Production control method of mute mechanical plate and related device thereof

Abstract

The invention discloses a production control method of a mute mechanical plate and a related device thereof, a cutting action set is matched according to a closed line segment and a corresponding cutting part, so that the cutting part is triggered to cut the mute mechanical plate along the cutting action set, the roughness of the mute mechanical plate is controlled in the cutting process, and the production efficiency of the mute mechanical plate is improved. The roughness of the cutting surface is dynamically detected along with the cutting process, so that a to-be-repaired area of the mute mechanical plate is defined based on the roughness set and the shape of the cut mute mechanical plate, a repairing strategy is defined based on the repairing grade and the material of the mute mechanical plate, and meanwhile, the repairing strategy is used for repairing the to-be-repaired area of the mute mechanical plate. The corresponding size difference quantity is matched based on the size of each part in the mute mechanical plate, the size correction strategy of the mute mechanical plate is triggered according to the size difference quantity, and the preset reasonable range of the roughness is maintained in the size correction process, so that the production precision of the mute mechanical plate is conveniently controlled, and the production efficiency is improved. And the production precision of the mute mechanical plate is dynamically controlled on the basis of the roughness and the size difference quantity.

Description

Technical Field

[0001] The present invention relates to the technical field of production control of silent mechanical plates, and in particular to a production control method of silent mechanical plates and related devices thereof. Background Art

[0002] With the development of science and technology, silent mechanical board, as a way of presenting wood and making full use of the silent effect of wood, needs to be cut in multiple dimensions in the whole wood and presented in a three-dimensional form. In the existing technology, the silent mechanical board is only formed through the cutting process and triggered to move during the cutting process. However, the cutting surface of the silent mechanical board is not controlled for roughness, and dynamic detection cannot be performed during the dynamic process, which affects the dynamic cutting control of the silent mechanical board. Summary of the invention

[0003] The purpose of the present invention is to overcome the shortcomings of the prior art. The present invention provides a production control method for a silent mechanical board and a related device thereof. A plurality of plane cutting diagrams are determined according to a three-dimensional model of the silent mechanical board; corresponding cutting parts are matched according to the plurality of plane cutting diagrams and corresponding directions; in each plane cutting diagram, the plane cutting diagram is traversed, and the closed line segments in the plane cutting diagram are highlighted, and a cutting action set is matched according to the closed line segments and the corresponding cutting parts, so as to trigger the cutting of the silent mechanical board by the cutting parts along the cutting action set, and control the roughness of the silent mechanical board during the cutting process, so as to dynamically detect the roughness of the cutting surface as the cutting process progresses. Therefore, the area to be repaired of the silent mechanical board is defined based on the roughness set and the shape of the cut silent mechanical board, so as to ensure the repair of the area to be repaired of the silent mechanical board, and the repair strategy is defined based on the repair level and the material of the silent mechanical board. At the same time, based on the size difference corresponding to the size matching of each part of the silent mechanical board, the size correction strategy of the silent mechanical board is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, so as to control the production accuracy of the silent mechanical board, and the production accuracy of the silent mechanical board is dynamically controlled based on the roughness and size difference, thereby realizing dynamic cutting control of the silent mechanical board.

[0004] In order to solve the above technical problems, an embodiment of the present invention provides a production control method for a silent mechanical board, which is applied to the production scenario of a silent mechanical board;

[0005] The production control method of the silent mechanical board comprises:

[0006] Collecting a three-dimensional model of the silent mechanical board, and determining a plurality of plane cutting drawings according to the three-dimensional model of the silent mechanical board;

[0007] Matching corresponding cutting parts according to multiple plane cutting images and corresponding directions;

[0008] In each plane cutting diagram, the plane cutting diagram is traversed, and the closed line segments in the plane cutting diagram are highlighted, and a cutting action set is matched according to the closed line segments and the corresponding cutting parts;

[0009] The cutting component performs cutting along the cutting action set, and dynamically detects the roughness of the cutting surface during the cutting process, and matches each roughness to the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate;

[0010] Based on the roughness set and the shape of the cut silent mechanical board, define the area to be repaired of the silent mechanical board, define the average roughness in the area to be repaired, and match the corresponding repair level according to the average roughness; define the repair strategy based on the repair level and the material of the silent mechanical board;

[0011] After the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and visual inspection is performed based on the multiple images to define the size of each part in the silent mechanical plate, and the corresponding size difference is matched based on the size of each part in the silent mechanical plate. The size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction.

[0012] Optionally, the collecting of the three-dimensional model of the silent mechanical board and determining a plurality of plane cutting views according to the three-dimensional model of the silent mechanical board include:

[0013] Collect the model information of the silent mechanical board;

[0014] Determine a three-dimensional model of the silent mechanical board based on the model information of the silent mechanical board and a model database;

[0015] The stereo model based on the silent mechanical board splits the image along six viewing angles and forms multiple sub-images;

[0016] Traverse the sub-images and convert them into drawings to determine the corresponding plane cutting drawings;

[0017] A plurality of plane cutting views are collected, and feature comparison is performed based on the plurality of plane cutting views to define a plurality of sub-features in the silent mechanical plate. At this time, the corresponding plane cutting views are associated based on the plurality of sub-features.

[0018] Optionally, matching corresponding cutting parts according to the plurality of plane cutting images and corresponding directions includes:

[0019] Collect multiple plane cutouts;

[0020] Associate multiple plane cutting images and their corresponding directions, and define the processing direction;

[0021] Collect the processing direction and the corresponding plane cutting diagram, and define the processing type;

[0022] Match multiple cutting tools based on processing type;

[0023] Define the matching coefficients between multiple cutting tools and plane cutting images;

[0024] An optimal cutting tool is defined according to the comparison of each matching coefficient, and the optimal cutting tool is defined as a corresponding cutting component.

[0025] Optionally, in each plane cutting diagram, traversing the plane cutting diagram, highlighting the closed line segments in the plane cutting diagram, and matching the cutting action set according to the closed line segments and the corresponding cutting components, includes:

[0026] In each plane cutting graph, traverse the plane cutting graph;

[0027] Defining a plurality of line segments based on traversal of the plane cutting graph;

[0028] Defining relative positions of the plurality of line segments according to position comparison of the plurality of line segments;

[0029] Define the relationship of line segment closure based on the relative positions of multiple line segments;

[0030] Constructing closed line segments in the plane cutting image based on multiple line segments and the closed relationship between the line segments, and highlighting the closed line segments in the plane cutting image;

[0031] Freeze the closed line segment and define the motion trajectory along the closed line segment;

[0032] Associating the motion track with the corresponding cutting parts, and defining the moving motion of the cutting parts;

[0033] A cutting action set is constructed based on the moving actions of each cutting part.

[0034] Optionally, the cutting component performs cutting along a cutting action set, and dynamically detects the roughness of the cutting surface during the cutting process, and matches each roughness to the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate, including:

[0035] Collect and cut action sets;

[0036] Triggering the cutting of the cutting component based on the cutting action set, at this time, the cutting component cuts along the cutting action set;

[0037] Monitor the cutting process of cutting parts in real time and define the working nodes of the cutting process;

[0038] Match the corresponding detection nodes according to the working nodes of the cutting process;

[0039] As the cutting process progresses, each detection node is triggered in sequence, and the detection of the roughness of the cutting surface is triggered at the same time as the detection node is triggered. At this time, the detection of the roughness of the cutting surface is a dynamic detection;

[0040] Collect each roughness and mark the location of each roughness;

[0041] According to the location of each roughness and the degree of roughness, it is matched to the cut silent mechanical plate, and the roughness of each part is presented based on the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate.

[0042] Optionally, the method of defining the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, and defining the average roughness in the area to be repaired, and matching the corresponding repair level according to the average roughness; and defining the repair strategy based on the repair level and the material of the silent mechanical board, includes:

[0043] Set the roughness of the frame;

[0044] Define a roughness layout map based on a roughness set and positions corresponding to the roughness;

[0045] Correlate the roughness layout map and the cut shape of the silent mechanical board;

[0046] defining an abnormal area based on the roughness layout map, the shape of the cut silent mechanical plate, and the abnormal roughness interval;

[0047] Define the area to be repaired of the silent mechanical board according to the abnormal area and the corresponding position;

[0048] Collect the roughness of each location in the area to be repaired, and define the average roughness of the area to be repaired;

[0049] Match the corresponding repair level according to the average roughness and repair level table;

[0050] Associate the repair level and the material of the silent mechanical board, and define the material association coefficient;

[0051] Define the repair strategy based on the repair level, the material of the silent mechanical board, and the material correlation coefficient.

[0052] Optionally, after the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and visual inspection is performed based on the multiple images to define the size of each part of the silent mechanical plate, and the corresponding size difference is matched based on the size of each part of the silent mechanical plate, and the size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, including:

[0053] Real-time monitoring of the repair progress on the silent mechanics board;

[0054] When the repair progress of the silent mechanics board is at the preset progress, it is defined that the repair of the silent mechanics board is completed;

[0055] After the restoration of the silent mechanics plate is completed, multiple images of the silent mechanics plate in different directions are collected;

[0056] Perform visual inspection based on multiple images and define different inspection directions according to the shape of the silent mechanical board to construct a three-dimensional inspection of the silent mechanical board;

[0057] In the three-dimensional detection of the silent mechanical board, the dimensions of each part of the silent mechanical board are defined;

[0058] Compare the dimensions of each part of the silent mechanical board with the corresponding standard dimensions and match the corresponding dimension differences;

[0059] The difference level is defined according to the size difference, and the size correction strategy of the silent mechanical plate is defined according to the difference level and the shape matching table of the silent mechanical plate. The size correction of the silent mechanical plate is triggered along the size correction strategy, and the preset reasonable range of roughness is maintained during the size correction.

[0060] In addition, an embodiment of the present invention further provides a production control device for a silent mechanical board, the production control device for a silent mechanical board comprising:

[0061] A plane cutting diagram module is used to collect a three-dimensional model of the silent mechanical board and determine a plurality of plane cutting diagrams according to the three-dimensional model of the silent mechanical board;

[0062] A cutting component module, used for matching corresponding cutting components according to multiple plane cutting images and corresponding directions;

[0063] A matching module, used for traversing the plane cutting diagrams in each plane cutting diagram, highlighting the closed line segments in the plane cutting diagrams, and matching the cutting action set according to the closed line segments and the corresponding cutting parts;

[0064] A roughness module is used to cut the cutting parts along the cutting action set, and dynamically detect the roughness of the cutting surface during the cutting process, and match each roughness to the cut silent mechanical board to construct a roughness set of the cut silent mechanical board;

[0065] A repair strategy module is used to define the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, and define the average roughness in the area to be repaired, and match the corresponding repair level according to the average roughness; define the repair strategy based on the repair level and the material of the silent mechanical board;

[0066] The size correction module is used to collect multiple images of the silent mechanical plate in different directions after the repair of the silent mechanical plate is completed, and perform visual inspection based on the multiple images to define the size of each part in the silent mechanical plate, and match the corresponding size difference based on the size of each part in the silent mechanical plate, trigger the size correction strategy of the silent mechanical plate according to the size difference, and maintain the preset reasonable range of roughness during the size correction.

[0067] Optionally, an electronic device includes a processor and a memory, wherein the processor runs a computer program or code stored in the memory to implement the above-mentioned production control method of the silent mechanical board.

[0068] Optionally, a computer-readable storage medium is used to store a computer program or code, which, when executed by a processor, implements the above-mentioned production control method of the silent mechanical board.

[0069] In an embodiment of the present invention, through the method in the embodiment of the present invention, multiple plane cutting views are determined according to the three-dimensional model of the silent mechanical board; corresponding cutting parts are matched according to the multiple plane cutting views and the corresponding directions; in each plane cutting view, the plane cutting view is traversed, and the closed line segments in the plane cutting view are highlighted, and a cutting action set is matched according to the closed line segments and the corresponding cutting parts, so as to trigger the cutting of the silent mechanical board by the cutting parts along the cutting action set, and control the roughness of the silent mechanical board during the cutting process, so as to dynamically detect the roughness of the cutting surface as the cutting process progresses, thereby based on the roughness set and the already The shape of the cut silent mechanical board defines the area to be repaired of the silent mechanical board, so as to ensure the repair of the area to be repaired of the silent mechanical board, and define the repair strategy based on the repair level and the material of the silent mechanical board. At the same time, based on the size matching of each part in the silent mechanical board and the corresponding size difference, the size correction strategy of the silent mechanical board is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, so as to control the production accuracy of the silent mechanical board, and dynamically control the production accuracy of the silent mechanical board based on the roughness and size difference, thereby realizing dynamic cutting control of the silent mechanical board. BRIEF DESCRIPTION OF THE DRAWINGS

[0070] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0071] Figure 1 It is a flow chart of a production control method of a silent mechanical board in an embodiment of the present invention;

[0072] Figure 2 is a flow chart of S11 in the production control method of the silent mechanical board in the embodiment of the present invention;

[0073] Figure 3 is a flow chart of S12 in the production control method of the silent mechanical board in the embodiment of the present invention;

[0074] Figure 4 is a flow chart of S13 in the production control method of the silent mechanical board in the embodiment of the present invention;

[0075] Figure 5 is a flow chart of S14 in the production control method of the silent mechanical board in the embodiment of the present invention;

[0076] Figure 6is a flow chart of S15 in the production control method of the silent mechanical board in the embodiment of the present invention;

[0077] Figure 7 is a flow chart of S16 in the production control method of the silent mechanical board in the embodiment of the present invention;

[0078] Figure 8 It is a schematic diagram of the structure of the production control device of the silent mechanical board in the embodiment of the present invention;

[0079] Fig. 9 It is a schematic diagram of a production control device of a silent mechanical plate according to an exemplary embodiment. DETAILED DESCRIPTION

[0080] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0081] First embodiment

[0082] See also Figures 1 to 9 , a production control method for a silent mechanical board is applied to the production scene of a silent mechanical board; the production control method for a silent mechanical board includes:

[0083] Step S11: collecting a three-dimensional model of the silent mechanical board, and determining a plurality of plane cutting images according to the three-dimensional model of the silent mechanical board;

[0084] Step S12: matching corresponding cutting parts according to a plurality of plane cutting images and corresponding directions;

[0085] Step S13: in each plane cutting diagram, traverse the plane cutting diagram, highlight the closed line segments in the plane cutting diagram, and match the cutting action set according to the closed line segments and the corresponding cutting parts;

[0086] Step S14: the cutting component performs cutting along the cutting action set, and dynamically detects the roughness of the cutting surface during the cutting process, and matches each roughness to the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate;

[0087] Step S15: defining the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, defining the average roughness in the area to be repaired, matching the corresponding repair level according to the average roughness; defining the repair strategy based on the repair level and the material of the silent mechanical board;

[0088] Step S16: After the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and visual inspection is performed based on the multiple images to define the size of each part in the silent mechanical plate, and the corresponding size difference is matched based on the size of each part in the silent mechanical plate. The size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction.

[0089] In an embodiment of the present invention, through the method in the embodiment of the present invention, multiple plane cutting views are determined according to the three-dimensional model of the silent mechanical board; corresponding cutting parts are matched according to the multiple plane cutting views and the corresponding directions; in each plane cutting view, the plane cutting view is traversed, and the closed line segments in the plane cutting view are highlighted, and a cutting action set is matched according to the closed line segments and the corresponding cutting parts, so as to trigger the cutting of the silent mechanical board by the cutting parts along the cutting action set, and control the roughness of the silent mechanical board during the cutting process, so as to dynamically detect the roughness of the cutting surface as the cutting process progresses, thereby based on the roughness set and the already The shape of the cut silent mechanical board defines the area to be repaired of the silent mechanical board, so as to ensure the repair of the area to be repaired of the silent mechanical board, and define the repair strategy based on the repair level and the material of the silent mechanical board. At the same time, based on the size matching of each part in the silent mechanical board and the corresponding size difference, the size correction strategy of the silent mechanical board is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, so as to control the production accuracy of the silent mechanical board, and dynamically control the production accuracy of the silent mechanical board based on the roughness and size difference, thereby realizing dynamic cutting control of the silent mechanical board.

[0090] In step S11, a three-dimensional model of the silent mechanical board is collected, and a plurality of plane cutting images are determined according to the three-dimensional model of the silent mechanical board;

[0091] In the specific implementation process of the present invention, the specific steps may be:

[0092] S111: Collect model information of silent mechanical board;

[0093] S112: determining a three-dimensional model of the silent mechanical plate based on the model information of the silent mechanical plate and a model database;

[0094] S113: splitting the image along six viewing angles based on the three-dimensional model of the silent mechanical board and forming a plurality of sub-images;

[0095] S114: traversing the sub-images and converting the sub-images into drawings to determine corresponding plane cutting drawings;

[0096] S115: Collect multiple plane cutting views, and perform feature comparison based on the multiple plane cutting views to define multiple sub-features in the silent mechanical plate. At this time, the corresponding plane cutting views are associated based on the multiple sub-features.

[0097] In an embodiment of the present application, model information of a silent mechanical plate is collected so as to associate the model information of the silent mechanical plate with a model database, thereby determining a three-dimensional model of the silent mechanical plate based on the model information of the silent mechanical plate and the model database, so as to freeze the three-dimensional model of the silent mechanical plate, and then perform multiple perspective processing on the three-dimensional model of the silent mechanical plate, so as to present planar cut-outs of the three-dimensional model of the silent mechanical plate at multiple perspectives.

[0098] At this time, the three-dimensional model based on the silent mechanical board is split into images along six perspectives to form multiple sub-images, so as to facilitate the management and control of multiple sub-images, thereby traversing the sub-images and making drawings for the sub-images to determine the corresponding plane cutting drawings. Therefore, the plane cutting drawings are introduced, and corresponding cutting actions are performed on the plane cutting drawings and the raw materials of the silent mechanical boards, thereby controlling the production control of the silent mechanical boards.

[0099] Furthermore, multiple plane cutting views are collected, and feature comparison is performed based on the multiple plane cutting views to define multiple sub-features in the silent mechanical board. At this time, the corresponding plane cutting views are associated based on the multiple sub-features to facilitate corresponding cutting for the multiple sub-features, thereby gradually controlling the production control of the silent mechanical board.

[0100] In step S12, corresponding cutting parts are matched according to the plurality of plane cutting images and corresponding directions;

[0101] In the specific implementation process of the present invention, the specific steps may be:

[0102] S121: Collect multiple plane cutting images;

[0103] S122: Associating multiple plane cutting images and corresponding directions, and defining a processing direction;

[0104] S123: Collect the processing direction and the corresponding plane cutting diagram, and define the processing type;

[0105] S124: matching multiple cutting tools based on processing types;

[0106] S125: defining a matching coefficient between a plurality of cutting tools and a plane cutting graph;

[0107] S126: defining an optimal cutting tool according to the comparison of each matching coefficient, and defining the optimal cutting tool as a corresponding cutting component.

[0108] In an embodiment of the present application, multiple plane cutting views are collected to facilitate associating multiple plane cutting views and corresponding directions, and defining a processing direction. At this time, the processing direction is defined based on the multiple plane cutting views and corresponding directions, thereby defining the processing direction corresponding to the plane cutting views, and then controlling the processing direction to facilitate matching of cutting tools along the processing direction, thereby ensuring intelligent selection of matching cutting tools in the corresponding processing direction.

[0109] At this time, the processing direction and the corresponding plane cutting diagram are collected, and the processing type is defined; multiple cutting tools are matched based on the processing type, so as to determine the corresponding multiple cutting tools for the processing type, so as to facilitate further screening of the multiple cutting tools, so as to select a more matching cutting tool, so that the cutting tool can perform reasonable cutting actions in the corresponding direction, thereby ensuring the production accuracy and efficiency of the silent mechanical board.

[0110] Furthermore, matching coefficients are defined between multiple cutting tools and plane cutting diagrams, so that the matching degrees of multiple cutting tools and plane cutting diagrams can be presented through matching coefficients, thereby defining the best cutting tool based on the comparison of each matching coefficient, and defining the best cutting tool as the corresponding cutting component. At this time, the best cutting tool is selected from multiple cutting tools, and the best cutting tool is highly matched with the plane cutting diagram, thereby ensuring the cutting process of the plane cutting diagram, and then controlling the refined production of the silent mechanical board.

[0111] In step S13, in each plane cutting diagram, the plane cutting diagram is traversed, and the closed line segments in the plane cutting diagram are highlighted, and the cutting action set is matched according to the closed line segments and the corresponding cutting parts;

[0112] In the specific implementation process of the present invention, the specific steps may be:

[0113] S131: traversing each plane cutting graph;

[0114] S132: defining a plurality of line segments based on traversal of the plane cutting graph;

[0115] S133: defining relative positions of the plurality of line segments according to position comparison of the plurality of line segments;

[0116] S134: defining a closed relationship of the line segments based on the relative positions of the plurality of line segments;

[0117] S135: constructing closed line segments in the plane cutting image based on the multiple line segments and the closed relationship between the line segments, and performing highlighting processing on the closed line segments in the plane cutting image;

[0118] S136: freeze the closed line segment and define the motion trajectory along the closed line segment;

[0119] S137: Associating the motion track with the corresponding cutting component, and defining the moving motion of the cutting component;

[0120] S138: Construct a cutting action set based on the moving actions of each cutting component.

[0121] In an embodiment of the present application, each plane cutting diagram is further processed. At this time, in each plane cutting diagram, the plane cutting diagram is traversed to define multiple line segments based on the traversal of the plane cutting diagram, thereby preliminarily presenting the multiple line segments, so as to facilitate closed processing based on the multiple line segments, and then control the closed relationship of the multiple line segments, so as to perform corresponding cutting processing on the subsequent closed line segments, thereby ensuring the processing accuracy of each feature in the silent mechanical plate.

[0122] Therefore, the relative positions of multiple line segments are defined based on the position comparison of multiple line segments, so as to introduce the relative positions of multiple line segments, and then the closed relationship of the line segments is defined based on the relative positions of multiple line segments, so as to introduce the relationship falling into the closed relationship of the line segments, and then the closed processing is performed based on the closed relationship of the line segments and the line segments, so as to form closed line segments.

[0123] At this time, the closed line segments in the plane cutting diagram are constructed based on multiple line segments and the closed relationship of the line segments, so as to facilitate feature control of the closed line segments. At the same time, the closed line segments in the plane cutting diagram are highlighted, and the highlighted closed line segments are subjected to closed-loop cutting processing.

[0124] Furthermore, the closed line segment is frozen, and the motion trajectory is defined along the closed line segment; the motion trajectory and the corresponding cutting component are associated, and the moving motion of the cutting component is defined; a cutting action set is constructed based on the moving motion of each cutting component, so that the cutting action of each cutting component is controlled through the cutting action set, and multiple moving actions are controlled to facilitate the control of the cutting path of the cutting component.

[0125] S14: the cutting component performs cutting along the cutting action set, and dynamically detects the roughness of the cutting surface during the cutting process, and matches each roughness to the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate;

[0126] In the specific implementation process of the present invention, the specific steps may be:

[0127] S141: Collect cutting action set;

[0128] S142: triggering the cutting of the cutting component based on the cutting action set, at this time, the cutting component performs cutting along the cutting action set;

[0129] S143: monitoring the cutting process of the cutting component in real time, and defining the working nodes of the cutting process;

[0130] S144: Matching corresponding detection nodes according to the working nodes of the cutting process;

[0131] S145: triggering each detection node in sequence during the cutting process, and triggering the detection of the roughness of the cutting surface at the same time as the detection node is triggered. At this time, the detection of the roughness of the cutting surface is a dynamic detection;

[0132] S146: collecting each roughness and marking the location of each roughness;

[0133] S147: Match the roughness to the cut silent mechanical plate according to the location of each roughness and the degree of roughness, and present the roughness of each part based on the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate.

[0134] In an embodiment of the present application, a cutting action set is collected to facilitate model control for the cutting action set, thereby triggering the cutting of the cutting component based on the cutting action set. At this time, the cutting component cuts along the cutting action set, and processes each cutting action in the cutting action set in sequence, so as to ensure the matching of the cutting component and the cutting action set.

[0135] At this time, the cutting process of the cutting parts is monitored in real time, and the working nodes of the cutting process are defined to facilitate node control of the cutting process, thereby introducing multiple working nodes, and then matching the corresponding detection nodes according to the working nodes of the cutting process, so as to facilitate the roughness detection of the silent mechanical plate according to the detection node control.

[0136] Therefore, as the cutting process progresses, each detection node is triggered in sequence, and the detection of the roughness of the cutting surface is triggered at the same time as the detection node is triggered. At this time, the detection of the roughness of the cutting surface is a dynamic detection, which is convenient for dynamic detection of the silent mechanical plate, and at the same time, the roughness of each position in the silent mechanical plate is controlled, avoiding static detection.

[0137] Furthermore, each roughness is collected and the location of each roughness is marked, so as to match it to the cut silent mechanical plate according to the location of each roughness and the roughness, and present the roughness of each part based on the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate, thereby introducing the roughness set of the cut silent mechanical plate, and then managing the roughness set to facilitate all-round roughness processing of the silent mechanical plate.

[0138] S15: defining the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, defining the average roughness in the area to be repaired, matching the corresponding repair level according to the average roughness; defining the repair strategy based on the repair level and the material of the silent mechanical board;

[0139] In the specific implementation process of the present invention, the specific steps may be:

[0140] S151: Fixed roughness set;

[0141] S152: defining a roughness layout map based on the roughness set and the positions corresponding to the roughness;

[0142] S153: Correlation of the roughness layout and the shape of the cut silent mechanical plate;

[0143] S154: defining an abnormal area based on the roughness layout map, the shape of the cut silent mechanical plate, and the abnormal roughness interval;

[0144] S155: defining the area to be repaired of the silent mechanical plate according to the abnormal area and the corresponding position;

[0145] S156: collecting roughness at various locations in the area to be repaired, and defining an average roughness in the area to be repaired;

[0146] S157: matching a corresponding repair level according to the average roughness and the repair level table;

[0147] S158: Associate the repair level and the material of the silent mechanical board, and define the material association coefficient;

[0148] S159: Define the repair strategy based on the repair level, the material of the silent mechanical board, and the material correlation coefficient.

[0149] In an embodiment of the present application, a roughness set is frozen to facilitate control over the roughness set. At the same time, a roughness layout map is defined based on the roughness set and the position corresponding to the roughness, and the roughness layout map and the shape of the cut silent mechanical plate are associated to facilitate multi-dimensional control over the roughness layout map, the shape of the cut silent mechanical plate and the abnormal roughness interval. Abnormal areas are defined based on the roughness layout map, the shape of the cut silent mechanical plate and the abnormal roughness interval, and then the abnormal areas are frozen to facilitate targeted processing of the abnormal areas.

[0150] Furthermore, abnormal areas are introduced, and the abnormal areas and corresponding positions are defined, so that the area to be repaired of the silent mechanical plate is defined according to the abnormal areas and corresponding positions, so as to facilitate the control of the area to be repaired of the silent mechanical plate, and then repair the controlled area to be repaired of the silent mechanical plate.

[0151] Therefore, the roughness of each location in the area to be repaired is collected, and the average roughness in the area to be repaired is defined, so as to introduce the average roughness in the area to be repaired, and associate the average roughness and the repair grade table, and then match the corresponding repair grade according to the average roughness and the repair grade table, so as to define the corresponding repair grade of the area to be repaired, and ensure the freezing of the repair grade.

[0152] Therefore, the repair level and the material of the silent mechanical board are associated, and the material association coefficient is defined. The material of the silent mechanical board is further introduced, and the material of the silent mechanical board is further considered. Therefore, the repair strategy is defined based on the repair level, the material of the silent mechanical board and the material association coefficient, thereby ensuring the targeted management of the repair strategy.

[0153] S16: After the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and visual inspection is performed based on the multiple images to define the size of each part of the silent mechanical plate, and the corresponding size difference is matched based on the size of each part of the silent mechanical plate, and the size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction;

[0154] In the specific implementation process of the present invention, the specific steps may be:

[0155] S161: Real-time monitoring of the repair progress of the silent mechanics board;

[0156] S162: When the repair progress of the silent mechanical board is at a preset progress, it is defined that the repair of the silent mechanical board is completed;

[0157] S163: After the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected;

[0158] S164: Perform visual inspection based on multiple images and define different inspection directions according to the shape of the silent mechanical plate to construct a three-dimensional inspection of the silent mechanical plate;

[0159] S165: In the three-dimensional detection of the silent mechanical board, define the dimensions of each part of the silent mechanical board;

[0160] S166: Compare the dimensions of each part of the silent mechanical board with the corresponding standard dimensions, and match the corresponding dimension difference amounts;

[0161] S167: Define the difference level according to the size difference amount, and define the size correction strategy of the silent mechanical plate according to the difference level and the shape matching table of the silent mechanical plate, trigger the size correction of the silent mechanical plate along the size correction strategy, and maintain the preset reasonable range of roughness during the size correction.

[0162] In an embodiment of the present application, the repair progress of the silent mechanical plate is monitored in real time; when the repair progress of the silent mechanical plate is at a preset progress, the repair of the silent mechanical plate is defined as completed, so as to facilitate the control of the repair progress of the silent mechanical plate.

[0163] At this time, after the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and the silent mechanical plate is inspected in multiple directions to facilitate size detection and size correction. Therefore, visual inspection is performed based on multiple images, and different inspection directions are defined according to the shape of the silent mechanical plate to construct a three-dimensional inspection of the silent mechanical plate, thereby ensuring the size detection effect of the silent mechanical plate.

[0164] In the stereoscopic detection of the silent mechanical plate, the dimensions of each part of the silent mechanical plate are defined; the dimensions of each part of the silent mechanical plate are compared with the corresponding standard dimensions, and the corresponding dimension difference is matched, so as to control the dimension difference, so as to define the difference grade according to the dimension difference, and define the dimension correction strategy of the silent mechanical plate according to the difference grade and the shape matching table of the silent mechanical plate, trigger the dimension correction of the silent mechanical plate along the dimension correction strategy, and maintain the preset reasonable range of roughness during the dimension correction.

[0165] Therefore, based on the size difference corresponding to the size matching of each part in the silent mechanical plate, the size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, so as to control the production precision of the silent mechanical plate. The production precision of the silent mechanical plate is dynamically controlled based on the roughness and size difference, thereby realizing dynamic cutting control of the silent mechanical plate.

[0166] Therefore, multiple plane cutting views are determined according to the three-dimensional model of the silent mechanical board; corresponding cutting parts are matched according to the multiple plane cutting views and the corresponding directions; in each plane cutting view, the plane cutting views are traversed, and the closed line segments in the plane cutting views are highlighted, and the cutting action set is matched according to the closed line segments and the corresponding cutting parts, so as to trigger the cutting of the silent mechanical board by the cutting parts along the cutting action set, and control the roughness of the silent mechanical board during the cutting process, so as to dynamically detect the roughness of the cutting surface as the cutting process progresses, thereby based on the roughness set and the cut silent mechanical board The shape defines the area to be repaired of the silent mechanical board, so as to ensure the repair of the area to be repaired of the silent mechanical board, and defines the repair strategy based on the repair level and the material of the silent mechanical board. At the same time, based on the size matching of each part in the silent mechanical board and the corresponding size difference, the size correction strategy of the silent mechanical board is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, so as to control the production accuracy of the silent mechanical board, and the production accuracy of the silent mechanical board is dynamically controlled based on the roughness and size difference, thereby realizing dynamic cutting control of the silent mechanical board.

[0167] Second embodiment

[0168] See also Figure 8 , Figure 8 It is a schematic diagram of the structural composition of the production control device of the silent mechanical plate in an embodiment of the present invention.

[0169] like Figure 8 As shown, a production control device for a silent mechanical board, the production control device for a silent mechanical board comprises:

[0170] A plane cutting diagram module 21 is used to collect a three-dimensional model of the silent mechanical board and determine a plurality of plane cutting diagrams according to the three-dimensional model of the silent mechanical board;

[0171] A cutting component module 22, used for matching corresponding cutting components according to a plurality of plane cutting images and corresponding directions;

[0172] A matching module 23 is used to traverse the plane cutting diagrams in each plane cutting diagram, highlight the closed line segments in the plane cutting diagram, and match the cutting action set according to the closed line segments and the corresponding cutting parts;

[0173] A data collection module 24, for cutting the cutting component along the cutting action set, dynamically detecting the roughness of the cutting surface during the cutting process, and matching each roughness to the cut silent mechanical board to construct a roughness set of the cut silent mechanical board;

[0174] The repair strategy module 25 is used to define the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, and define the average roughness in the area to be repaired, match the corresponding repair level according to the average roughness; define the repair strategy based on the repair level and the material of the silent mechanical board;

[0175] The size correction module 26 is used to collect multiple images of the silent mechanical plate in different directions after the repair of the silent mechanical plate is completed, and perform visual inspection based on the multiple images to define the size of each part in the silent mechanical plate, and match the corresponding size difference based on the size of each part in the silent mechanical plate, trigger the size correction strategy of the silent mechanical plate according to the size difference, and maintain the preset reasonable range of roughness during the size correction.

[0176] Third embodiment

[0177] An embodiment of the present invention provides a computer-readable storage medium, on which a computer program is stored, and when the program is executed by a processor, the production control method of the silent mechanical board of any one of the above embodiments is implemented. Wherein, the computer-readable storage medium includes but is not limited to any type of disk (including floppy disk, hard disk, optical disk, CD-ROM, and magneto-optical disk), ROM (Read-Only Memory), RAM (Random Access Memory), EPROM (Erasable Programmable Read-Only Memory), EEPROM (Electrically Erasable Programmable Read-Only Memory), flash memory, magnetic card or optical card. That is, the storage device includes any medium that can store or transmit information in a readable form by a device (for example, a computer, a mobile phone), which can be a read-only memory, a disk or an optical disk, etc.

[0178] An embodiment of the present invention further provides a computer application program that runs on a computer and is used to execute the production control method of the silent mechanical board of any one of the above embodiments.

[0179] also, Fig. 9 It is a schematic diagram of the structural composition of the production control equipment of the silent mechanical plate in the embodiment of the present invention.

[0180] The embodiment of the present invention also provides a production control device for a silent mechanical board, such as Fig. 9The therapeutic device includes a processor 302, a memory 303, an input unit 304, a display unit 305 and other devices. Those skilled in the art will understand that Figure 3 The production control equipment structure device of the silent mechanical board shown does not constitute a limitation on all devices, and may include more or fewer components than shown, or combine certain components. The memory 303 can be used to store the application 301 and each functional module, and the processor 302 runs the application 301 stored in the memory 303, thereby executing various functional applications and data processing of the device. The memory can be an internal memory or an external memory, or include both internal and external memories. The internal memory may include a read-only memory (ROM), a programmable ROM (PROM), an electrically programmable ROM (EPROM), an electrically erasable programmable ROM (EEPROM), a flash memory, or a random access memory. The external memory may include a hard disk, a floppy disk, a ZIP disk, a U disk, a magnetic tape, etc. The memory disclosed in the present invention includes but is not limited to these types of memories. The memory disclosed in the present invention is only used as an example and not as a limitation.

[0181] The input unit 304 is used to receive the input of the signal and the keyword input by the user. The input unit 304 may include a touch panel and other input devices. The touch panel can collect the user's touch operation on or near it (such as the user's operation on or near the touch panel using any suitable object or accessory such as a finger, stylus, etc.), and drive the corresponding connection device according to a pre-set program; other input devices may include but are not limited to one or more of a physical keyboard, a function key (such as a playback control key, a switch key, etc.), a trackball, a mouse, a joystick, etc. The display unit 305 can be used to display the information input by the user or the information provided to the user and various menus of the terminal device. The display unit 305 can be in the form of a liquid crystal display, an organic light emitting diode, etc. The processor 302 is the control center of the terminal device, which uses various interfaces and lines to connect the various parts of the entire device, and executes various functions and processes data by running or executing software programs and / or modules stored in the memory 303, and calling the data stored in the memory.

[0182] As an embodiment, the production control device of the silent mechanical board includes: one or more processors 302, a memory 303, and one or more applications 301, wherein the one or more applications 301 are stored in the memory 303 and are configured to be executed by the one or more processors 302, and the one or more applications 301 are configured to execute the production control method of the silent mechanical board in any one of the above-mentioned embodiments.

[0183] In addition, the above is a detailed introduction to the production control method of the silent mechanical board provided in the embodiment of the present invention and its related devices. Specific examples are used herein to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only used to help understand the method of the present invention and its core idea. At the same time, for general technical personnel in this field, according to the idea of ​​the present invention, there will be changes in the specific implementation method and application scope. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A production control method for a silent mechanical board, characterized in that: Applied to the production scenarios of silent mechanical panels; The production control method of the silent mechanical board comprises: Collecting a three-dimensional model of the silent mechanical board, and determining a plurality of plane cutting drawings according to the three-dimensional model of the silent mechanical board; Matching corresponding cutting parts according to multiple plane cutting images and corresponding directions; In each plane cutting diagram, the plane cutting diagram is traversed, and the closed line segments in the plane cutting diagram are highlighted, and a cutting action set is matched according to the closed line segments and the corresponding cutting parts; The cutting component performs cutting along the cutting action set, and dynamically detects the roughness of the cutting surface during the cutting process, and matches each roughness to the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate; Based on the roughness set and the shape of the cut silent mechanical board, define the area to be repaired of the silent mechanical board, define the average roughness in the area to be repaired, and match the corresponding repair level according to the average roughness; define the repair strategy based on the repair level and the material of the silent mechanical board; After the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and visual inspection is performed based on the multiple images to define the size of each part in the silent mechanical plate, and the corresponding size difference is matched based on the size of each part in the silent mechanical plate. The size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction.

2. The production control method of the silent mechanical board according to claim 1 is characterized in that: The collecting of the three-dimensional model of the silent mechanical board and determining a plurality of plane cutting images according to the three-dimensional model of the silent mechanical board include: Collect the model information of the silent mechanical board; Determine a three-dimensional model of the silent mechanical board based on the model information of the silent mechanical board and a model database; The stereo model based on the silent mechanical board splits the image along six viewing angles and forms multiple sub-images; Traverse the sub-images and convert them into drawings to determine the corresponding plane cutting drawings; A plurality of plane cutting views are collected, and feature comparison is performed based on the plurality of plane cutting views to define a plurality of sub-features in the silent mechanical plate. At this time, the corresponding plane cutting views are associated based on the plurality of sub-features.

3. The production control method of the silent mechanical board according to claim 1 is characterized in that: The matching of corresponding cutting parts according to the plurality of plane cutting images and corresponding directions includes: Collect multiple plane cutouts; Associate multiple plane cutting images and their corresponding directions, and define the processing direction; Collect the processing direction and the corresponding plane cutting diagram, and define the processing type; Match multiple cutting tools based on processing type; Define the matching coefficients between multiple cutting tools and plane cutting images; An optimal cutting tool is defined according to the comparison of each matching coefficient, and the optimal cutting tool is defined as a corresponding cutting component.

4. The production control method of the silent mechanical board according to claim 1 is characterized in that: In each plane cutting diagram, the plane cutting diagram is traversed, and the closed line segments in the plane cutting diagram are highlighted, and a cutting action set is matched according to the closed line segments and the corresponding cutting parts, including: In each plane cutting graph, traverse the plane cutting graph; Defining a plurality of line segments based on traversal of the plane cutting graph; Defining relative positions of the plurality of line segments according to position comparison of the plurality of line segments; Define the relationship of line segment closure based on the relative positions of multiple line segments; Constructing closed line segments in the plane cutting image based on multiple line segments and the closed relationship between the line segments, and highlighting the closed line segments in the plane cutting image; Freeze the closed line segment and define the motion trajectory along the closed line segment; Associating the motion track with the corresponding cutting parts, and defining the moving motion of the cutting parts; A cutting action set is constructed based on the moving actions of each cutting part.

5. The production control method of the silent mechanical board according to claim 4 is characterized in that: The cutting component cuts along the cutting action set, and dynamically detects the roughness of the cutting surface during the cutting process, and matches each roughness to the cut silent mechanical board to construct a roughness set of the cut silent mechanical board, including: Collect and cut action sets; Triggering the cutting of the cutting component based on the cutting action set, at this time, the cutting component cuts along the cutting action set; Monitor the cutting process of cutting parts in real time and define the working nodes of the cutting process; Match the corresponding detection nodes according to the working nodes of the cutting process; As the cutting process progresses, each detection node is triggered in sequence, and the detection of the roughness of the cutting surface is triggered at the same time as the detection node is triggered. At this time, the detection of the roughness of the cutting surface is a dynamic detection; Collect each roughness and mark the location of each roughness; According to the location of each roughness and the degree of roughness, it is matched to the cut silent mechanical plate, and the roughness of each part is presented based on the cut silent mechanical plate to construct a roughness set of the cut silent mechanical plate.

6. The production control method of the silent mechanical board according to claim 5 is characterized in that: The method defines the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, defines the average roughness in the area to be repaired, and matches the corresponding repair level according to the average roughness; The repair strategy is defined based on the repair level and the material of the silent mechanical board, including: Set the roughness of the frame; Define a roughness layout map based on a roughness set and positions corresponding to the roughness; Correlate the roughness layout map and the cut shape of the silent mechanical board; defining an abnormal area based on the roughness layout map, the shape of the cut silent mechanical plate, and the abnormal roughness interval; Define the area to be repaired of the silent mechanical board according to the abnormal area and the corresponding position; Collect the roughness of each location in the area to be repaired, and define the average roughness of the area to be repaired; Match the corresponding repair level according to the average roughness and repair level table; Associate the repair level and the material of the silent mechanical board, and define the material association coefficient; Define the repair strategy based on the repair level, the material of the silent mechanical board, and the material correlation coefficient.

7. The production control method of the silent mechanical board according to claim 6 is characterized in that: After the repair of the silent mechanical plate is completed, multiple images of the silent mechanical plate in different directions are collected, and visual inspection is performed based on the multiple images to define the size of each part of the silent mechanical plate, and the corresponding size difference is matched based on the size of each part of the silent mechanical plate, and the size correction strategy of the silent mechanical plate is triggered according to the size difference, and the preset reasonable range of roughness is maintained during the size correction, including: Real-time monitoring of the repair progress on the silent mechanics board; When the repair progress of the silent mechanics board is at the preset progress, it is defined that the repair of the silent mechanics board is completed; After the restoration of the silent mechanics plate is completed, multiple images of the silent mechanics plate in different directions are collected; Perform visual inspection based on multiple images and define different inspection directions according to the shape of the silent mechanical board to construct a three-dimensional inspection of the silent mechanical board; In the three-dimensional detection of the silent mechanical board, the dimensions of each part of the silent mechanical board are defined; Compare the dimensions of each part of the silent mechanical board with the corresponding standard dimensions and match the corresponding dimension differences; The difference level is defined according to the size difference, and the size correction strategy of the silent mechanical plate is defined according to the difference level and the shape matching table of the silent mechanical plate. The size correction of the silent mechanical plate is triggered along the size correction strategy, and the preset reasonable range of roughness is maintained during the size correction.

8. A production control device for a silent mechanical board, characterized in that: The production control device of the silent mechanical board is applied to the production control method of the silent mechanical board as claimed in any one of claims 1 to 7, and the production control device of the silent mechanical board comprises: A plane cutting diagram module is used to collect a three-dimensional model of the silent mechanical board and determine a plurality of plane cutting diagrams according to the three-dimensional model of the silent mechanical board; A cutting component module, used for matching corresponding cutting components according to multiple plane cutting images and corresponding directions; A matching module, used for traversing the plane cutting diagrams in each plane cutting diagram, highlighting the closed line segments in the plane cutting diagrams, and matching the cutting action set according to the closed line segments and the corresponding cutting parts; A roughness module is used to cut the cutting parts along the cutting action set, and dynamically detect the roughness of the cutting surface during the cutting process, and match each roughness to the cut silent mechanical board to construct a roughness set of the cut silent mechanical board; A repair strategy module is used to define the area to be repaired of the silent mechanical board based on the roughness set and the shape of the cut silent mechanical board, and define the average roughness in the area to be repaired, and match the corresponding repair level according to the average roughness; define the repair strategy based on the repair level and the material of the silent mechanical board; The size correction module is used to collect multiple images of the silent mechanical plate in different directions after the repair of the silent mechanical plate is completed, and perform visual inspection based on the multiple images to define the size of each part in the silent mechanical plate, and match the corresponding size difference based on the size of each part in the silent mechanical plate, trigger the size correction strategy of the silent mechanical plate according to the size difference, and maintain the preset reasonable range of roughness during the size correction.

9. An electronic device comprising a processor and a memory, characterized in that: The processor runs a computer program or code stored in the memory to implement the production control method of the silent mechanical board according to any one of claims 1 to 7.

10. A computer-readable storage medium for storing a computer program or code, characterized in that: When the computer program or code is executed by a processor, the production control method of the silent mechanical board according to any one of claims 1 to 7 is implemented.

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