of the die-cutting equipment will be dynamically optimized, and multiple working parameters of the die-cutting equipment will be adjusted autonomously until the matching coefficient is equal to or greater than the preset matching coefficient. The corresponding die-cutting station is determined based on the die-cutting area of ​​the workpiece and the die-cutting equipment. A die-cutting control system is constructed based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters. Based on the die-cut image of the workpiece, identify the abnormal parts, define the offset of the die-cut area in different dimensions based on each abnormal part, adjust the corresponding die-cut trajectory according to the offset of the die-cut area in different dimensions, the die-cut control system and the conveying speed of the workpiece, and match the corresponding die-cut coefficient along the die-cut trajectory.

2. The control method for the die-cutting equipment according to claim 1, characterized in that, The determination of multiple working data based on dynamic detection of the die-cutting equipment includes: Collect the die-cutting equipment and the workpiece to be die-cut; When the workpiece to be die-cut enters the die-cutting equipment, the die-cutting equipment performs preliminary die-cutting on the workpiece and presents corresponding die-cutting marks on the workpiece; Dynamic detection of the die-cutting equipment is triggered based on the die-cutting marks and corresponding die-cutting times; The data space of the die-cutting equipment is determined based on the dynamic detection of the die-cutting equipment. Multiple working data are determined based on the traversal of the dynamic detection of the die-cutting equipment.

3. The control method for the die-cutting equipment according to claim 2, characterized in that, The process of determining the working mode of the die-cutting equipment based on multiple working data includes: Freeze multiple work data points; Multiple die-cutting data combinations are constructed based on multiple working data and corresponding die-cutting stages; The corresponding die-cutting working characteristics are defined based on the identification of multiple die-cutting data combinations; Associate multiple die-cutting features, die-cutting equipment models, and workpiece thickness; The first mode parameter is defined based on multiple die-cutting working characteristics and the model of the die-cutting equipment; the second mode parameter is defined based on multiple die-cutting working characteristics and the thickness of the work. The working mode of the die-cutting equipment is determined based on the second mode parameter, the first mode parameter, and the mode matching table.

4. The control method for the die-cutting equipment according to claim 3, characterized in that, The determination of the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece includes: Working modes of the fixed-frame die-cutting equipment; Collect the workpiece and perform positioning detection on the workpiece; Based on the positioning detection of the workpiece, multiple parameters of the workpiece are collected at different latitudes; The parameter set of the workpiece is determined based on multiple parameters of the workpiece at different latitudes; The working mode of the associated die-cutting equipment and the parameter set of the workpiece; The matching coefficient is determined based on the working mode of the die-cutting equipment and the parameter set of the workpiece.

5. The control method for the die-cutting equipment according to claim 4, characterized in that, If the matching coefficient is lower than the preset matching coefficient, the dynamic optimization of the working mode of the die-cutting equipment is triggered, and multiple working parameters of the die-cutting equipment are autonomously adjusted until the matching coefficient is equal to or greater than the preset matching coefficient, including: Set the matching coefficient and compare it with the preset matching coefficient; If the matching coefficient is lower than the preset matching coefficient, dynamic optimization of the working mode of the die-cutting equipment will be triggered. Based on the dynamic optimization of the working mode of the die-cutting equipment, multiple working parameters of the die-cutting equipment are autonomously adjusted. The optimized matching coefficient is defined based on multiple working parameters after autonomous adjustment. At this time, the optimized matching coefficient is equal to or greater than the preset matching coefficient.

6. The control method for the die-cutting equipment according to claim 5, characterized in that, The process involves determining the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and constructing a die-cutting control system based on the die-cutting area, die-cutting station, and multiple working parameters, including: Multiple die-cutting positions of the workpiece are fixed; The die-cutting area of ​​the workpiece is constructed based on the multiple die-cutting positions of the workpiece and the set of parameters of the workpiece.

7. The control method for the die-cutting equipment according to claim 6, characterized in that, The process of determining the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and constructing a die-cutting control system based on the die-cutting area of ​​the workpiece, the die-cutting station, and multiple working parameters, also includes: Associate the die-cutting area and die-cutting equipment of the workpiece, and determine the corresponding die-cutting station based on the die-cutting area and die-cutting equipment of the workpiece; Fixed-position die-cutting station; Associated with the die-cutting area, die-cutting station, and multiple working parameters of the workpiece; The die-cutting area, die-cutting station, and multiple working parameters of the workpiece are dynamically trained until the corresponding die-cutting control system is built.

8. The control method for the die-cutting equipment according to claim 7, characterized in that, The process of determining abnormal parts based on the die-cutting image of the workpiece, defining the offset of the die-cutting area in different dimensions based on each abnormal part, adjusting the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, and matching the corresponding die-cutting coefficient along the die-cutting trajectory includes: Acquire die-cut images of the workpiece; The abnormal parts are determined based on the die-cut image of the workpiece and the image recognition module; The offset of the die-cutting region in different dimensions is defined based on each abnormal part.

9. The control method for the die-cutting equipment according to claim 8, characterized in that, The process of determining abnormal parts based on the die-cutting image of the workpiece, defining the offset of the die-cutting area in different dimensions based on each abnormal part, adjusting the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece, and matching the corresponding die-cutting coefficient along the die-cutting trajectory, further includes: The offset of the die-cutting area in different dimensions, the die-cutting control system, and the workpiece conveying speed are all considered. The die-cutting trajectory is adjusted according to the offset of the die-cutting area in different dimensions, the die-cutting control system, and the conveying speed of the workpiece. The die-cutting trajectory is divided into multiple die-cutting nodes, and the die-cutting coefficients are matched based on the multiple die-cutting nodes, die-cutting tilt, and die-cutting pressure. The die-cutting trajectory and the corresponding die-cutting coefficients are then associated.

10. A control system for a die-cutting machine, characterized in that, The control system of the die-cutting equipment is applied to the control method of the die-cutting equipment as described in any one of claims 1-9, and the control system of the die-cutting equipment includes: The working data module is used to determine multiple working data based on the dynamic detection of the die-cutting equipment; The working mode module is used to determine the working mode of the die-cutting equipment based on multiple working data. The matching coefficient module is used to determine the matching coefficient based on the working mode of the die-cutting equipment and the parameter set of the workpiece; The autonomous control module is used to trigger dynamic optimization of the working mode of the die-cutting equipment if the matching coefficient is lower than the preset matching coefficient, and to autonomously control multiple working parameters of the die-cutting equipment until the matching coefficient is equal to or greater than the preset matching coefficient. The die-cutting control system module is used to determine the corresponding die-cutting station based on the die-cutting area of ​​the workpiece and the die-cutting equipment, and to construct the die-cutting control system based on the die-cutting area, die-cutting station and multiple working parameters of the workpiece. The die-cutting trajectory module is used to determine abnormal parts based on the die-cutting image of the workpiece, define the offset of the die-cutting area in different dimensions based on each abnormal part, adjust the corresponding die-cutting trajectory according to the offset of the die-cutting area in different dimensions, the die-cutting control system and the conveying speed of the workpiece, and match the corresponding die-cutting coefficient along the die-cutting trajectory.

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