Weak current adaptive wiring path planning method and device and storage medium

Abstract

The invention discloses a weak current adaptive wiring path planning method and device and a storage medium, and relates to the technical field of data processing. The method comprises the following steps: constructing a wiring space world coordinate system; constructing a first weak current wiring limitation area coordinate; defining coordinates of a second weak current wiring limitation area through the user side; a union set is taken, and coordinates of the weak current wiring limitation area are obtained; obtaining a weak current wiring starting point coordinate and a weak current wiring terminal point coordinate, and carrying out wiring optimization based on the weak current wiring limiting area coordinate to obtain a weak current wiring scheme; and performing virtual layout on the weak current wiring scheme in the wiring three-dimensional space model to obtain a wiring three-dimensional space updating model, and sending the wiring three-dimensional space updating model to a user side for visual display. The technical problem that in the prior art, the wiring planning efficiency is low due to the fact that the weak current wiring path planning process is prone to being interfered by strong current wiring is solved, wiring optimization is conducted by constructing the weak current wiring limiting area and combining the three-dimensional space model, and the technical effect of improving the wiring planning efficiency is achieved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of data processing, in particular to a weak current adaptive wiring path planning method and device and storage medium. BACKGROUND

[0002] In the current weak current wiring field, with the increasing complexity of building structure and function, the weak current wiring path planning faces many challenges. Especially in the environment coexisting with strong current wiring, the weak current wiring is often affected by the distribution of strong current wiring, which easily causes interference in the planning process, increasing the complexity and risk of wiring. The traditional wiring path planning method usually relies on manual experience, lacks precise spatial models and automated path optimization means, which not only affects the efficiency of wiring, but also may cause safety hazards of weak current system and strong current system. Therefore, how to effectively avoid the influence of strong current wiring in a complex three-dimensional space environment and carry out efficient and accurate weak current wiring path planning has become a problem to be solved. SUMMARY

[0003] The weak current adaptive wiring path planning method and device and storage medium provided by the embodiments of the present application solve the technical problem that the weak current wiring path planning process is easily disturbed by strong current wiring, resulting in low wiring planning efficiency in the prior art.

[0004] In view of the above problems, the embodiments of the present application provide a weak current adaptive wiring path planning method, device and storage medium.

[0005] The first aspect of the embodiments of the present application provides a weak current adaptive wiring path planning method, which comprises:

[0006] In response to the wiring three-dimensional space model uploaded by the user end, a wiring space world coordinate system is constructed, wherein the wiring space world coordinate system has a strong current wiring distribution area coordinate, and the strong current wiring distribution area coordinate has a strong current wiring type label; a first weak current wiring restriction area coordinate is constructed according to the strong current wiring distribution area coordinate and the strong current wiring type label; the user end is used to delimit a second weak current wiring restriction area coordinate for the wiring three-dimensional space model; the union of the first weak current wiring restriction area coordinate and the second weak current wiring restriction area coordinate is taken to obtain a weak current wiring restriction area coordinate; a weak current wiring starting point coordinate and a weak current wiring ending point coordinate are obtained, and wiring optimization is carried out based on the weak current wiring restriction area coordinate to obtain a weak current wiring scheme; the weak current wiring scheme is virtually laid out in the wiring three-dimensional space model to obtain an updated wiring three-dimensional space model, which is sent to the user end for visual display.

[0007] In a second aspect, the application provides an electronic device, comprising a memory for storing executable instructions, and a processor for executing the executable instructions stored in the memory to implement the weak current adaptive wiring path planning method.

[0008] In a third aspect, the application provides a computer readable storage medium storing a computer program, which, when executed by a processor, implements the weak current adaptive wiring path planning method.

[0009] The one or more technical solutions provided in the application have at least the following technical effects or advantages:

[0010] First, a wiring space world coordinate system is constructed in response to the wiring three-dimensional space model uploaded by the user end, wherein the wiring space world coordinate system has a strong current wiring distribution area coordinate, and the strong current wiring distribution area coordinate has a strong current wiring type label. Then, a first weak current wiring restriction area coordinate is constructed according to the strong current wiring distribution area coordinate and the strong current wiring type label. At the same time, the user end is used to demarcate a second weak current wiring restriction area coordinate for the wiring three-dimensional space model. Then, the union of the first weak current wiring restriction area coordinate and the second weak current wiring restriction area coordinate is taken to obtain the weak current wiring restriction area coordinate. Further, the weak current wiring starting point coordinate and the weak current wiring ending point coordinate are obtained, and the wiring optimization is performed based on the weak current wiring restriction area coordinate to obtain the weak current wiring scheme. Finally, the weak current wiring scheme is virtually laid out in the wiring three-dimensional space model to obtain an updated wiring three-dimensional space model, which is sent to the user end for visual display. The technical problem of low wiring planning efficiency caused by strong current wiring interference in the weak current wiring path planning process in the prior art is solved, and the technical effect of improving the wiring planning efficiency is achieved by constructing the weak current wiring restriction area and combining the three-dimensional space model for wiring optimization. BRIEF DESCRIPTION OF DRAWINGS

[0011] In order to more clearly illustrate the technical solutions in the embodiments of the application, the following will briefly introduce the drawings needed in the embodiment description. Obviously, the drawings in the following description are only some embodiments of the application, and other drawings can also be obtained by those skilled in the art without creative labor.

[0012] Figure 1 A weak current adaptive wiring path planning method flowchart is provided for the embodiments of the application.

[0013] Figure 2 A weak current adaptive wiring path planning method flowchart is provided for the embodiments of the application.

[0014] Figure 3 FIG. 1 is a structural schematic diagram of an exemplary electronic device of the present application.

[0015] Reference signs: processor 31, memory 32, input device 33, output device 34. DETAILED DESCRIPTION

[0016] The embodiment of the present application provides a weak electric adaptive wiring path planning method, device and storage medium, and solves the technical problem that the wiring path planning process in the prior art is easily interfered by strong electric wiring, resulting in low wiring planning efficiency.

[0017] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by a person of ordinary skill in the art without creative labor fall within the protection scope of the present application.

[0018] It should be noted that the terms "comprising" and "having" are intended to cover non-exclusive inclusion, for example, a process, method, system, product or server comprising a series of steps or units does not have to be limited to only those steps or units clearly listed, but can include other steps or modules that are not clearly listed or inherent to the process, method, product or device.

[0019] Embodiment one, as shown in the figure, the embodiment of the present application provides a weak electric adaptive wiring path planning method, wherein the method comprises: Figure 1

[0020] In response to the wiring three-dimensional space model uploaded by the user end, a wiring space world coordinate system is constructed, wherein the wiring space world coordinate system has a strong electric wiring distribution area coordinate, and the strong electric wiring distribution area coordinate has a strong electric wiring type label.

[0021] The user uploads the wiring three-dimensional space model through the user end (such as a web page interface, a mobile application, etc.), and the wiring three-dimensional space model usually contains information such as the three-dimensional structure of the building and the existing wiring facilities. By identifying and analyzing the key geometric information such as the building space structure, the wall position and the equipment distribution in the wiring three-dimensional space model, a complete wiring space world coordinate system is constructed, which is a three-dimensional coordinate system for accurately representing all positions and physical boundaries in the wiring space, so as to ensure that the path optimization can be carried out based on the actual space structure in the subsequent wiring planning.

[0022] ​In the process of constructing the wiring space world coordinate system, the distribution area of strong current wiring is further positioned and labeled, and a strong current wiring type label is attached to each strong current wiring distribution area. Common types include high-voltage lines, low-voltage lines, power main lines, branch lines, etc. Specifically, the specific position of the strong current wiring is extracted from the three-dimensional model and stored in the form of coordinates in the wiring space world coordinate system, forming the strong current wiring distribution area coordinates. These distribution area marks the spatial range crossed by the strong current line, and clearly indicates which areas are occupied by the strong current line, and provides a basis for avoiding for subsequent weak current wiring planning.

[0023] By constructing the wiring space world coordinate system, the geometric structure of the wiring space is comprehensively represented, and based on the distribution area coordinates and type labels of the strong current wiring, different types of strong current lines are clearly identified, providing accurate spatial reference and constraint conditions for subsequent weak current wiring path planning.

[0024] According to the strong current wiring distribution area coordinates and the strong current wiring type labels, a first weak current wiring restriction area coordinate is constructed.

[0025] By analyzing the strong current wiring distribution area coordinates and the strong current wiring type labels, a first weak current wiring restriction area coordinate is generated. These restriction areas mark the space that cannot be crossed by weak current wiring, ensuring that weak current lines do not enter the influence range of strong current wiring. For example, if a section of high-voltage line crosses an entire floor of a building, an unwirable area will be generated near the high-voltage line on this floor, avoiding the intersection of weak current lines with it.

[0026] Further, as shown in Figure 2 According to the strong current wiring distribution area coordinates and the strong current wiring type labels, a first weak current wiring restriction area coordinate is constructed, including:

[0027] According to the strong current wiring type labels, the strong current line resistance, strong current line reactance, strong current line conductance and strong current line susceptance are extracted; through the user terminal, the strong current line voltage identifier is calibrated for the strong current wiring type label; according to the strong current line resistance, the strong current line reactance, the strong current line conductance and the strong current line susceptance, combined with the strong current line voltage identifier, weak current restriction area analysis is performed to obtain the first weak current wiring restriction area coordinate.

[0028] Specifically, according to the strong electricity wiring type label, the electrical parameters related to the strong electricity line are extracted, including the strong electricity line resistance, the strong electricity line reactance, the strong electricity line conductance and the strong electricity line susceptance; the user end labels the strong electricity line voltage identifier for the strong electricity wiring type label by inputting the voltage grade (such as high voltage, medium voltage, low voltage) of the strong electricity line, the strong electricity line voltage identifier is a key parameter for distinguishing the important characteristics of the strong electricity line, and different voltage grade lines will have different degrees of electromagnetic field influence on the surrounding environment; according to the strong electricity line resistance, the strong electricity line reactance, the strong electricity line conductance and the strong electricity line susceptance and the strong electricity line voltage identifier labeled by the user, the weak electricity limiting area analysis is performed on the surrounding space of the strong electricity line, so as to determine the weak electricity wiring limiting area and obtain the first weak electricity wiring limiting area coordinate, which is used to identify the area where the weak electricity line is prohibited to pass through around the strong electricity line, and to ensure safety isolation in wiring planning.

[0029] Further, according to the strong electricity line resistance, the strong electricity line reactance, the strong electricity line conductance and the strong electricity line susceptance, the weak electricity limiting area analysis is performed in combination with the strong electricity line voltage identifier to obtain the first weak electricity wiring limiting area coordinate, including:

[0030] Obtain the resistance deviation threshold, the reactance deviation threshold, the conductance deviation threshold, the susceptance deviation threshold and the voltage deviation threshold; according to the strong electricity line resistance, the strong electricity line reactance, the strong electricity line conductance and the strong electricity line susceptance, in combination with the strong electricity line voltage identifier, at least 5 first-level weak electricity limiting distance record data satisfying the resistance deviation threshold, the reactance deviation threshold, the conductance deviation threshold, the susceptance deviation threshold and the voltage deviation threshold are collected, wherein the first-level weak electricity limiting distance record data has a first-level strong electricity line resistance, a first-level strong electricity line reactance, a first-level strong electricity line conductance, a first-level strong electricity line susceptance and a first-level strong electricity line voltage identifier; each group of the first-level strong electricity line resistance, the first-level strong electricity line reactance, the first-level strong electricity line conductance, the first-level strong electricity line susceptance and the first-level strong electricity line voltage identifier is traversed, at least 5 second-level weak electricity limiting distance record data satisfying the resistance deviation threshold, the reactance deviation threshold, the conductance deviation threshold, the susceptance deviation threshold and the voltage deviation threshold are collected; the second-level weak electricity limiting distance record data and the first-level weak electricity limiting distance record data are data fused, in combination with the strong electricity wiring distribution area coordinate, to obtain the first weak electricity wiring limiting area coordinate.

[0031] Specifically, according to professional knowledge and an expert team, a corresponding deviation threshold value is set for each key electrical parameter, including a resistance deviation threshold value, a reactance deviation threshold value, a conductance deviation threshold value, a susceptance deviation threshold value, and a voltage deviation threshold value, which are used to limit which strong current line electrical parameter changes are within an acceptable range during data acquisition, ensuring that the selected data can accurately reflect the actual interference of the strong current line when distance analysis is performed; at least 5 first-level weak current limiting distance record data that meet all deviation threshold values (resistance, reactance, conductance, susceptance, and voltage) are collected according to the strong current line resistance, the strong current line reactance, the strong current line conductance, and the strong current line susceptance, combined with the strong current line voltage identifier; the first-level weak current limiting distance record data includes the actual impact range of each set of strong current lines on the surrounding space under the conditions of their resistance, reactance, conductance, susceptance, and voltage, and these data reflect the influence radius of the strong current line under normal working conditions, i.e., the minimum safety distance that the weak current line needs to avoid; at least 5 second-level weak current limiting distance record data that meet all deviation threshold values are collected by traversing each set of first-level data (including first-level strong current line resistance, first-level strong current line reactance, first-level strong current line conductance, first-level strong current line susceptance, and first-level strong current line voltage identifier); the first-level weak current limiting distance record data and the second-level weak current limiting distance record data are fused, combined with the strong current wiring distribution area coordinates, to generate first weak current wiring limiting area coordinates, which identify the weak current avoidance area of the strong current line in three-dimensional space, ensuring that weak current wiring does not enter these interference ranges, thereby effectively avoiding electromagnetic interference and potential safety problems of the strong current line on the weak current line.

[0032] Further, the second-level weak current limiting distance record data and the first-level weak current limiting distance record data are fused, combined with the strong current wiring distribution area coordinates, to obtain the first weak current wiring limiting area coordinates, including:

[0033] obtaining a first weak electric limit distance, a second weak electric limit distance, and an Nth weak electric limit distance of the first weak electric limit distance record data; grouping the second weak electric limit distance record data according to the first weak electric limit distance, the second weak electric limit distance, and the Nth weak electric limit distance; obtaining a first weak electric limit distance set, a second weak electric limit distance set, and an Nth weak electric limit distance set; performing a central data mean value calculation on the first weak electric limit distance set, the second weak electric limit distance set, and the Nth weak electric limit distance set; obtaining a first weak electric limit distance, a second weak electric limit distance, and an Nth weak electric limit distance; performing a central data mean value calculation on the first weak electric limit distance, the second weak electric limit distance, and the Nth weak electric limit distance, and the first weak electric limit distance, the second weak electric limit distance, and the Nth weak electric limit distance; obtaining a weak electric limit distance identification value; and performing limit region calibration based on the strong electric wiring distribution region coordinates and the weak electric limit distance identification value, to obtain the first weak electric wiring limit region coordinates.

[0034] Specifically, the first weak electric limit distance, the second weak electric limit distance, and the Nth weak electric limit distance are extracted from the first weak electric limit distance record data, which represent the interference distance of the strong electric line on the weak electric wiring under different conditions; the second weak electric limit distance record data are grouped according to the first weak electric limit distance, the second weak electric limit distance, and the Nth weak electric limit distance, and the second data in each group represent the further limit range of the strong electric line on the weak electric wiring under similar conditions as the first data; the mean value of the second first weak electric limit distance set, the second second weak electric limit distance set, and the Nth weak electric limit distance set is calculated by traversing the second data set in each group; the representative limit distance of each set under different conditions, i.e., the second first weak electric limit distance, the second second weak electric limit distance, and the Nth weak electric limit distance, is obtained through the mean value calculation; the calculated second first weak electric limit distance, the second second weak electric limit distance, and the Nth weak electric limit distance are fused with the corresponding first first weak electric limit distance, the first second weak electric limit distance, and the Nth weak electric limit distance, that is, the mean value of the centralized data of each pair of first and second limit distances is calculated to obtain the final weak electric limit distance identification value, which represents the comprehensive interference range of the strong electric line on the weak electric wiring under different conditions; the weak electric limit distance identification value is used to determine the limit area of the weak electric wiring in combination with the known strong electric wiring distribution area coordinates, that is, the area that the weak electric wiring should avoid in the three-dimensional space is determined according to the spatial distribution and influence range of the strong electric line, and finally the first weak electric wiring limit area coordinates are generated.

[0035] The user terminal is used to define the second weak electric wiring limit area coordinates for the wiring three-dimensional space model.

[0036] In the three-dimensional space model, the user can manually define the second weak electric wiring limit area according to actual needs or special wiring requirements, and generate the second weak electric wiring limit area coordinates according to the second weak electric wiring limit area.

[0037] The union of the first weak electric wiring limit area coordinates and the second weak electric wiring limit area coordinates is taken to obtain the weak electric wiring limit area coordinates.

[0038] The low-voltage wiring restricted area coordinates are generated by performing a union operation on the coordinates of the first and second low-voltage wiring restricted areas. Specifically, any location contained within the coordinates of the first and second low-voltage wiring restricted areas will be marked as a restricted area; for overlapping coordinates, the original coordinates are retained to ensure that the corresponding space is considered an area where low-voltage wiring cannot pass; for non-overlapping coordinates, all coordinates of both sets of restricted areas are included in the final restricted area; the final low-voltage wiring restricted area coordinates represent all areas that low-voltage lines need to avoid during wiring, integrating the impact area of ​​high-voltage wiring and user-defined requirements, ensuring the safety and practicality of the wiring.

[0039] Obtain the coordinates of the starting point and ending point of the low-voltage wiring, and optimize the wiring based on the coordinates of the restricted area to obtain a low-voltage wiring scheme.

[0040] The starting and ending coordinates of the low-voltage wiring are obtained from the 3D spatial model of the wiring. Based on these coordinates, wiring optimization is performed within the restricted area to generate a low-voltage wiring scheme. This scheme not only includes the optimal path from the starting point to the ending point but also takes into account all restricted areas, ensuring that the low-voltage lines avoid these areas and guaranteeing the safety and effectiveness of the wiring.

[0041] Furthermore, by obtaining the coordinates of the starting point and ending point of the low-voltage wiring, and optimizing the wiring based on the coordinates of the restricted area, a low-voltage wiring scheme is obtained, including:

[0042] Based on the coordinates of the restricted low-voltage wiring area in the three-dimensional space model of the wiring, configure the coordinates of the low-voltage wiring area; based on the coordinates of the starting point and the ending point of the low-voltage wiring, perform random wiring in the coordinates of the low-voltage wiring area to obtain a first set of low-voltage wiring schemes, wherein the random wiring path is parallel to the horizontal or vertical direction; extract a first set of wiring lengths from the first set of low-voltage wiring schemes; extract the minimum value of the first set of wiring lengths to obtain the low-voltage wiring scheme.

[0043] Optionally, according to the obtained weak current wiring limit area coordinates, the area available for weak current wiring is demarcated in the three-dimensional space model; based on the configured weak current wiring area coordinates, random wiring is performed according to the weak current wiring starting point coordinates and the weak current wiring end point coordinates, and in the random wiring process, the line paths of the random wiring are parallel to each other in the horizontal direction or the vertical direction, that is, the path direction of the wiring is limited to along the main axis of the building to avoid unnecessary twists and turns; a plurality of random wiring paths are generated in the weak current wiring area to form a first weak current wiring scheme set, each scheme representing a possible wiring path; the first weak current wiring scheme set is evaluated to extract the total length of each wiring path to form a first wiring length set; in the first wiring length set, the length of each path is calculated, and the minimum value is extracted, which corresponds to the path representing the shortest wiring scheme from the starting point to the end point among all generated schemes; and the corresponding wiring path is taken as the optimal weak current wiring scheme through the extracted minimum wiring length.

[0044] Further, obtaining the weak current wiring starting point coordinates and the weak current wiring end point coordinates, performing wiring optimization based on the weak current wiring limit area coordinates, and obtaining the weak current wiring scheme further include:

[0045] According to the weak current wiring limit area coordinates, the weak current wiring area coordinates are configured in the wiring three-dimensional space model; based on the weak current wiring starting point coordinates and the weak current wiring end point coordinates, random wiring is performed in the weak current wiring area coordinates to obtain a second weak current wiring scheme set with a wiring length less than or equal to a wiring length threshold, wherein the line paths of the random wiring are parallel to each other in the horizontal direction or the vertical direction; a right angle number set of the second weak current wiring scheme set is extracted; the minimum value of the right angle number set is extracted to obtain the weak current wiring scheme.

[0046] Optionally, according to the obtained weak current wiring restriction area coordinates, a region available for weak current wiring is demarcated in the three-dimensional space model; based on the configured weak current wiring region coordinates, random wiring is performed according to the weak current wiring starting point coordinates and the weak current wiring end point coordinates, in the random wiring process, the line paths of the random wiring are parallel to each other in the horizontal direction or the vertical direction, at the same time, the length of each path is calculated, and only those schemes with wiring length less than or equal to the wiring length threshold value are reserved, to generate a second weak current wiring scheme set; the generated second weak current wiring scheme set is evaluated, and the number of right angles in each path is extracted, in weak current wiring, the more the number of right angles, the more the wiring complexity and the amount of material used are increased, therefore, reducing the number of right angles is an important indicator for optimizing the wiring scheme; the number of right angles in all generated wiring schemes is counted, and the minimum value is extracted therefrom, the wiring scheme corresponding to the minimum value has the least number of right angle turns, which means that the scheme is the simplest in structure, and can effectively reduce the wiring complexity and material consumption; the wiring scheme with the least number of right angles is selected as the optimal weak current wiring scheme.

[0047] Further, obtaining the weak current wiring starting point coordinates and the weak current wiring end point coordinates, performing wiring optimization based on the weak current wiring restriction area coordinates, and obtaining the weak current wiring scheme further include:

[0048] According to the weak current wiring restriction area coordinates, configuring weak current wiring region coordinates in the wiring three-dimensional space model; based on the weak current wiring starting point coordinates and the weak current wiring end point coordinates, performing random wiring in the weak current wiring region coordinates, to obtain a third weak current wiring scheme set with the number of right angles less than or equal to the number of right angle threshold values, wherein the line paths of the random wiring are parallel to each other in the horizontal direction or the vertical direction; extracting a second wiring length set of the third weak current wiring scheme set; extracting the minimum value of the second wiring length set, to obtain the weak current wiring scheme.

[0049] Optionally, according to the obtained weak current wiring limit area coordinates, the area available for weak current wiring is demarcated in the three-dimensional space model; based on the configured weak current wiring area coordinates, random wiring is performed according to the weak current wiring starting point coordinates and the weak current wiring end point coordinates, in the random wiring process, the line paths of the random wiring are parallel to each other in the horizontal direction or the vertical direction, at the same time, the number of right angles in each wiring is calculated, and those wiring schemes whose number of right angles is less than or equal to the number of right angle threshold are retained, to generate a third weak current wiring scheme set; the length of each path in the third weak current wiring scheme set is calculated, and the lengths of these paths are extracted to form a second wiring length set; in the second wiring length set, the length of each path is calculated, and the minimum value among them is extracted, and the path corresponding to the minimum value represents the scheme with the shortest wiring distance among all the schemes meeting the right angle number limit; the path with the minimum wiring length is taken as the optimal weak current wiring scheme.

[0050] The weak current wiring scheme is virtually laid in the wiring three-dimensional space model to obtain a wiring three-dimensional space update model, which is sent to the user end for visual display.

[0051] After obtaining the final weak current wiring scheme, the final optimized weak current wiring scheme is imported into the three-dimensional model, the coordinate data in the weak current wiring scheme is converted into actual wiring paths, and the three-dimensional model is laid out, these paths follow the optimal wiring scheme generated by the system, and show how the weak current line passes through the building and avoids strong current wiring and other obstacle areas. After completing the virtual layout of the weak current wiring scheme, a wiring three-dimensional space update model is generated; the generated wiring three-dimensional space update model is packaged and sent to the user end, and the user can load the updated three-dimensional model through the related application program or platform. By performing three-dimensional virtual layout on the final weak current wiring scheme, the user can intuitively view the wiring result and evaluate its feasibility.

[0052] In summary, the embodiments of the present application have at least the following technical effects:

[0053] Firstly, in response to the wiring three-dimensional space model uploaded by the user terminal, a wiring space world coordinate system is constructed, wherein the wiring space world coordinate system has a strong current wiring distribution area coordinate, and the strong current wiring distribution area coordinate has a strong current wiring type label. Then, according to the strong current wiring distribution area coordinate and the strong current wiring type label, a first weak current wiring restriction area coordinate is constructed. At the same time, through the user terminal, a second weak current wiring restriction area coordinate is drawn for the wiring three-dimensional space model. Then, the union of the first weak current wiring restriction area coordinate and the second weak current wiring restriction area coordinate is taken to obtain the weak current wiring restriction area coordinate. Further, the weak current wiring starting point coordinate and the weak current wiring ending point coordinate are obtained, the weak current wiring scheme is obtained based on the weak current wiring restriction area coordinate. Finally, the weak current wiring scheme is virtually laid in the wiring three-dimensional space model to obtain an updated wiring three-dimensional space model, which is sent to the user terminal for visual display. The technical problem of low wiring planning efficiency caused by strong current wiring interference in the weak current wiring path planning process in the prior art is solved, and the technical effect of improving the wiring planning efficiency is achieved by constructing the weak current wiring restriction area and combining the three-dimensional space model for wiring optimization.

[0054] Embodiment two, Figure 3 The structural schematic diagram of the electronic device provided in the embodiment two of the present application shows a block diagram of an exemplary electronic device suitable for implementing the embodiments of the present application. Figure 3 The electronic device shown is only an example, and should not impose any limitation on the functions and use range of the embodiments of the present application. As Figure 3 As shown, the electronic device includes a processor 31, a memory 32, an input device 33 and an output device 34; the number of processors 31 in the electronic device can be one or more, Figure 3 In the embodiment, the processor 31 in the electronic device, the memory 32, the input device 33 and the output device 34 can be connected through a bus or other means, Figure 3 In the embodiment, the connection through the bus is taken as an example.

[0055] Embodiment three, based on the same inventive concept as the weak current adaptive wiring path planning method in the foregoing embodiments, the present embodiment provides a computer readable storage medium, which can be used to store software programs, computer executable programs and modules, such as the program instructions / modules corresponding to the weak current adaptive wiring path planning method in the embodiments of the present application. The processor executes the software programs, instructions and modules stored in the memory, thereby performing various functional applications and data processing of the computer device, i.e. implementing the above-mentioned weak current adaptive wiring path planning method.

[0056] It should be noted that the above-mentioned embodiment sequences of the present application are merely for description only, but not for representing the advantages and disadvantages of the embodiments. And the above-mentioned embodiments of the present specification are described. The processes depicted in the accompanying drawings do not necessarily require the specific order or continuous order shown to achieve the desired results. In some embodiments, multi-task processing and parallel processing are also possible or can be advantageous.

[0057] The above only describes the preferred embodiments of the present application, and does not limit the present application. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.

[0058] The specification and drawings are merely exemplary of the present application, and any and all modifications, variations, combinations or equivalents that are within the scope of the present application should be included. Obviously, those skilled in the art can make various modifications and variations to the present application without departing from the scope of the present application. Thus, if these modifications and variations of the present application belong to the scope of the present application and its equivalents, the present application is intended to include these modifications and variations.

Claims

1. A low-voltage adaptive wiring path planning method, characterized in that, The method includes: In response to the 3D spatial model of cabling uploaded by the user, a cabling space world coordinate system is constructed, wherein the cabling space world coordinate system has coordinates of the distribution area of ​​high-voltage cabling, and the coordinates of the distribution area of ​​high-voltage cabling have a high-voltage cabling type label; Based on the coordinates of the high-voltage wiring distribution area and the high-voltage wiring type label, construct the coordinates of the first low-voltage wiring restriction area; Using the user terminal, the coordinates of the second low-voltage wiring restriction area are defined for the three-dimensional spatial model of the wiring. The coordinates of the low-voltage wiring restriction area are obtained by taking the union of the coordinates of the first low-voltage wiring restriction area and the coordinates of the second low-voltage wiring restriction area. Obtain the coordinates of the starting point and ending point of the low-voltage wiring, and optimize the wiring based on the coordinates of the restricted area of ​​the low-voltage wiring to obtain a low-voltage wiring scheme. The low-voltage cabling scheme is virtually deployed in the three-dimensional cabling space model to obtain an updated three-dimensional cabling space model, which is then sent to the user terminal for visualization.

2. The low-voltage adaptive wiring path planning method as described in claim 1, characterized in that, Based on the coordinates of the high-voltage wiring distribution area and the high-voltage wiring type label, the coordinates of the first low-voltage wiring restriction area are constructed, including: Based on the high-voltage wiring type label, extract the high-voltage line resistance, high-voltage line reactance, high-voltage line conductance, and high-voltage line susceptance; Through the user terminal, the voltage identifier of the high-voltage wiring type label is marked for the high-voltage wiring; Based on the power line resistance, power line reactance, power line conductance, and power line susceptance, and combined with the power line voltage indicator, a weak current restriction area analysis is performed to obtain the coordinates of the first weak current wiring restriction area.

3. The low-voltage adaptive wiring path planning method as described in claim 2, characterized in that, Based on the power line resistance, power line reactance, power line conductance, and power line susceptance, and in conjunction with the power line voltage indicator, a weak current restricted area analysis is performed to obtain the coordinates of the first weak current wiring restricted area, including: Obtain the resistance deviation threshold, reactance deviation threshold, conductance deviation threshold, susceptance deviation threshold, and voltage deviation threshold; Based on the power line resistance, power line reactance, power line conductance, and power line susceptance, and combined with the power line voltage identifier, at least five sets of first-level weak current distance restriction records are collected that simultaneously satisfy the resistance deviation threshold, reactance deviation threshold, conductance deviation threshold, susceptance deviation threshold, and voltage deviation threshold. The first-level weak current distance restriction records contain the first-level power line resistance, first-level power line reactance, first-level power line conductance, first-level power line susceptance, and first-level power line voltage identifier. Traverse each group: the resistance of the first-level high-voltage line, the reactance of the first-level high-voltage line, the conductance of the first-level high-voltage line, the susceptance of the first-level high-voltage line, and the voltage identifier of the first-level high-voltage line, and collect at least 5 secondary weak current limit distance record data that simultaneously meet the resistance deviation threshold, reactance deviation threshold, conductance deviation threshold, susceptance deviation threshold, and voltage deviation threshold; The data of the secondary low-voltage wiring restriction distance record and the data of the primary low-voltage wiring restriction distance record are fused together, and the coordinates of the high-voltage wiring distribution area are combined to obtain the coordinates of the first low-voltage wiring restriction area.

4. The low-voltage adaptive wiring path planning method as described in claim 3, characterized in that, The data is fused from the secondary low-voltage wiring distance restriction records and the primary low-voltage wiring distance restriction records. Combined with the coordinates of the high-voltage wiring distribution area, the coordinates of the first low-voltage wiring restriction area are obtained, including: Obtain the first-level weak current limit distance, the second-level weak current limit distance, and so on up to the Nth-level weak current limit distance of the first-level weak current limit distance recording data; Based on the first-level weak current limit distance, the second-level weak current limit distance, and so on up to the Nth-level weak current limit distance, the data recorded for the second-level weak current limit distance are grouped to obtain the set of the first-level weak current limit distance, the set of the second-level weak current limit distance, and so on up to the Nth-level weak current limit distance. The average value of the centralized data is calculated by traversing the set of first weak current restriction distances of the second level, the set of second weak current restriction distances of the second level, up to the set of Nth weak current restriction distances of the second level, to obtain the first weak current restriction distances of the second level, the second weak current restriction distances of the second level, up to the Nth weak current restriction distances of the second level; The average value of the centralized data is calculated for the secondary first weak current limiting distance, the secondary second weak current limiting distance up to the secondary Nth weak current limiting distance, and the primary first weak current limiting distance, the primary second weak current limiting distance up to the primary Nth weak current limiting distance, to obtain the weak current limiting distance identifier value; Based on the coordinates of the high-voltage wiring distribution area, and combined with the low-voltage wiring restriction distance identifier value, the restriction area is calibrated to obtain the coordinates of the first low-voltage wiring restriction area.

5. The low-voltage adaptive wiring path planning method as described in claim 1, characterized in that, Obtain the coordinates of the starting point and ending point of the low-voltage cabling, and perform cabling optimization based on the coordinates of the restricted area to obtain a low-voltage cabling scheme, including: Based on the coordinates of the low-voltage cabling restricted area, configure the low-voltage cabling area coordinates in the three-dimensional cabling space model; Based on the starting coordinates and ending coordinates of the low-voltage wiring, random wiring is performed in the coordinates of the low-voltage wiring area to obtain a first set of low-voltage wiring schemes, wherein the random wiring path is parallel to the horizontal or vertical direction. Extract the first wiring length set from the first set of low-voltage wiring schemes; Extract the minimum value of the first set of wiring lengths to obtain the low-voltage wiring scheme.

6. The low-voltage adaptive wiring path planning method as described in claim 1, characterized in that, Obtaining the starting and ending coordinates of the low-voltage cabling, optimizing the cabling based on the coordinates of the restricted area, and obtaining a low-voltage cabling scheme, the process also includes: Based on the coordinates of the low-voltage cabling restricted area, configure the low-voltage cabling area coordinates in the three-dimensional cabling space model; Based on the coordinates of the starting point and the ending point of the low-voltage wiring, random wiring is performed in the coordinates of the low-voltage wiring area to obtain a second set of low-voltage wiring schemes with a wiring length less than or equal to a wiring length threshold. The random wiring path is parallel to the horizontal or vertical direction. Extract the set of right angles from the second set of low-voltage wiring schemes; Extract the minimum value of the set of right angles to obtain the low-voltage wiring scheme.

7. The low-voltage adaptive wiring path planning method as described in claim 1, characterized in that, Obtaining the starting and ending coordinates of the low-voltage cabling, optimizing the cabling based on the coordinates of the restricted area, and obtaining a low-voltage cabling scheme, the process also includes: Based on the coordinates of the low-voltage cabling restricted area, configure the low-voltage cabling area coordinates in the three-dimensional cabling space model; Based on the starting coordinates and ending coordinates of the low-voltage wiring, random wiring is performed in the coordinates of the low-voltage wiring area to obtain a third set of low-voltage wiring schemes with the number of right angles less than or equal to the threshold number of right angles. The random wiring path is parallel to the horizontal or vertical direction. Extract the second wiring length set from the third set of low-voltage wiring schemes; Extract the minimum value of the second set of wiring lengths to obtain the low-voltage wiring scheme.

8. An electronic device, characterized in that, The electronic device includes: Memory, used to store executable instructions; The processor, when executing executable instructions stored in the memory, implements the weak current adaptive wiring path planning method according to any one of claims 1-7.

9. A computer-readable storage medium having a computer program stored thereon, characterized in that, When the program is executed by the processor, it implements a low-voltage adaptive cabling path planning method as described in any one of claims 1-7.

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