Iron core piece type data generation method and system and storage medium

Abstract

The invention relates to the field of computer aided design, and discloses an iron core piece type data generation method and system and a storage medium, and the method comprises the following steps: obtaining iron core basic parameters; determining a first target group and a second target group according to the high-voltage side series and the low-voltage side series; generating a corresponding slice width number set according to the hierarchy and the slice width corresponding to the first target group; generating a corresponding longitudinal level thickness number set according to the level, the sheet width and the sheet thickness corresponding to the second target group; generating single-stage thickness data corresponding to each stage according to the longitudinal-stage thickness number set and the sheet thickness of each stage, filtering all the single-stage thickness data, and summarizing the filtered single-stage thickness data into a single-stage thickness number set. The sheet width number set, the longitudinal-level thickness number set and the single-level thickness number set are automatically generated according to the iron core basic data, the data generation efficiency is high, and the data accuracy is guaranteed. The slice width number set, the longitudinal-level thickness number set and the single-level thickness number set reduce repeated data in the generation process, and a subsequent slice type graph is simplified.

Description

Technical Field

[0001] The present invention relates to the field of computer-aided design, and in particular to a method, system and storage medium for generating core sheet type data. Background Art

[0002] During the production process of the core, workers will produce according to the core sheet diagram. The core sheet diagram is generated according to the basic parameters of the core required by the order. The core sheet diagram mainly includes the core cross-section diagram and various drawing annotations. Among them, the drawing annotations are generated in the drawing software according to the sheet width parameters, longitudinal level thickness parameters and single level thickness parameters. Therefore, before drawing the core sheet diagram, the staff needs to calculate the drawing parameters according to the basic parameters in the order.

[0003] However, since the high-voltage side and the low-voltage side of the core may correspond in whole or in part, the overlapping parts of the markings of the low-voltage core and the high-voltage core may be omitted to make the displayed core sheet diagram more concise.

[0004] Now, faced with huge amounts of drawing annotation data, we need to rely on manual screening to determine which data needs to be removed and which needs to be retained. The processing pressure is high, and the accuracy of the data is difficult to guarantee. Summary of the invention

[0005] In view of the above-mentioned shortcomings of the prior art, an object of the present invention is to provide a method, system and storage medium for generating core sheet type data to solve one or more problems in the prior art.

[0006] To achieve the above object, the technical solution of the present invention is as follows: A method for generating core sheet type data comprises the following steps: Obtaining core basic parameters, wherein the core basic parameters include the number of high-voltage side stages, the number of low-voltage side stages, and the width and thickness of each stage; Determine a first target group and a second target group according to the number of high-voltage side stages and the number of low-voltage side stages, wherein the first target group is a summary of the core levels corresponding to the necessary sheet width markings, and the second target group is a summary of the core level combinations corresponding to the required longitudinal step thicknesses; Generate a corresponding slice width number set according to the level and slice width corresponding to the first target group; Generate a corresponding longitudinal level thickness number set according to the level, slice width and slice thickness corresponding to the second target group; Generate single-level thickness data corresponding to each level according to the longitudinal level thickness number set and the slice thickness of each level, filter all single-level thickness data and summarize them into a single-level thickness number set, wherein the thickness of the low-pressure side level corresponding to any single-level thickness data in the single-level thickness number set is different from the thickness of the corresponding level on the high-pressure side; The slice width number set, longitudinal level thickness number set and single level thickness number set are summarized into a labeling parameter set.

[0007] Further, the step of confirming the first target group according to the number of high-pressure side stages and the number of low-pressure side stages comprises the following steps: Determine whether the number of stages on the high-pressure side is greater than that on the low-pressure side. If the number of stages on the high-pressure side is greater than that on the low-pressure side, then all stages on the high-pressure side and the small stage on the low-pressure side are taken as the first target group; If the number of stages on the high-pressure side is equal to the number of stages on the low-pressure side, each stage on the high-pressure side is taken as the first target group.

[0008] Further, the second target group is confirmed according to the number of high-pressure side stages and the number of low-pressure side stages, comprising the following steps: Determine whether the number of stages on the high-pressure side is greater than that on the low-pressure side. If the number of stages on the high-pressure side is greater than that on the low-pressure side, the level on the high-pressure side that is more than the low-pressure side is defined as the second level, the same level on the high-pressure side and the low-pressure side is defined as the first level, and the combination of each level of the first level with the corresponding level on the low-pressure side and the combination of each level of the second level with the small level on the low-pressure side are collectively regarded as the second target group; If the number of high-pressure side stages is equal to the number of low-pressure side stages, the combination of each stage on the high-pressure side to the corresponding stage on the low-pressure side is taken as the second target group.

[0009] Further, before confirming the first target group and the second target group according to the high-pressure side stage number and the low-pressure side stage number, the following steps are included: Determine whether the number of stages on the high-pressure side is less than that on the low-pressure side. If the number of stages on the high-pressure side is less than that on the low-pressure side, an alarm is issued; If the number of stages on the high-pressure side is greater than or equal to the number of stages on the low-pressure side, then determine whether the width of the high-pressure side sheet and the width of the low-pressure side sheet are arranged in order from large to small. If the width of the high-voltage side and the width of the low-voltage side are arranged in descending order, the core drawing parameters are generated according to the core basic parameters. If the width of the high-pressure side sheets is not arranged in order from large to small or the width of the low-pressure side sheets is not arranged in order from large to small, an alarm is issued.

[0010] Further, all single-level thickness data are filtered and aggregated into a single-level thickness data set, including the following steps: Determine in turn whether the single-level thickness data of each layer on the high-pressure side is the same as the corresponding single-level thickness data of the low-pressure side layer. If they are the same, the corresponding single-level thickness data of the low-pressure side layer will be deleted; If they are not the same, the corresponding single-level thickness data of the low-pressure side layer will be retained.

[0011] Furthermore, the step of generating a corresponding slice width number set according to the level and slice width corresponding to the first target group includes the following steps: Obtain core cross-section data, and obtain corresponding core cross-section parameters from the core cross-section data according to the first target group, Determine a first annotation length corresponding to the level according to the level corresponding to the first target group and a preset first interval, Generate the first limit parameter based on the core section parameters and the corresponding sheet width, A slice width number set is generated according to the first limit parameter and the corresponding first annotation length.

[0012] Furthermore, the step of generating a corresponding longitudinal level thickness number set according to the level, slice width and slice thickness corresponding to the second target group includes the following steps: According to the second target group, corresponding core section parameters are obtained from the core section data, Determine a second annotation length corresponding to the level according to the level corresponding to the second target group and a preset second interval, Generate the first limit parameter based on the core section parameters and the corresponding sheet width and thickness. A longitudinal level thickness number set is generated according to the second limit parameter and the corresponding second annotation length.

[0013] The present invention also discloses a core sheet type data generation system, comprising: Data acquisition module, used to obtain core basic parameters; A target confirmation module, used for confirming a first target group and a second target group according to the number of high-pressure side stages and the number of low-pressure side stages; A first calculation module, used for generating a corresponding sheet width number set according to the core basic parameters of the layer corresponding to the first target group; A second calculation module, used to generate a corresponding longitudinal level thickness number set according to the core foundation parameters of the level corresponding to the second target group; The third calculation module is used to generate the single-level thickness data corresponding to each level according to the longitudinal level thickness data set and the slice thickness of each level. A filtering module is used to filter all single-level thickness data and aggregate them into a single-level thickness data set; The summary module is used to summarize the slice width number set, the longitudinal level thickness number set and the single level thickness number set into a labeling parameter set.

[0014] The present invention also discloses a computer-readable storage medium, wherein the computer-readable storage medium stores computer-executable instructions, and the computer-executable instructions are used to enable a computer to execute the above-mentioned method for generating core sheet type data.

[0015] Compared with the prior art, the beneficial technical effects of the present invention are as follows: The sheet width data set, longitudinal level thickness data set and single level thickness data set are automatically generated according to the core basic data, which not only has high data generation efficiency but also ensures data accuracy.

[0016] The slice width data set, longitudinal level thickness data set and single level thickness data set reduce duplicate data during the generation process and simplify the subsequent slice shape diagram. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 The overall logic block diagram of a core piece type data generation method provided by the present invention is shown.

[0018] Figure 2 A logic block diagram of the method for determining the first target group provided by the present invention is shown.

[0019] Figure 3 A logic block diagram of the method for determining the second target group provided by the present invention is shown.

[0020] Figure 4 A schematic diagram of the core cross section including the sheet width annotation is shown.

[0021] Figure 5 A schematic diagram of the core cross section including longitudinal step thickness markings is shown.

[0022] Figure 6 A schematic diagram of a core cross section including a single-level thickness annotation is shown. Implementation

[0023] A method for generating core sheet data, such as Figure 1 As shown, the following steps are included: S100, obtaining basic parameters of the core.

[0024] The basic parameters of the core include the number of high-voltage side stages, the number of low-voltage side stages, and the width and thickness of each stage.

[0025] The core is composed of multiple levels of silicon steel sheet groups stacked together. The sheet width of each level of silicon steel sheet group gradually decreases from the middle of the core to the sides, that is, the sheet width of the middle level of the core is the largest, which is defined as the main level. The core parts on both sides of the main level are the high-voltage side core and the low-voltage side core. The last level on the high-voltage side and the last level on the low-voltage side are both defined as the small level.

[0026] S200, confirming a first target group and a second target group according to the number of high-pressure side stages and the number of low-pressure side stages.

[0027] The first target group is a summary of the core levels corresponding to the necessary sheet width markings, and the second target group is a summary of the core level combinations corresponding to the required longitudinal step thicknesses.

[0028] In the core industry, it is generally required that the number of high-voltage side cores is greater than or equal to the number of low-voltage side cores, and when the number of high-voltage side cores is equal to the number of low-voltage side cores, the high-voltage side cores and the low-voltage side cores correspond to each other step by step, and the shapes of the silicon steel sheets constituting the corresponding high-voltage side cores and low-voltage side cores are the same; and when the number of high-voltage side cores is greater than the number of low-voltage side cores, the low-voltage side cores still correspond one-to-one with part of the high-voltage side cores, and the remaining high-voltage side cores that do not correspond to the low-voltage side cores are small levels and cores stacked on the small levels in sequence.

[0029] It can be seen that no matter whether the number of high-voltage side stages is greater than that of low-voltage side stages, the lamination width marking of the low-voltage side core is repeated with the lamination width marking of the high-voltage side core. Therefore, the lamination diagram can be simplified by reducing the marking of the low-voltage side core.

[0030] Specifically, the first target group is determined according to the number of high-pressure side stages and the number of low-pressure side stages, see Figure 2 , including the following steps: S210, determining whether the number of stages on the high-pressure side is greater than the number of stages on the low-pressure side.

[0031] S220: If the number of high-pressure side stages is greater than that of low-pressure side stages, all stages on the high-pressure side and the small stage on the low-pressure side are taken as the first target group.

[0032] S230: If the number of stages on the high-pressure side is equal to the number of stages on the low-pressure side, each stage on the high-pressure side is taken as the first target group.

[0033] When the number of high-voltage side stages is equal to the number of low-voltage side stages, the sheet width markings of all low-voltage side cores are omitted, and workers can understand the sheet width markings of the low-voltage side cores of the corresponding stages based on the sheet width markings of the high-voltage side cores.

[0034] When the number of high-voltage side stages is greater than the number of low-voltage side stages, although the sheet width marking of the high-voltage side core also includes the sheet width marking of all low-voltage side cores, if all low-voltage side markings are omitted, workers will not be able to directly understand whether the current number of high-voltage side stages is greater than the number of low-voltage side stages through markings. After adding the low-voltage side small stage to the first target group, workers can not only intuitively understand from the corresponding core sheet diagram that the number of high-voltage side stages is greater than the number of low-voltage side stages, but also directly see which high-voltage side stage corresponds to the low-voltage side small stage, and determine which extra high-voltage side cores there are.

[0035] The longitudinal step thickness is the thickness between the low-voltage side core and the corresponding high-voltage side core. Confirm the second target group based on the high-voltage side step number and the low-voltage side step number, see Figure 3 , including the following steps: S240, determining whether the number of stages on the high-pressure side is greater than the number of stages on the low-pressure side.

[0036] S250. If the number of levels on the high-pressure side is greater than that on the low-pressure side, the level on the high-pressure side that is more than the low-pressure side is defined as the second level, the same level on the high-pressure side and the low-pressure side is defined as the first level, and the combination of each level of the first level with the corresponding level on the low-pressure side and the combination of each level of the second level with the small level on the low-pressure side are collectively taken as the second target group.

[0037] S260: If the number of stages on the high-pressure side is equal to the number of stages on the low-pressure side, the combination of each stage on the high-pressure side to the corresponding stage on the low-pressure side is taken as the second target group.

[0038] The determination of the first target group can be regarded as selecting one from a first range including only the number of high-pressure side stages and a second range including the number of high-pressure side stages and the number of low-pressure side stages according to whether the number of high-pressure side stages is greater than the number of low-pressure side stages. Although the judgment condition of the second target group is also to judge whether the number of high-pressure side stages is greater than the number of low-pressure side stages, due to the difference in the total number of iron core stages and whether the number of high-pressure side stages is the same as the number of low-pressure side stages, the actual determination process of the second target group will be more complicated than the determination of the first target group.

[0039] When the number of high-voltage side stages is equal to the number of low-voltage side stages, each high-voltage side core has a corresponding low-voltage side core. For example, the high-voltage side cores H1, H2, and H3 correspond to the low-voltage side cores L1, L2, and L3, respectively. The longitudinal thickness between the three pairs of core layer groups from H1 to L1, H2 to L2, and H3 to L3 needs to be marked.

[0040] When the number of high-voltage side stages is greater than the number of low-voltage side stages, there will be several high-voltage side cores without corresponding low-voltage side cores. After defining these high-voltage side cores as the second level, specify the low-voltage side small level as the corresponding level of the second-level core, so that the thickness of this level group can also be marked. For example, the high-voltage side cores have H1, H2 and H3, while the low-voltage side cores have only L1 and L2, and L2 is the small level, then H1 and L1, H2 and L2 are the corresponding levels respectively, H3 is the second level and is bound to L2.

[0041] S300: Generate a corresponding slice width number set according to the core basic parameters of the level corresponding to the first target group.

[0042] The sheet width data set is used to mark the sheet width of the corresponding layer core. The various annotations of the core need to be displayed in conjunction with the core cross-section diagram. For easy positioning, the data related to the core cross-section diagram is required in the generation process of the annotation.

[0043] Specifically, generating a corresponding sheet width number set according to the core basic parameters of the level corresponding to the first target group includes the following steps: S310, obtaining core cross-section data, and obtaining corresponding core cross-section parameters from the core cross-section data according to the first target group.

[0044] S320: Determine a first annotation length corresponding to the level according to the level corresponding to the first target group and a preset first interval.

[0045] S330, generating a slice width annotation parameter according to the core cross-section parameter, the corresponding core basic parameter and the first annotation length, and all the slice width annotation parameters constitute a slice width number set.

[0046] The core section data includes multiple cross-sectional coordinate sets, each of which corresponds to a certain level of the core, and each cross-sectional coordinate set has two diagonal coordinates, and the two diagonal coordinates under the same cross-sectional coordinate set correspond to the two diagonal endpoints of the core at the corresponding level.

[0047] The core cross-section data can be manually input by the staff or calculated based on the core basic parameters. For example, if the center point of the main stage is the origin of the two-dimensional coordinate system, the diagonal coordinates corresponding to the two diagonal points of the main stage can be calculated based on the thickness and width of the main stage. Similarly, the diagonal coordinates of other levels can be calculated.

[0048] The core cross-section parameters acquired in step S310 are the horizontal coordinates of the diagonal coordinates in the core cross-section data.

[0049] The preset first interval is set by the staff and must be larger than the size of the marked text. The level of the main stage is 1, and the levels increase gradually from the main stage to the small stage on the high-pressure side or the small stage on the low-pressure side.

[0050] The sheet width annotation parameters include two dimension boundary coordinates and one sheet width text coordinate. The sheet width boundary coordinate is related to the sheet thickness and core section parameters of the corresponding level, and the sheet width text coordinate is related to the core section parameters and the first annotation length.

[0051] Specifically, Figure 4 As shown, the midpoint of the left sideline of the main stage is the origin of the two-dimensional coordinate system, the width direction of the main stage is the horizontal axis of the two-dimensional coordinate system, and the thickness direction of the main stage is the vertical axis of the two-dimensional coordinate system. The sheet width annotation parameters can be divided into high-pressure side sheet width annotation parameters and low-pressure side sheet width annotation parameters.

[0052] The horizontal coordinates of the two sheet width limit coordinates of the high-voltage side core are respectively the same as the horizontal coordinates of the two diagonal coordinates of the corresponding level core, and the vertical coordinates of the sheet width limit coordinates are the negative value of the thickness of the current level of the high-voltage side plus the total thickness of the previous level. The horizontal coordinate of the sheet width text coordinate is the middle value of the horizontal coordinates of the two sheet width limit coordinates, and the vertical coordinate is the negative value of the first marked length. The total thickness of the previous level refers to the distance in the longitudinal direction from the origin to the edge of the current level. In this embodiment, the total thickness of the previous level is half of the main level thickness plus the sum of the thicknesses of each level between the current level and the main level.

[0053] The horizontal coordinates of the two sheet width limit coordinates of the low-voltage side core are the same as the horizontal coordinates of the two diagonal coordinates of the corresponding level core, and the vertical coordinates of the sheet width limit coordinates are the total thickness of the current level of the low-voltage side plus the previous level. The horizontal coordinate of the sheet width text coordinate is the middle value of the horizontal coordinates of the two sheet width limit coordinates, and the vertical coordinate is the first marked length.

[0054] S400, generating a corresponding longitudinal level thickness number set according to the core basic parameters of the level corresponding to the second target group.

[0055] The longitudinal thickness also needs to be marked on the core cross-section diagram. Figure 5 It can be seen that the marking of longitudinal thickness is similar to the marking of slice width.

[0056] Specifically, generating a corresponding longitudinal level thickness number set according to the core basic parameters of the level corresponding to the second target group includes the following steps: S410, obtaining core section parameters of a preset level from core section data.

[0057] S420: Determine a second annotation length corresponding to the level according to the level corresponding to the second target group and a preset second interval.

[0058] S430, generating a longitudinal level thickness number set according to the core cross-section parameters of the preset level, the corresponding second annotation length and the core basic parameters.

[0059] The core section parameters of the preset level acquired in step S410 are the diagonal coordinates of the main level in the core section data.

[0060] The preset second interval is set by the staff and must be larger than the size of the marked text. The level of the main stage is 1, and the levels increase gradually from the main stage to the small stage on the high-pressure side or the small stage on the low-pressure side.

[0061] The vertical thickness data set includes multiple thickness annotation parameters, which are also composed of three coordinate points, including two thickness limit coordinates and one thickness text coordinate. The thickness annotation parameters can be divided into the main thickness annotation parameters and other thickness annotation parameters.

[0062] Specifically, it is still assumed that the midpoint of the left sideline of the main stage is the origin of the two-dimensional coordinate system, the width direction of the main stage is the horizontal axis of the two-dimensional coordinate system, and the thickness direction of the main stage is the vertical axis of the two-dimensional coordinate system.

[0063] The horizontal coordinates of the two level thickness boundary coordinates of the main level are both the horizontal coordinates of the endpoint coordinates on the right side of the main level, which is the main level film width in this embodiment. The two vertical coordinates are the vertical coordinates of the two diagonal endpoints of the main level. The horizontal coordinate of the level thickness text coordinate of the main level is the sum of the horizontal coordinate of the endpoint coordinate on the right side of the main level and the second annotation length, and the vertical coordinate is 0.

[0064] The horizontal coordinates of the two level thickness limit coordinates of other level thickness annotation parameters are the difference between the previous level horizontal coordinate minus the previous level sheet width and the current level sheet width. The vertical coordinate of the level thickness limit coordinate on the low-pressure side is the sum of the previous level vertical coordinate and the current level low-pressure side sheet thickness, and the vertical coordinate of the level thickness limit coordinate on the high-pressure side is the sum of the previous level vertical coordinate and the negative number of the current level high-pressure side sheet thickness. The horizontal coordinate of the level thickness text coordinate is the sum of the previous level horizontal coordinate and the second annotation length, and the vertical coordinate is 0.

[0065] S500 , generating single-level thickness data corresponding to each level according to the longitudinal level thickness data set and each level slice thickness, filtering all single-level thickness data and summarizing them into a single-level thickness data set.

[0066] The thickness of the low-pressure side stage corresponding to any single-stage thickness data in the single-stage thickness data set is different from the thickness of the corresponding stage on the high-pressure side.

[0067] Single-stage thickness data is used to mark the thickness of single-stage core.

[0068] Single-level thickness data includes two thickness limit coordinates and one thickness text coordinate. Figure 6 , the thickness limit coordinates and thickness text coordinates of the same level core share the same horizontal coordinate, and the horizontal coordinate is the horizontal coordinate of the level thickness limit coordinate corresponding to the level. Therefore, for the convenience of calculation, the generation of single-level thickness data should be placed after the generation of longitudinal level thickness.

[0069] The specific calculation method is: It is still assumed that the midpoint of the left sideline of the main stage is the origin of the two-dimensional coordinate system, the width direction of the main stage is the horizontal axis of the two-dimensional coordinate system, and the thickness direction of the main stage is the vertical axis of the two-dimensional coordinate system.

[0070] The ordinate of one thickness limit coordinate of the high-voltage side core is the ordinate of the thickness limit coordinate corresponding to the level, the ordinate of the other thickness limit coordinate is the ordinate of the thickness limit coordinate corresponding to the level minus the corresponding sheet thickness, and the ordinate of the thickness text coordinate is the ordinate of the thickness limit coordinate corresponding to the level minus the corresponding sheet thickness minus the preset distance. The preset distance is set by the staff and needs to be larger than the size of the marked text.

[0071] The ordinate of one thickness limit coordinate of the low-voltage side iron core is the ordinate of the level thickness limit coordinate corresponding to the level, the ordinate of another thickness limit coordinate is the ordinate of the level thickness limit coordinate corresponding to the level plus the corresponding sheet thickness, and the ordinate of the thickness text coordinate is the ordinate of the level thickness limit coordinate corresponding to the level plus the corresponding sheet thickness plus a preset distance.

[0072] Further, all single-level thickness data are filtered and aggregated into a single-level thickness data set, including the following steps: S510 , determining in sequence whether the single-level thickness data of each level on the high-pressure side is the same as the single-level thickness data of the corresponding level on the low-pressure side.

[0073] S520: If the single-level thickness data of a certain level on the high-pressure side is the same as the single-level thickness data of the corresponding level on the low-pressure side, the single-level thickness data of the corresponding level on the low-pressure side is deleted.

[0074] S530: If the single-level thickness data of a certain level on the high-pressure side is different from the single-level thickness data of the corresponding level on the low-pressure side, the single-level thickness data of the corresponding level on the low-pressure side is retained.

[0075] The filtering of the single-level thickness data set is to filter out the single-level thickness data on the low-pressure side corresponding to the case where the thickness of the low-pressure side layer is different from the corresponding thickness of the high-pressure side layer.

[0076] S600, summarizing the slice width number set, the longitudinal level thickness number set and the single level thickness number set into a labeling parameter set.

[0077] Of course, in actual use, according to special needs, such as marking the slice width, slice thickness and longitudinal level thickness individually or in combination of two, it is also possible not to summarize them, but to store or apply the slice width number set, longitudinal level thickness number set and single level thickness number set independently.

[0078] In addition, since the core basic parameters in step S100 are often manually entered, there may be data input errors or omissions, so it is necessary to check the correctness of the data before conducting subsequent calculations.

[0079] Before confirming the first target group and the second target group according to the number of high-pressure side stages and the number of low-pressure side stages, the following steps are included: S110, determining whether the number of stages on the high-pressure side is smaller than the number of stages on the low-pressure side.

[0080] S120. If the number of levels on the high-pressure side is less than that on the low-pressure side, an alarm is issued.

[0081] S130, if the number of stages on the high-pressure side is greater than or equal to the number of stages on the low-pressure side, determine whether the width of the high-pressure side sheet and the width of the low-pressure side sheet are arranged in order from large to small.

[0082] S140. If the width of the high-voltage side sheet and the width of the low-voltage side sheet are arranged in descending order, core drawing parameters are generated according to the core basic parameters.

[0083] S150: If the widths of the sheets on the high-pressure side are not arranged in descending order or the widths of the sheets on the low-pressure side are not arranged in descending order, an alarm is issued.

[0084] The industry stipulates that the number of high-voltage side stages must be greater than or equal to the number of low-voltage side stages, and the width of the core must gradually decrease from the main stage to the high-voltage side small stage and from the main stage to the low-voltage side small stage. Therefore, when the analysis of the core basic parameters shows that the regulations are violated, it means that there may be problems with the core basic parameters, and further manual inspection is required. Of course, there is no clear order of these judgments. This embodiment only shows a judgment logic, and the order can be adjusted according to actual needs or judgments can be made in parallel.

[0085] Of course, in addition to the above-mentioned error conditions, errors in the basic parameters of the core also include negative values ​​of sheet thickness, sheet width, and missing data corresponding to a certain level. However, the judgment of these errors is relatively simple and can be directly substituted into the above-mentioned judgment logic, so I will not repeat them here.

[0086] The present invention also discloses a core sheet type data generation system, comprising: The data acquisition module is used to obtain the basic parameters of the core.

[0087] The target confirmation module is used to confirm the first target group and the second target group according to the number of high-pressure side stages and the number of low-pressure side stages.

[0088] The first calculation module is used to generate a corresponding slice width number set according to the core basic parameters of the layer corresponding to the first target group.

[0089] The second calculation module is used to generate a corresponding longitudinal level thickness number set according to the core basic parameters of the layer corresponding to the second target group.

[0090] The third calculation module is used to generate single-level thickness data corresponding to each level according to the longitudinal level thickness number set and the slice thickness of each level.

[0091] The filtering module is used to filter all single-level thickness data and aggregate them into a single-level thickness data set.

[0092] The summary module is used to summarize the slice width number set, the longitudinal level thickness number set and the single level thickness number set into a labeling parameter set.

[0093] The present invention also discloses a computer-readable storage medium, wherein the computer-readable storage medium stores computer-executable instructions, and the computer-executable instructions are used to enable a computer to execute the above-mentioned method for generating core sheet type data.

[0094] The technical features of the above-described embodiments may be arbitrarily combined. To make the description concise, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0095] The above-mentioned embodiments only express several implementation methods of the present invention, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the scope of the invention patent. It should be pointed out that, for ordinary technicians in this field, several variations and improvements can be made without departing from the concept of the present invention, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the patent of the present invention shall be subject to the attached claims.

Claims

1. A method for generating core sheet type data, characterized in that: The following steps are involved: Obtaining core basic parameters, wherein the core basic parameters include the number of high-voltage side stages, the number of low-voltage side stages, and the width and thickness of each stage; Determine a first target group and a second target group according to the number of high-voltage side stages and the number of low-voltage side stages, wherein the first target group is a summary of the core levels corresponding to the necessary sheet width markings, and the second target group is a summary of the core level combinations corresponding to the required longitudinal step thicknesses; Generate a corresponding sheet width number set according to the core basic parameters of the level corresponding to the first target group; Generate a corresponding longitudinal level thickness number set according to the core foundation parameters of the level corresponding to the second target group; Generate single-level thickness data corresponding to each level according to the longitudinal level thickness number set and the slice thickness of each level, filter all single-level thickness data and summarize them into a single-level thickness number set, wherein the thickness of the low-pressure side level corresponding to any single-level thickness data in the single-level thickness number set is different from the thickness of the corresponding level on the high-pressure side; The slice width number set, longitudinal level thickness number set and single level thickness number set are summarized into a labeling parameter set.

2. A method for generating core piece type data according to claim 1, characterized in that: The step of confirming the first target group according to the number of high-pressure side stages and the number of low-pressure side stages comprises the following steps: Determine whether the number of stages on the high-pressure side is greater than that on the low-pressure side. If the number of stages on the high-pressure side is greater than that on the low-pressure side, then all stages on the high-pressure side and the small stage on the low-pressure side are taken as the first target group; If the number of stages on the high-pressure side is equal to the number of stages on the low-pressure side, each stage on the high-pressure side is taken as the first target group.

3. The method for generating core piece type data according to claim 1, characterized in that: The step of confirming the second target group according to the number of high-pressure side stages and the number of low-pressure side stages comprises the following steps: Determine whether the number of stages on the high-pressure side is greater than that on the low-pressure side. If the number of stages on the high-pressure side is greater than that on the low-pressure side, the level on the high-pressure side that is more than the low-pressure side is defined as the second level, the same level on the high-pressure side and the low-pressure side is defined as the first level, and the combination of each level of the first level with the corresponding level on the low-pressure side and the combination of each level of the second level with the small level on the low-pressure side are collectively regarded as the second target group; If the number of high-pressure side stages is equal to the number of low-pressure side stages, the combination of each stage on the high-pressure side to the corresponding stage on the low-pressure side is taken as the second target group.

4. The method for generating core piece type data according to claim 1, characterized in that: Before confirming the first target group and the second target group according to the number of high-pressure side stages and the number of low-pressure side stages, the following steps are included: Determine whether the number of stages on the high-pressure side is less than that on the low-pressure side. If the number of stages on the high-pressure side is less than that on the low-pressure side, an alarm is issued; If the number of stages on the high-pressure side is greater than or equal to the number of stages on the low-pressure side, then determine whether the width of the high-pressure side sheet and the width of the low-pressure side sheet are arranged in order from large to small. If the width of the high-voltage side and the width of the low-voltage side are arranged in descending order, the core drawing parameters are generated according to the core basic parameters. If the width of the high-pressure side sheets is not arranged in order from large to small or the width of the low-pressure side sheets is not arranged in order from large to small, an alarm is issued.

5. The method for generating core piece type data according to claim 1, characterized in that: Filtering all single-level thickness data and summarizing them into a single-level thickness data set includes the following steps: Determine in turn whether the single-level thickness data of each layer on the high-pressure side is the same as the corresponding single-level thickness data of the low-pressure side layer. If they are the same, the corresponding single-level thickness data of the low-pressure side layer will be deleted; If they are not the same, the corresponding single-level thickness data of the low-pressure side layer will be retained.

6. The method for generating core piece type data according to claim 1, characterized in that: The step of generating a corresponding sheet width number set according to the core basic parameters of the layer corresponding to the first target group includes the following steps: Acquire core cross-section data, and acquire corresponding core cross-section parameters from the core cross-section data according to the first target group; Determine a first annotation length corresponding to the level according to the level corresponding to the first target group and a preset first interval; The sheet width annotation parameters are generated according to the core cross-section parameters, the corresponding core foundation parameters and the first annotation length, and all the sheet width annotation parameters constitute a sheet width number set.

7. A method for generating core piece type data according to claim 6, characterized in that: The step of generating a corresponding longitudinal level thickness number set according to the core basic parameters of the level corresponding to the second target group comprises the following steps: Obtaining core section parameters of a preset level from core section data; Determine a second annotation length corresponding to the level according to the level corresponding to the second target group and a preset second interval; A longitudinal level thickness number set is generated according to the core section parameters of the preset level, the corresponding second dimension length and the core foundation parameters.

8. A core sheet type data generation system, characterized in that: include: Data acquisition module, used to obtain core basic parameters; A target confirmation module, used for confirming a first target group and a second target group according to the number of high-pressure side stages and the number of low-pressure side stages; A first calculation module, used for generating a corresponding sheet width number set according to the core basic parameters of the layer corresponding to the first target group; A second calculation module, used to generate a corresponding longitudinal level thickness number set according to the core foundation parameters of the level corresponding to the second target group; The third calculation module is used to generate the single-level thickness data corresponding to each level according to the longitudinal level thickness data set and the slice thickness of each level. A filtering module is used to filter all single-level thickness data and aggregate them into a single-level thickness data set; The summary module is used to summarize the slice width number set, the longitudinal level thickness number set and the single level thickness number set into a labeling parameter set.

9. A computer-readable storage medium, characterized in that: The computer-readable storage medium stores computer-executable instructions, and the computer-executable instructions are used to enable a computer to execute a method for generating core sheet type data according to any one of claims 1 to 7.

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