Method for quickly modifying slider component based on three-dimensional software

Abstract

The invention provides a method for quickly modifying a slider component based on three-dimensional software, which comprises a model library and comprises the following steps: calling a main assembly model generation mode of the model library; obtaining a slide block variable value, wherein the slide block variable value at least comprises one of the following: a slide block type, a placement direction, a placement position and a slide block related size; according to the obtained sliding block variable value, a main assembly model is generated, and the main assembly model comprises a sliding block model and a plurality of sub-assembly models; calling a sub-assembly model generation mode of the model library; obtaining a sub-assembly variable value; according to the obtained sub-assembly variable value, updating a corresponding sub-assembly model on the main assembly model; time and energy can be effectively saved, and the working efficiency is improved.

Description

Technical Field

[0001] The invention relates to the field of mold design, and in particular to a method for quickly modifying a slider component based on three-dimensional software. Background Art

[0002] In order to facilitate product demoulding, a slider assembly is generally provided in the injection mold. The slider assembly generally includes a slider body, an inclined guide pin assembly, a pressure plate assembly, a slider lock block assembly, a back oil plate assembly and a bottom oil plate assembly.

[0003] In order to facilitate the design and modification of slider components, a slider component model library is generally established in the 3D software. Users can call slider components with similar structures in the slider component model library and generate 3D models, and then optimize and modify the 3D models to obtain slider components that meet the design requirements.

[0004] In the slider component model library, the slider body, the bevel guide needle component, the pressure plate component, etc. are respectively expressed by multiple different types of models, resulting in a large number of parts in the model library. Various parts can be combined with each other to form a variety of different slider components, further increasing the data volume of the model library, which is not only not conducive to data management, maintenance and improvement, but also in the design process of the slider component, when a certain component such as the slider body switches to different types of models, the new model will directly replace the old model. Not only does the replacement process take a long time, but once the switch is made, the previous user's modifications to the model will be lost, which will cause the previous modification work to be wasted and the user needs to make modifications again, resulting in extended design time, and it is impossible to truly save the user's time and energy. Summary of the invention

[0005] The purpose of the present invention is to provide a method for quickly modifying a slider assembly based on three-dimensional software, which can effectively save time and energy and improve work efficiency.

[0006] In order to achieve the above-mentioned purpose, the present invention provides a method for quickly modifying a slider component based on three-dimensional software, including a model library, and the method includes:

[0007] Call the main assembly model generation mode of the model library;

[0008] Get the slider variable value, which includes at least one of the following: slider type, placement direction, placement position and slider related size;

[0009] Generate a main assembly model according to the obtained slider variable value, the main assembly model includes a slider model and several sub-assembly models;

[0010] Call the sub-assembly model generation mode of the model library;

[0011] Get subassembly variable value;

[0012] According to the obtained sub-assembly variable value, the corresponding sub-assembly model is updated on the main assembly model.

[0013] It can be seen from the above scheme that through the above settings, the user can first call the main assembly model production mode in the model library, and then enter or modify the slider variable value of the current slider model. The system will automatically match several suitable sub-assembly models according to the slider variable value, and express the slider model and several sub-assembly models in the main assembly model in the form of assembly; when it is necessary to modify one of the sub-assembly models, the user can first call the sub-assembly model generation mode that needs to be modified, and then enter or modify the sub-assembly variable value, the system will automatically update the corresponding sub-assembly model on the main assembly model, and the relevant parameters of the slider model previously entered or modified by the user will be automatically retained; when the user needs to modify another sub-assembly model, the same operation can be used, the system will automatically update the corresponding sub-assembly model on the main assembly model, and the previous user's modification of the previous sub-assembly model can be retained. The present invention can quickly call a suitable slider model and match a suitable sub-assembly model, and the user's previous modification operations will also be retained in the subsequent modification process, which is conducive to saving time and energy and improving work efficiency.

[0014] A further solution is that, in the process of generating the main assembly model according to the acquired slider variable value, the subassembly model matching the slider model in the model library is automatically called, and the subassembly models are all connected with the slider model.

[0015] It can be seen from the above scheme that, through the above settings, when the user selects a suitable slider model, the system automatically matches the appropriate sub-assembly model without the user having to design them one by one, which is conducive to improving design efficiency.

[0016] A further solution is that the model library includes a slider model population, the slider model population includes a plurality of design step features, the plurality of design step features can be combined to form a plurality of different types of slider models, and the plurality of different types of slider models each have a unique slider type number;

[0017] The method further includes a step of modifying the slider model, wherein the step of modifying the slider model includes:

[0018] Calling the master assembly model generation mode of the model library;

[0019] Obtaining a target slider variable value, wherein the target slider variable value includes a target slider type number;

[0020] According to the obtained target slider variable value, the slider model is updated on the main assembly model, and updating the slider model includes: restoring and displaying the corresponding design step features and suppressing other design step features.

[0021] It can be seen from the above scheme that, through the above settings, the switching between different types of slider models is mainly achieved by restoring or suppressing the driving design step features, which is convenient for retaining some of the modifications made by the user to the slider model in the early stage. This part of the modification can be parameter modifications other than those related to the slider model type, such as the size, position and other parameters of the slider model.

[0022] A further solution is that the several sub-assembly models include at least one of the following: an oblique guide pin assembly model, a pressure plate assembly model, a slider lock block assembly model, a back oil plate assembly model, a bottom oil plate assembly model and a slider spring assembly model, and the oblique guide pin assembly model, the pressure plate assembly model, the slider lock block assembly model, the back oil plate assembly model, the bottom oil plate assembly model and the slider spring assembly model are all cooperatively arranged on the slider model.

[0023] A further solution is that the oblique guide needle assembly model includes an oblique guide needle individual model and a plurality of different types of oblique guide needle support block individual models, and each oblique guide needle support block individual model has a unique support block type number;

[0024] The method further comprises:

[0025] Call the bevel guide needle assembly model generation mode;

[0026] Obtaining a subassembly variable value of the oblique guide needle assembly model, wherein the subassembly variable value includes a target support block type number;

[0027] According to the obtained sub-assembly variable value, the oblique guide needle assembly model is updated on the main assembly model, and updating the oblique guide needle assembly model includes: restoring and displaying the corresponding oblique guide needle support block individual model, and suppressing other types of oblique guide needle support block individual models.

[0028] It can be seen from the above scheme that through the above settings, different types of support blocks can be switched by modifying the support block type number, which has the advantages of simple and convenient operation, and different types of support blocks can realize the display or hiding of the model by restoring or suppressing. Compared with the replacement method in the prior art, it can save more time and energy. In addition, through suppression, the temporarily unneeded model can be implicitly retained and can be restored at any time when needed later.

[0029] A further solution is that each sub-assembly model contains several individual models; according to the obtained target sub-assembly variable value, when the target sub-assembly model is updated on the main assembly model, the parameter change of the target sub-assembly model can drive the parameter change of the individual models therein.

[0030] It can be seen from the above scheme that, through the above settings, when the target sub-assembly model is modified, the parameters of the individual models within it will be changed, ensuring that the two always maintain the latest and best coordination, reducing the process that users need to modify individual models separately, and has the advantages of simplifying operations, improving efficiency and design accuracy.

[0031] In a further embodiment, the method further comprises:

[0032] Call the target individual model generation mode;

[0033] Get the target individual variable value;

[0034] According to the obtained target individual variable value, the target individual model and its parameters are updated on the main assembly model. The parameter change of the target individual model will drive the parameter change of other individual models matched with it.

[0035] It can be seen from the above scheme that through the above settings, when necessary, the user can also modify the individual model. The modification of the individual model will lead to the change of parameters of the individual model that matches it, ensuring the correct coordination of each component, which is conducive to reducing the subsequent processes that users need to check and modify one by one, and is conducive to saving time and energy.

[0036] A further solution is that the main assembly model, the subassembly model and the individual model form a three-level model from top to bottom in sequence, and transfer parameters from top to bottom in sequence.

[0037] A further solution is that the model library is provided with a main interface and a model display area for displaying the model, and the main interface includes a display area, a call area and a variable value input area. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] Figure 1 It is a structural diagram of different types of slider models and their corresponding multiple sub-assembly models from a first perspective in a model library according to an embodiment of the present invention.

[0039] Figure 2 It is a structural diagram of different types of slider models and their corresponding multiple sub-assembly models from a second perspective in the model library of an embodiment of the present invention.

[0040] Figure 3 Schematic diagram of the design steps and features of three different types of slider models in an embodiment of the present invention.

[0041] Figure 4 It is a flowchart of an embodiment of the present invention.

[0042] Figure 5 It is a schematic diagram of the main interface and the model display area when the main assembly model generation mode is called in an embodiment of the present invention.

[0043] Figure 6It is a flowchart of the steps of modifying the slider model according to an embodiment of the present invention.

[0044] Figure 7 It is a flowchart of modifying the bevel guide needle assembly model according to an embodiment of the present invention.

[0045] Figure 8 It is a schematic diagram of the main interface when modifying the oblique guide needle assembly model according to an embodiment of the present invention.

[0046] Fig. 9 It is a schematic diagram of the main interface when modifying the pressure plate assembly model according to an embodiment of the present invention.

[0047] Fig.10 It is a schematic diagram of the main interface when modifying the slider lock block assembly model according to an embodiment of the present invention.

[0048] Fig.11 It is a schematic diagram of the main interface when modifying the back oil plate assembly model according to an embodiment of the present invention.

[0049] Fig.12 It is a schematic diagram of the main interface when modifying the bottom oil plate assembly model according to an embodiment of the present invention.

[0050] Fig.13 It is a schematic diagram of the main interface when modifying the slider spring assembly model according to an embodiment of the present invention.

[0051] Fig.14 It is a flowchart of modifying an individual model according to an embodiment of the present invention.

[0052] The present invention is further described below in conjunction with the accompanying drawings and embodiments. DETAILED DESCRIPTION

[0053] See also Figures 1 to 3 This embodiment provides a method for quickly modifying a slider component based on three-dimensional software. The method can be applied to NX software, Proe software, Creo software or Solidworks software, etc. NX software is preferred in this embodiment.

[0054] The method comprises a model library, which comprises an overall slider model and a plurality of subassembly models.

[0055] The overall slider model includes multiple design step features, which are the basic components for constructing a three-dimensional solid model. The design step features can be geometric shapes, such as stretching, rotation, etc., and the design step features can also be operations, such as fillets, chamfers, holes, etc. Several of the multiple design step features can be combined to form multiple different types of slider models 2. Different types of slider models 2 can have one or more of the same design step features, but the dimensional data implied in these same design step features can be different. This embodiment takes three different types of slider models 2 as examples, namely: B-type slider model 2a, F-type slider model 2b and G-type slider model 2c. Any one of the B-type slider model 2a, the F-type slider model 2b and the G-type slider model 2c can be combined with several sub-assembly models to form a main assembly model 1 according to the assembly relationship.

[0056] In this embodiment, the main assembly model 1 is a slider assembly model, and the plurality of subassembly models include at least one of the following: an oblique guide pin assembly model 3, a pressure plate assembly model 4, a slider lock block assembly model 5, a back oil plate assembly model 6, a bottom oil plate assembly model 7, and a slider spring assembly model 8. The oblique guide pin assembly model 3, the pressure plate assembly model 4, the slider lock block assembly model 5, the back oil plate assembly model 6, the bottom oil plate assembly model 7, and the slider spring assembly model 8 are all arranged on the slider model 2.

[0057] Each sub-assembly model includes several individual models. For example, the bevel guide needle assembly model 3 includes a bevel guide needle model 31, a plurality of different types of bevel guide needle support block models 32, and a plurality of screws. In the bevel guide needle assembly model 3, the bevel guide needle model 31, the bevel guide needle support block model 32, and the screws are all individual models.

[0058] The main assembly model 1, subassembly model and individual model of this embodiment form a three-level model from top to bottom, and transfer parameters from top to bottom. That is, when the parameters of the main assembly model 1 change, the parameters of the subassembly model will change; when the parameters of the subassembly model change, the parameters of the individual model therein will change. The parameters of this embodiment include data such as the shape structure, size and position of the model.

[0059] See also Figure 4 and Figure 5 , and combined with Figure 1 and Figure 2The model library is provided with a main interface 10 and a model display area 20. The main interface 10 includes a display area 101, a call area 102 and a variable value input area 103. The user can call the main assembly model generation mode, each sub-assembly model generation mode and the personal model generation mode in the call area 102. The user can input or modify the relevant data in the variable value input area 103; the display area 101 is used to display the modification reference diagram, the purpose is to help the user quickly understand the meaning of each variable name in the variable value input area. The model display area 20 is used to display the generated main assembly model 1, and can also display the sub-assembly model or individual model separately. The model display area 20 is the graphics window of the three-dimensional software.

[0060] This embodiment provides a method for quickly modifying a slider component based on three-dimensional software, comprising the following steps:

[0061] S1: calling the main assembly model generation mode of the model library. The user can select "slider combination" in the calling area 102 of the main interface 10, and the display area 101 of the main interface 10 will display the coordinate system, the three slider models 2a / 2b / 2c and the initial position of the slider model 2 in the coordinate system.

[0062] S2: Get the slider variable value, which includes at least one of the following: slider type, placement direction, placement position and slider related dimensions. The user can enter or select a specific variable value in the variable value input area 103 of the main interface 10. The slider variable value can be entered by the user or automatically calculated by the system according to the current parameters of the slider; when automatically calculated, the corresponding variable value in the variable value input area 103 will be displayed as a negative number, which is convenient for distinguishing it from other positive numbers entered by the user, such as "-1". Figures 8 to 13 In the example, the “-1” displayed in the variable value input area 103 represents automatic calculation, which will not be described in detail here.

[0063] S3: According to the obtained slider variable value, a main assembly model 1 is generated and displayed in the model display area 20. At this time, the main assembly model 1 includes one slider model and a plurality of different sub-assembly models matching the slider model.

[0064] After the main assembly model 1 is generated, the user can carefully check whether the design meets the requirements or whether there are interference problems in the model display area 20. If the slider model does not meet the design requirements or there are interference problems, repeat the above steps S1, S2 and S3. If there is a problem with one of the sub-assembly models, continue to perform the following steps:

[0065] S4: Call the sub-assembly model generation mode of the model library. The user can select the target sub-assembly model in the calling area 102 of the main interface 10. The target sub-assembly model can be any one of the following: the oblique guide needle assembly model 3, the pressure plate assembly model 4, the slider lock block assembly model 5, the back oil plate assembly model 6, the bottom oil plate assembly model 7 and the slider spring assembly model 8. Figure 8 As shown, selecting "bevel guide needle assembly" will call the bevel guide needle component model generation mode.

[0066] S5: Obtain subassembly variable values. Different subassembly models have different subassembly variable values. The subassembly variable values ​​of this embodiment include variable names and variable values, and each variable name has a unique variable value. The subassembly variable values ​​can be automatically adapted according to the user's selection of the slider model in the main assembly model 1. The user can also further modify it according to the actual situation to generate a personalized subassembly model, and finally generate a main assembly model 1 that meets the design requirements.

[0067] like Figure 8 As shown, the subassembly variable value of the bevel guide needle assembly model includes at least one of the following: inch unit, bevel standard, interval, bevel type, bevel wall diameter, bevel number, bevel position and bottom position of plate A, etc. The user can enter or select a specific variable value in the variable value input area 103 of the main interface 10. If the user only modifies part of the subassembly variable value, the system automatically adapts the appropriate variable value for the subassembly variable value that has not been modified, and the variable value is represented by a negative number, such as "-1".

[0068] S6: According to the obtained sub-assembly variable value, the corresponding sub-assembly model is updated on the main assembly model to keep the main assembly model displayed in the model display area 20 up to date.

[0069] In the process of generating the main assembly model according to the obtained slider variable value, the system will automatically call each of the sub-assembly models matching the slider model in the model library, and each of the sub-assembly models is connected with the slider model.

[0070] After the main assembly model is updated, the user can carefully check whether the design meets the requirements or whether there are interference problems in the graphics window. If there is a problem with the slider model, repeat the above steps S1, S2 and S3; if there is a problem with other sub-assembly models, repeat the following steps S4, S5 and S6.

[0071] like Figure 3 , Figure 5 and Figure 6 As shown, combined with Figure 8 During the design process, if you need to modify the type of the slider module, you can perform the following steps, specifically:

[0072] The overall slider model includes three different types of slider models 2, namely, B-type slider model 2a, F-type slider model 2b and G-type slider model 2c. The three different types of slider models 2 each have a unique slider type number, where "B", "F" and "G" are slider type numbers.

[0073] The method for quickly modifying a slider component based on 3D software provided in this embodiment further includes a step of modifying a slider model. The step of modifying a slider model may be arranged after the above step S3, or after the above step S6. Specifically:

[0074] The steps to modify the slider model include:

[0075] S10: calling the main assembly model generation mode of the model library, the user can select “slider combination” in the calling area 102 of the main interface 10 .

[0076] S11: Obtain a target slider variable value, which includes a target slider type number. The user can click on the desired slider type number in the variable input area of ​​the main interface 10 .

[0077] S12: updating the slider model 2 on the main assembly model 1 according to the obtained target slider variable value, wherein updating the slider model 2 includes: restoring and displaying the corresponding design step features, and suppressing other design step features.

[0078] This embodiment restores or suppresses the design step features so that the main assembly model 1 contains only one slider model 2. Any modifications made to the slider model 2 by the user can be linked to other different types of slider models 2, avoiding the loss of modified parameters due to switching between different types of slider models 2.

[0079] Since the slider model 2 is the basis of the main assembly model 1, and the sub-assembly models are all installed on the slider model 2, in the process of modifying the type of the slider model 2, the update of the slider model 2 can also drive the linkage change of the associated parameters of the sub-assembly model, while the personalized parameters of the sub-assembly model can remain unchanged. The personalized parameter refers to the parameter that exists independently in the sub-assembly model, which is not directly associated with the slider model 2, such as the metric and American units and the standard data of the bevel edge in the bevel guide needle component model 3. The associated parameter refers to other parameters except the personalized parameter, and the change of the associated parameter will change with the change of its parent assembly. In order to meet special needs, the associated parameter also needs to be changed. When the variable value corresponding to the associated parameter is a negative number, such as "-1", its actual value will change with the change of the parent assembly; when the user changes the variable value from a negative number to a positive number, its actual value is the positive number.

[0080] For example, when the bevel diameter in the bevel guide needle assembly model 3 is "-1", the system will automatically match the appropriate bevel diameter according to the formula preset by the system; when the user changes "-1" to "10", the actual value of the variable is "10". The bevel diameter of this embodiment is the diameter of the bevel guide needle.

[0081] During the design process, if other subassembly models need to be modified, the above steps S4, S5 and S6 can be repeated.

[0082] The following is a detailed description using the oblique guide needle assembly model 3 as an example:

[0083] See also Figure 7 and Figure 8 , and combined with Figure 1 The oblique guide needle assembly model 3 includes an oblique guide needle individual model and multiple different types of oblique guide needle support block individual models. Each oblique guide needle support block individual model has a unique support block type number. The support block types of this embodiment include automatic matching, no support block, type A support block, type B support block and type C support block. The support block type numbers corresponding to automatic matching, no support block, type A support block, type B support block and type C support block are "-1", "0", "1", "2" and "3" respectively. It should be noted that "-1" and "automatic matching" mean that the system automatically adapts the appropriate support block according to the slider model 2 previously selected by the user. For example, the C-type support block will be automatically adapted for the G-type slider model. "No support block" and "0" mean that no support block is required in the main assembly model 1.

[0084] To modify the bevel guide needle assembly model 3, perform the following steps:

[0085] S20: Invoking the bevel guide needle assembly model generation mode. The user can select “bevel guide needle assembly” in the calling area 102 of the main interface 10 .

[0086] S21: Obtain the subassembly variable value of the bevel guide needle assembly model 3, which includes metric units, bevel standard, spacing, bevel type, bevel diameter, bevel quantity, bevel position, and bottom position of plate A, etc. The bevel type corresponds to the support block type, and the user can select the required support block type number here.

[0087] S22: updating the oblique guide needle assembly model 3 on the main assembly model according to the obtained sub-assembly variable value. Updating the oblique guide needle assembly model includes: restoring and displaying the corresponding oblique guide needle model, and suppressing other types of oblique guide needle support block individual models.

[0088] For example: when the user selects type "1" at "bevel type", when the bevel guide needle assembly model 3 is updated, the support block individual model of type "1" can be restored and displayed, and the support block individual models of types "-1", "0", "2" and "3" can be suppressed.

[0089] For a main assembly model 1 that includes multiple sub-assembly models, the user can check each sub-assembly model one by one and perform the above operations on the sub-assembly models that need to be modified, such as Figures 8 to 13 As shown, no further description is given here.

[0090] See also Fig.14 The method for quickly modifying a slider component based on three-dimensional software provided in this embodiment further includes:

[0091] During the design process, when the user needs to modify an individual model, the following steps can be performed:

[0092] S30: calling the target individual model generation mode. The user can select an individual model in any sub-assembly model as the target individual model in the calling area 102 of the main interface 10 .

[0093] S31: Obtain the target individual variable value. The user can modify the target individual variable value in the main interface 10.

[0094] S32: According to the obtained target individual variable value, the target individual model and its parameters are updated in the main assembly model. The parameter change of the target individual model will drive the parameter change of other individual models matched with it. The parameters include but are not limited to: shape structure, size and position data of the individual model.

[0095] In summary, it can be seen that, through the above settings, the present invention allows the user to first call the main assembly model production mode in the model library, and then input or modify the slider variable value of the current slider model. The system will automatically match several suitable sub-assembly models according to the slider variable value, and express the slider model and several sub-assembly models in the main assembly model in the form of assembly; when it is necessary to modify one of the sub-assembly models, the user can first call the sub-assembly model generation mode that needs to be modified, and then input or modify the sub-assembly variable value, the system will automatically update the corresponding sub-assembly model on the main assembly model, and the relevant parameters of the slider model previously input or modified by the user will be automatically retained; when the user needs to modify another sub-assembly model, the same operation can be used, the system will automatically update the corresponding sub-assembly model on the main assembly model, and the previous user's modification of the previous sub-assembly model can be retained. The present invention can quickly call a suitable slider model and match a suitable sub-assembly model, and the user's previous modification operations will also be retained in the subsequent modification process, which is conducive to saving time and energy and improving work efficiency.

[0096] Finally, it should be emphasized that the above are only preferred embodiments of the present invention and are not intended to limit the present invention. For those skilled in the art, the present invention may have various changes and modifications. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A method for quickly modifying a slider assembly based on three-dimensional software, including a model library, characterized in that: The method comprises: Calling the main assembly model generation mode of the model library; Obtaining a slider variable value, wherein the slider variable value includes at least one of the following: a slider type, a placement direction, a placement position, and a slider-related size; Generate a main assembly model according to the obtained slider variable value, wherein the main assembly model includes a slider model and a plurality of sub-assembly models; Call subassembly model generation mode; Get subassembly variable value; According to the obtained sub-assembly variable value, the corresponding sub-assembly model is updated on the main assembly model.

2. The method for quickly modifying a slider component based on three-dimensional software according to claim 1, characterized in that: In the process of generating the main assembly model according to the acquired slider variable value, the subassembly model matching the slider model in the model library is automatically called, and the subassembly model is connected with the slider model.

3. The method for quickly modifying a slider component based on three-dimensional software according to claim 1, characterized in that: The model library includes a slider model population, the slider model population includes a plurality of design step features, the plurality of design step features can be combined to form a plurality of different types of slider models, and the plurality of different types of slider models each have a unique slider type number; The method further comprises a step of modifying the slider model, wherein the step of modifying the slider model comprises: Calling the master assembly model generation mode of the model library; Obtaining a target slider variable value, wherein the target slider variable value includes a target slider type number; According to the obtained target slider variable value, the slider model is updated on the main assembly model, and updating the slider model includes: restoring and displaying the corresponding design step features and suppressing other design step features.

4. The method for quickly modifying a slider component based on three-dimensional software according to claim 1, characterized in that: Several of the sub-assembly models include at least one of the following: an oblique guide pin assembly model, a pressure plate assembly model, a slider lock block assembly model, a back oil plate assembly model, a bottom oil plate assembly model and a slider spring assembly model. The oblique guide pin assembly model, the pressure plate assembly model, the slider lock block assembly model, the back oil plate assembly model, the bottom oil plate assembly model and the slider spring assembly model are all arranged on the slider model.

5. The method for quickly modifying a slider component based on three-dimensional software according to claim 4, characterized in that: The oblique guide needle assembly model includes an oblique guide needle individual model and a plurality of different types of oblique guide needle support block individual models, each of the oblique guide needle support block individual models having a unique support block type number; The method further comprises: Call the bevel guide needle assembly model generation mode; Obtaining a subassembly variable value of the oblique guide needle assembly model, wherein the subassembly variable value includes a target support block type number; According to the obtained sub-assembly variable value, the oblique guide needle assembly model is updated on the main assembly model, and updating the oblique guide needle assembly model includes: restoring and displaying the corresponding oblique guide needle support block individual model, and suppressing other types of oblique guide needle support block individual models.

6. The method for quickly modifying a slider component based on three-dimensional software according to claim 1, characterized in that: Each of the subassembly models includes a number of individual models; According to the obtained target subassembly variable value, when the target subassembly model is updated on the main assembly model, the parameter change of the target subassembly model can drive the parameter change of the individual model therein.

7. The method for quickly modifying a slider component based on three-dimensional software according to claim 1, characterized in that: The method further comprises: Call the target individual model generation mode; Get the target individual variable value; According to the obtained target individual variable value, the target individual model and its parameters are updated on the main assembly model. The parameter change of the target individual model will drive the parameter change of other individual models matched with it.

8. The method for quickly modifying a slider assembly based on three-dimensional software according to claim 6 or 7, characterized in that: The main assembly model, the subassembly model and the individual model form a three-level model from top to bottom in sequence, and transfer parameters from top to bottom in sequence.

9. The method for quickly modifying a slider component based on three-dimensional software according to any one of claims 1 to 7, characterized in that: The model library is provided with a main interface and a model display area for displaying the model, and the main interface includes a display area, a call area and a variable value input area.

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