A method and system for arranging cable tray supports

Abstract

This invention discloses a method and system for arranging cable tray supports. The method includes the following steps: importing model configuration table information; creating cable channels and configuring cable trays to support them; selecting cable tray supports for the cable trays; calculating the maximum support spacing between the cable trays and their supports based on the model configuration table information; inputting cable tray support array parameters based on the maximum support spacing; selecting a starting point for the cable tray supports on the cable trays; and batch arranging the cable tray supports according to the array parameters and the starting point. This invention improves work efficiency by calculating the maximum support spacing between the cable trays and their supports based on the model configuration table information, inputting the cable tray support array parameters based on the maximum support spacing, and batch arranging the cable tray supports according to the array parameters and the starting point. It also avoids the tedious and laborious iterative design required later due to unsatisfactory mechanical verification.

Description

Technical Field

[0001] This invention relates to the field of nuclear power plant construction and design, and in particular to a method and system for arranging cable tray supports. Background Technology

[0002] To protect the safety-grade cables laid in the trays, cable trays in nuclear power plants require that the trays and their supports also meet seismic or impact resistance requirements. The shape, lever arm length, and other characteristics of each cable tray support affect the maximum weight it can bear; the number of cables in the tray and whether it is fireproofed also influence the real-time weight based on the cable density.

[0003] Existing technologies cannot quickly deploy cable tray supports or quickly determine whether the cable tray supports meet mechanical performance requirements, which affects work efficiency. When deploying cable tray supports in a 3D model, it is easy to cause the support spacing to be too close or too far, resulting in a large and cumbersome workload for subsequent iterative design due to mechanical verification. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to address at least one defect of the related technologies mentioned in the background: the existing technology cannot quickly deploy cable tray supports for nuclear power plants, which affects work efficiency. When deploying cable tray supports in a three-dimensional model, it is easy to cause the support spacing to be too close or too far, resulting in a large and cumbersome workload for subsequent iterative design due to mechanical verification.

[0005] The technical solution adopted by this invention to solve its technical problem is: a method for arranging cable tray supports, comprising the following steps: Import model configuration table information; Create cable channels and configure cable trays to carry the cable channels; Select a cable tray support for the cable tray; Calculate the maximum support spacing between the cable tray and the cable tray support based on the model configuration table information; Input the cable tray support array parameters according to the maximum support spacing; Select the starting point for setting the cable tray support; Based on the cable tray support array parameters and the set starting point, the cable tray supports are arranged in batches.

[0006] In some embodiments, the model configuration table information includes: a cable tray support mechanical curve configuration table, a cable tray full-load cable density weight configuration table, and a fireproof sheathing cable density configuration table; The mechanical curve configuration table for cable tray supports includes: cable tray support type, cable tray support shape, cable tray support profile length, and cable tray support maximum load. The cable tray full-load cable density and weight configuration table includes: tray width and full-load cable density; The fireproof coating linear density configuration table includes: fireproof coating type and fireproof coating density.

[0007] In some embodiments, the maximum support spacing between the cable tray and the cable tray support is calculated based on the model configuration table information, including: Calculate the cable tray line density based on the model configuration table information and the custom cable tray reference attributes; The maximum load of the selected cable tray support is obtained from the mechanical curve configuration table of the cable tray support information in the model configuration table. The maximum support spacing between the cable tray and the cable tray support is calculated based on the cable tray linear density and the maximum load of the cable tray support.

[0008] In some embodiments, the custom cable tray reference properties include the tray linear density, which is obtained by adding the full-load cable linear density, the fireproof sheathing linear density, and the tray linear density.

[0009] In some embodiments, creating a cable channel and configuring a cable tray to carry the cable channel includes: Create a cable channel and configure at least one layer of cable tray to carry the cable channel.

[0010] In some embodiments, a cable tray support is selected for the cable tray, including: Select the cable tray support style and configure the cable tray support parameters.

[0011] In some embodiments, the parameters of the cable tray support array include: the spacing between the cable tray support arrays and the number of cable tray support arrays.

[0012] In some embodiments, the arrangement operations in batch arranging cable tray supports include copying, deleting, flipping, and modifying the cable tray support array parameters.

[0013] In some embodiments, after the cable tray supports are arranged in batches, the following steps are also included: Calculate the actual load on the cable tray support, and determine whether the actual load meets the cable tray support layout requirements based on the actual load and the maximum load of the corresponding cable tray support.

[0014] Some embodiments of the present invention also disclose a system for arranging cable tray supports, including: an import module, a creation module, a selection module, a calculation module, an input module, and a batch arrangement module; The import module is used to import model configuration table information; Create a module to create cable channels and configure cable trays to carry the cable channels; Select a module to select a cable tray support for the cable tray; The calculation module is used to calculate the maximum support spacing between the cable tray and the cable tray support based on the information in the model configuration table; The input module is used to input the cable tray support array parameters according to the maximum support spacing and select the starting point for setting the cable tray support. The batch deployment module is used to deploy cable tray supports in batches according to the parameters of the cable tray support array and the set starting point.

[0015] By implementing this invention, the following beneficial effects are achieved: This invention calculates the maximum support spacing between cable trays and cable tray supports based on the model configuration table information, inputs the cable tray support array parameters according to the maximum support spacing, and arranges cable tray supports in batches according to the cable tray support array parameters and the set starting point, which improves work efficiency and avoids the large workload and tedious iterative design caused by subsequent failure of mechanical verification. Attached Figure Description

[0016] The present invention will be further described below with reference to the accompanying drawings and embodiments. In the accompanying drawings: Figure 1 A flowchart of an embodiment of the method for arranging cable tray supports according to the present invention is shown; Figure 2 A logical architecture diagram of an embodiment of the system for arranging cable tray supports according to the present invention is shown; Figure 3 The parameter input interface for arranging cable tray supports according to the present invention is shown. Detailed Implementation

[0017] To provide a clearer understanding of the technical features, objectives, and effects of the present invention, specific embodiments of the present invention will now be described in detail with reference to the accompanying drawings.

[0018] It should be noted that the flowcharts shown in the accompanying drawings are merely illustrative and do not necessarily include all content and operations / steps, nor do they necessarily have to be performed in the described order. For example, some operations / steps can be broken down, while others can be combined or partially combined; therefore, the actual execution order may change depending on the specific circumstances.

[0019] The block diagrams shown in the accompanying drawings are merely functional entities and do not necessarily correspond to physically independent entities. That is, these functional entities can be implemented in software, in one or more hardware modules or integrated circuits, or in different network and / or processor devices and / or microcontroller devices.

[0020] It should be noted that "at least two" refers to at least two, which can be two, three, or any number. "At least one" can be one, two, or any number. "At least one layer" can be one, two, or any number.

[0021] like Figure 1As shown, some embodiments of the present invention disclose a method for arranging cable tray supports, which is applied to integrated engineering software for collaborative design, such as CATIA. The method includes the following steps: S1 imports model configuration table information; S2 creates cable channels and configures cable trays to carry the cable channels; S3 selects the cable tray support for the cable tray; S4 calculates the maximum support spacing between the cable tray and the cable tray support based on the model configuration table information; S5 inputs the cable tray support array parameters based on the maximum support spacing; S6 selects the starting point for setting the cable tray support; S7 deploys cable tray supports in batches according to the cable tray support array parameters and the set starting point.

[0022] By implementing this embodiment, the following beneficial effects are achieved: This invention calculates the maximum support spacing between the cable tray and the cable tray support according to the model configuration table information, inputs the cable tray support array parameters according to the maximum support spacing, and arranges the cable tray supports in batches according to the cable tray support array parameters and the set starting point, thereby improving work efficiency and avoiding the large workload and tedious iterative design caused by subsequent failure of mechanical verification.

[0023] It should be noted that, in order to achieve the automatic layout function, the maximum load-bearing weight of the support and the linear density weight of the current cable tray are required through the model configuration table in order to calculate the maximum support spacing between the cable tray and the cable tray support. The information in the model configuration table needs to be fully maintained in advance and deployed locally or on a server.

[0024] In some embodiments, the model configuration table information includes: a cable tray support mechanical curve configuration table, a cable tray full-load cable density weight configuration table, and a fire-resistant sheathing cable density configuration table. The cable tray support mechanical curve configuration table includes: cable tray support type, cable tray support shape, cable tray support profile length, and cable tray support maximum load. The cable tray full-load cable density weight configuration table includes: tray width and full-load cable density; the fire-resistant sheathing cable density configuration table includes: fire-resistant sheathing type and fire-resistant sheathing density.

[0025] For example, the mechanical curve configuration table for cable tray supports is shown in Table 1: Table 1 Table 2 shows the cable density and weight configuration of a fully loaded cable tray. Table 2 The fireproof coating linear density configuration table is shown in Table 3: Table 3 Specifically, the original mechanical curves were calculated using mechanical simulation software. The X-axis represents the load weight, and the Y-axis represents the support spacing. The curves reflect the relationship between a certain type of cable tray support and its configuration. Table 1 shows the cable tray support configuration corresponding to the number of support arm layers. Cable tray support configuration 1 corresponds to one support arm layer. In the FR01 cable tray support type, its length is the shortest at 300mm, resulting in the shortest lever arm. Therefore, even in the simplest configuration, it can withstand a maximum load of 50kg. Cable tray support configuration 2 corresponds to two support arm layers. Due to the increased length of 400mm, the load decreases slightly under the action of two support arm layers. Cable tray support configuration 3 corresponds to three support arm layers, with a maximum length of 500mm. This usually leads to a significant decrease in load, but because it corresponds to three support arm layers, the load of 45kg is well maintained relative to the length change. The curve shows the relationship between support spacing and maximum load-bearing capacity, and the maximum load of the selected support can be calculated. The data in the cable tray full-load cable density weight configuration table is obtained by testing the full-load cable density when the cable tray of the corresponding width is fully loaded with cables. Generally, some coefficients are added to ensure design redundancy. Since fireproof covering is a standard component, the fireproof covering linear density weight information in the fireproof covering linear density configuration table is provided by the supplier or obtained through measurement. The information in the model configuration table for the three types of tables—the cable tray support mechanical curve configuration table, the cable tray full-load cable density weight configuration table, and the fireproof covering linear density configuration table—is crucial. It forms the basis for calculating the maximum support spacing of various types of cable tray supports and for determining whether the actual load of batch-arranged cable tray supports meets the cable tray support layout requirements. It should be noted that the data in the above tables is for illustrative purposes only and may also be other data.

[0026] In some embodiments, calculating the maximum support spacing between the cable tray and the cable tray support based on the model configuration table information includes: calculating the cable tray linear density based on the model configuration table information and the custom cable tray tray reference attributes; obtaining the maximum load of the selected cable tray support based on the cable tray support mechanical curve configuration table in the model configuration table information; and calculating the maximum support spacing between the cable tray and the cable tray support based on the cable tray linear density and the maximum load of the cable tray support.

[0027] Furthermore, the custom cable tray reference attributes include the tray linear density, which is obtained by adding the full-load cable linear density, the fireproof sheathing linear density, and the tray linear density. Specifically, the attribute values ​​of the custom cable tray reference attributes are filled in when the call library is created, and when the user subsequently retrieves the corresponding tray, its reference attributes will include the tray linear density.

[0028] For example, if we select a tray with a width of 200mm from Table 2 above, its full-load cable density is 5kg / m; if we select a thin fireproof covering from Table 3 above, its fireproof covering cable density is 5kg / m; and if we customize the cable tray cable density to 5kg / m, then adding the full-load cable density, the fireproof covering cable density, and the tray cable density together gives us a cable tray cable density of 15kg / m. It should be noted that the data listed above are for illustrative purposes only, and other values ​​may also be used.

[0029] In some embodiments, creating a cable channel and configuring cable trays for carrying the cable channel includes: creating a cable channel and configuring at least one layer of cable trays for carrying the cable channel. Specifically, each layer of cable trays for carrying the cable channel may have multiple corresponding cable tray supports configured underneath, and these multiple cable tray supports form a support arm for the corresponding layer of cable trays. Depending on user design needs, multiple layers of cable trays for carrying the cable channel can also be configured for creating the cable channel, and the parameters of each layer of cable trays for carrying the cable channel can be selected and configured, providing great flexibility and scalability.

[0030] In some embodiments, selecting a cable tray support includes choosing a cable tray support style and configuring cable tray support parameters. Further, the cable tray support parameters include: profile specifications, profile length, and accessory type. Accordingly, cable tray support parameters can also be flexibly added according to user needs.

[0031] For example, the cable tray support parameters can be configured as follows: the profile specifications are ∠40×40×4 equal angle steel, the profile length is 300mm, and the accessory types include expansion bolts, flat washers, spring washers, and hexagonal bolts and nuts. It should be noted that the profile specifications, lengths, and accessory types listed above are for illustrative purposes only, and other options are possible.

[0032] In some embodiments, the maximum support spacing between the cable tray and the cable tray support is calculated based on the cable tray linear density and the maximum load of the cable tray support, including: Maximum support spacing = Maximum load of the corresponding cable tray support / Corresponding cable tray linear density. The maximum load of the corresponding cable tray support is obtained from the mechanical curve configuration table in the model configuration table information.

[0033] For example, if we select a 200mm wide tray from Table 2 above, its full-load cable density is 5kg / m; select a thin fireproof covering from Table 3 above, its fireproof covering linear density is 5kg / m; and customize the cable tray linear density to 5kg / m. Adding the full-load cable density, fireproof covering linear density, and tray linear density together, we get a cable tray linear density of 15kg / m. Then, we configure a cable tray support from the third row of data in Table 1, specifically a cable tray support type FR01, cable tray support shape 3, and cable tray support profile length of 500mm. The maximum load of this cable tray support is 45kg. The maximum support spacing = maximum load of the corresponding cable tray support / corresponding cable tray linear density. Substituting these values ​​into the calculation, we get a maximum support spacing of 3m. It should be noted that the data listed above is only for illustrative purposes; other data may also be used.

[0034] In some embodiments, the cable tray support array parameters include: the cable tray support array spacing and the number of cable tray support arrays. Inputting the cable tray support array parameters based on the maximum support spacing means that when configuring one layer of cable trays to carry cable channels, the cable tray support array spacing should be less than or equal to the maximum support spacing. Specifically, if the maximum support spacing is 3m, then the input cable tray support array spacing should be less than or equal to 3m. It should be noted that the data listed above is for illustrative purposes only, and other parameters may also be used.

[0035] In some embodiments, the arrangement operations in batch arranging cable tray supports include: copying, deleting, flipping, and modifying cable tray support parameters. Specifically, copying involves copying a support based on the cable tray support array parameters; deleting involves deleting the selected support; flipping involves flipping the support's anchor post to the other side of the tray; and modifying cable tray support parameters involves modifying the cable tray support array parameters of the selected support.

[0036] For example, when configuring a cable tray layer for carrying cable channels, the maximum support spacing is 3m. If the input cable tray support array spacing is 2m and the number of cable tray support arrays is 3, clicking copy will generate a cable tray support with a cable tray support array spacing of 2m and a number of cable tray support arrays of 3 at the corresponding starting point of the cable tray support settings. Similarly, a certain number of cable tray supports can be selected to delete, flip, or modify the cable tray support array parameters, which will not be elaborated here.

[0037] In some embodiments, such as Figure 1 As shown, after arranging the cable tray supports in batches, the following steps are also included: S8 calculates the actual load of the cable tray supports, and determines whether the actual load meets the cable tray support arrangement requirements based on the actual load and the maximum load of the corresponding cable tray supports.

[0038] Specifically, the actual load on the cable tray support is calculated, including: If the cable tray used to carry the cable channel is a single layer, select one of the cable tray supports as the check support, and the load of the check support = The cable tray linear density is used to check the load of the support as the actual load of the cable tray support; where the actual load is in kilograms (kg), "X" is the actual distance between the left adjacent support and "Y" is the actual distance between the right adjacent support, in meters (m), and the linear density is in kilograms per meter (kg / m).

[0039] If the cable tray used to carry the cable channel is multi-layered, select one cable tray support in each layer as the verification support. The calculation method for the load of each verification support is the same as that for a single layer verification support. After calculating the load of each verification support, sum the loads of each verification support as the actual load of the cable tray support.

[0040] For example, when the cable tray used to carry the cable channel is configured with two layers, one cable tray support in each layer is selected as the check support, and the load of the first layer check support is = First layer cable tray line density, second layer check support load = The linear density of the second layer of cable trays is calculated as follows: Actual load of the cable tray supports = Load of the first layer check supports + Load of the second layer check supports. The unit of support load is kilograms (kg). "X1" represents the actual distance between adjacent supports on the left side of the first layer, "Y1" represents the actual distance between adjacent supports on the right side of the first layer, "X2" represents the actual distance between adjacent supports on the left side of the second layer, and "Y2" represents the actual distance between adjacent supports on the right side of the second layer, all in meters (m). The unit of linear density is kilograms per meter (kg / m).

[0041] The invention determines whether the actual load meets the cable tray support layout requirements based on the actual load and the maximum load of the corresponding cable tray support. This includes: if the calculated actual load is less than or equal to the maximum load of the corresponding cable tray support, it meets the requirements; if the calculated actual load is greater than the maximum load of the corresponding cable tray support, it does not meet the requirements and a rearrangement is required. Before batch deployment of cable tray supports, the maximum support spacing between the cable trays and supports is calculated to allow users to adjust the cable tray support array parameters. After batch deployment, the actual load of the cable tray supports is also calculated, and the determination of compliance with the layout requirements is based on the actual load and the maximum load of the corresponding cable tray support. This dual verification improves the precision and safety of the design, and all calculations are performed automatically, allowing users to maximize space savings and project cost reduction while ensuring mechanical requirements are met.

[0042] like Figure 2As shown, some embodiments of the present invention also disclose a system for arranging cable tray supports in nuclear power plants. This system for arranging cable tray supports is applied to integrated engineering software for collaborative design, such as CATIA. The system includes: an import module, a creation module, a selection module, a calculation module, an input module, and a batch arrangement module. The import module is used to import model configuration table information; Create a module, create cable channels, and configure the cable trays to carry the cable channels; Select a module to select a cable tray support for the cable tray; The calculation module is used to calculate the maximum support spacing between the cable tray and the cable tray support based on the information in the model configuration table; The input module is used to input the cable tray support array parameters according to the maximum support spacing, and to select the starting point for setting the cable tray supports; and, The batch deployment module is used to deploy cable tray supports in batches according to the parameters of the cable tray support array and the set starting point.

[0043] By implementing this embodiment, the following beneficial effects are achieved: This invention calculates the maximum support spacing between the cable tray and the cable tray support according to the model configuration table information, inputs the cable tray support array parameters according to the maximum support spacing, and arranges the cable trays in batches according to the cable tray support array parameters and the set starting point, thereby improving work efficiency and avoiding the large workload and tedious iterative design caused by subsequent failure of mechanical verification.

[0044] It should be noted that, in order to achieve the automatic layout function, the maximum load-bearing weight of the support and the linear density weight of the current cable tray are required through the model configuration table in order to calculate the maximum support spacing between the cable tray and the cable tray support. The information in the model configuration table needs to be fully maintained in advance and deployed locally or on a server.

[0045] In some embodiments, the calculation module is also used to: calculate the actual load of the cable tray supports after batch arrangement, and determine whether the cable tray support arrangement requirements are met based on the actual load and the maximum load of the corresponding cable tray supports.

[0046] To better illustrate the present invention, Figure 3 The parameter input interface for arranging the cable tray support of a nuclear power plant according to the present invention is shown, such as... Figure 3As shown, after importing the model configuration table information, creating the cable channel, and configuring the cable trays to support the cable channel, select the cable tray support in the support list on the left. The maximum support spacing between the cable tray and the support is calculated based on the model configuration table information and displayed in the upper right corner. Users can input the cable tray support array spacing and the number of arrays according to the maximum support spacing. The starting point for setting the cable tray support is selected in the cable tray selection. Based on the cable tray support array parameters and the starting point, clicking "copy" will allow for batch placement of cable tray supports. After batch placement of cable tray supports, multiple cable tray supports can be selected, and the function keys in the lower right corner can be clicked to batch delete, flip, and change the parameters of the cable tray supports. To place multiple layers of different cable tray supports, after batch placement of one type of cable tray support, select other cable tray supports in the support list and repeat the above operations to complete the batch placement.

[0047] By implementing this invention, the following beneficial effects are achieved: This invention calculates the maximum support spacing between cable trays and cable tray supports based on the model configuration table information, inputs the cable tray support array parameters according to the maximum support spacing, and arranges cable tray supports in batches according to the cable tray support array parameters and the set starting point, which improves work efficiency and avoids the large workload and tedious iterative design caused by subsequent failure of mechanical verification.

[0048] This invention imports model configuration table information to configure cable trays and select cable tray supports for cable channels. Based on the weight of the laid cables, the self-weight of the cable trays, the number of cable tray layers, whether fireproof wrapping is included, and the weight of the wrapping, the linear density weight of the cable trays is calculated. Then, based on the mechanical data in the configuration table, the maximum load under the current cable tray support configuration is determined. By combining the linear density weight of the cable trays with the maximum load of the cable tray supports, the maximum support spacing of the current cable tray support configuration, the cable tray support array parameters, and the starting point can be calculated. This allows for batch deployment of cable trays, improving work efficiency.

[0049] Furthermore, during the batch arrangement of cable tray supports, parameters of the cable tray supports can be copied, deleted, flipped, and modified in batches, facilitating user operation and adjustment. After the batch arrangement of cable tray supports, the actual load of the cable tray supports is calculated, and the actual load and the maximum load of the corresponding cable tray supports are used to determine whether the arrangement requirements of the cable tray supports are met, thus ensuring the safety of the engineering design.

[0050] The various embodiments in this specification are described in a progressive manner, with each embodiment focusing on its differences from other embodiments. Similar or identical parts between embodiments can be referred to interchangeably. For the systems disclosed in the embodiments, since they correspond to the methods disclosed in the embodiments, the descriptions are relatively simple; relevant parts can be referred to the method section.

[0051] It is understood that the above embodiments only illustrate some implementation methods of the present invention, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the present invention. It should be noted that those skilled in the art can freely combine the above embodiments or technical features without departing from the concept of the present invention, and can also make several modifications and improvements, all of which fall within the protection scope of the present invention. That is, the embodiments described "in some embodiments" can be freely combined with any of the preceding and following embodiments. Therefore, all equivalent transformations and modifications made within the scope of the claims of the present invention should be covered by the claims of the present invention.

Claims

1. A method for arranging cable tray supports, characterized in that, Includes the following steps: Import model configuration table information; Create cable channels and configure cable trays to carry the cable channels; Select a cable tray support for the cable tray; Calculate the maximum support distance between the cable tray and the cable tray support based on the model configuration table information; Input the cable tray support array parameters according to the maximum support spacing; The starting point for setting the cable tray support is selected in the cable tray; Based on the parameters of the cable tray support array and the starting point, the cable tray supports are arranged in batches.

2. The method for arranging cable tray supports according to claim 1, characterized in that, The model configuration table information includes: cable tray support mechanical curve configuration table, cable tray full load cable density weight configuration table, and fireproof sheathing cable density configuration table. The mechanical curve configuration table of the cable tray support includes: cable tray support type, cable tray support shape, cable tray support profile length, and cable tray support maximum load; The cable tray full-load cable density weight configuration table includes: tray width and full-load cable density; The fireproof coating linear density configuration table includes: fireproof coating type and fireproof coating density.

3. The method for arranging cable tray supports according to claim 2, characterized in that, The step of calculating the maximum support spacing between the cable tray and the cable tray support based on the model configuration table information includes: Calculate the cable tray line density based on the model configuration table information and the custom cable tray reference attributes; The maximum load of the selected cable tray support is obtained from the cable tray support mechanical curve configuration table of the model configuration table information. The maximum support spacing between the cable tray and the cable tray support is calculated based on the cable tray linear density and the maximum load of the cable tray support.

4. The method for arranging cable tray supports according to claim 3, characterized in that, The custom cable tray reference attributes include the tray linear density, which is obtained by adding the full-load cable linear density, the fireproof coating linear density, and the tray linear density.

5. The method for arranging cable tray supports according to claim 1, characterized in that, Creating cable channels and configuring cable trays to carry the cable channels includes: Create a cable channel and configure at least one layer of cable tray to carry the cable channel.

6. The method for arranging cable tray supports according to claim 1, characterized in that, Selecting a cable tray support for the cable tray includes: Select a cable tray support style and configure the cable tray support parameters for the cable tray.

7. The method for arranging cable tray supports according to claim 1, characterized in that, The parameters of the cable tray support array include: the spacing between the cable tray support arrays and the number of cable tray support arrays.

8. The method for arranging cable tray supports according to claim 1, characterized in that, The arrangement operations in the batch arrangement of cable tray supports include: copying, deleting, flipping, and modifying the cable tray support array parameters.

9. The method for arranging cable tray supports according to claim 1, characterized in that, After batch deployment of cable tray supports, the following is also included: Calculate the actual load of the cable tray support, and determine whether the actual load meets the cable tray support layout requirements based on the actual load and the corresponding maximum load of the cable tray support.

10. A system for arranging cable tray supports, characterized in that, include: Import module, create module, select module, calculate module, input module, batch arrange module; The import module is used to import model configuration table information; The creation module is used to create cable channels and configure cable trays for carrying the cable channels; The selected module is used to select a cable tray support for the cable tray; The calculation module is used to calculate the maximum support distance between the cable tray and the cable tray support according to the model configuration table information; The input module is used to input the cable tray support array parameters according to the maximum support spacing, and select the setting starting point of the cable tray support on the cable tray. as well as, The batch arrangement module is used to arrange cable tray supports in batches according to the parameters of the cable tray support array and the set starting point.

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