Building lane lighting arrangement method and system based on lane center line and medium

Abstract

The application discloses a building lane lighting arrangement method and system based on a lane center line and a medium, relates to the technical field of building lane lighting, and constructs a container information table based on the lane center line of each target building lane, pre-arranges the target building lane according to the number of ordinary lighting end devices and the number of emergency lighting end devices, and performs supplementary arrangement at the corners of the target building lane according to the index of the lane center line, finally, all emergency lighting end devices on the target building lane are traversed based on a recursive method, and the emergency lighting end devices that overlap with the package surface domain of the ordinary lighting end devices are adjusted in offset; ordinary lighting and emergency lighting automatic arrangement and automatic avoidance based on the lane center line of the building engineering are realized.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of building lane lighting, in particular to a building lane lighting arrangement method and system based on a lane center line and a medium. BACKGROUND

[0002] In the field of building engineering electricity, the arrangement of lighting end devices is extremely important; under the current digital background, ordinary lighting is required to take "energy saving and comfort" as the core, emergency lighting takes "safety redundancy" as the bottom line, and ordinary lighting and emergency lighting need to be gradually integrated on an intelligent platform, taking into account overall planning for design. For ordinary lighting and emergency lighting arrangement of the lane, the traditional way is generally based on visual judgment of the point of the end device, and then manually arranging the end device.

[0003] However, the visual judgment method has low efficiency and time-consuming, and needs to calculate the average illuminance repeatedly and redundantly based on the length and width of each lane and the nearby construction situation, and under the condition of repeated calculation and complexity, human calculation errors are also prone to occur, therefore, under the requirement of digitization, an automatic arrangement of ordinary lighting and emergency lighting based on the building lane is proposed.

[0004] At present, in the field of building engineering electricity, most of the automatic arrangement of ordinary lighting and emergency lighting first needs to determine the building type and the lane lighting specification requirements, which are used for the selection and query of the illuminance requirements of the end devices for ordinary lighting and emergency lighting; then the center line of the lane is selected within the range of the basement of the building engineering; on this basis, the utilization coefficient method is used to analyze the utilization coefficient value of the end device based on the reflection coefficient of the ground, wall and ceiling near the lane; based on the utilization coefficient value of the end device and the illuminance requirement of the specification requirement, the minimum number of end devices is solved; finally, according to the minimum number of end devices, the parity is judged, if it is odd, the number is added by one, and then the number is divided by two to arrange in double rows. To a certain extent, it realizes the semi-automatic arrangement of lighting and emergency lighting, which can improve the work efficiency of the field of building engineering electricity lighting to a certain extent and reduce the rework rate.

[0005] The current most ordinary lighting and emergency lighting automatic arrangement based on the lane center line of the construction project can basically only pick up a single lane center line, in which case, after completing the automatic arrangement on each lane, the center line of the next lane needs to be picked up, which will exist a lot of complex and redundant work, and the actual efficiency is still insufficient. And since each automatic arrangement only considers a single lane center line, there are a large number of continuous lanes with corners in actual projects, and the illumination requirement at the corner may not be met. And due to the different illumination requirements of ordinary lighting and emergency lighting, the end device points of ordinary lighting and emergency lighting may overlap, which will affect the normal projection of the light source and reduce the actual use illumination. SUMMARY

[0006] The technical problem to be solved by the present application is that the current automatic arrangement of lighting end devices in the construction project cannot solve the automatic arrangement of multiple construction project lanes at one time, and the illumination requirement at the corner cannot be considered during single automatic arrangement. The end device points of ordinary lighting and emergency lighting may overlap. The present application aims to provide a construction lane lighting arrangement method, system and medium based on lane center line, which automatically arranges ordinary lighting and emergency lighting based on the lane center line of the construction project, realizes the automatic arrangement of the construction project lane, and avoids the overlap of the end device points of ordinary lighting and emergency lighting.

[0007] The present application is realized by the following technical scheme:

[0008] The present application provides a construction lane lighting arrangement method based on lane center line, comprising:

[0009] Constructing an illumination requirement database and an end device library containing utilization coefficients;

[0010] Determine the basic information of the ordinary lighting end device and the emergency lighting end device to be arranged, which includes device style and package surface area;

[0011] Construct a container information table based on the lane center line of each target construction lane; the container information table includes an ordinary lighting end device container information table and an emergency lighting end device container information table;

[0012] Based on the container information table, the illumination requirement database and the end device library, calculate the number of ordinary lighting end devices and the number of emergency lighting end devices required for each target construction lane;

[0013] According to the number of ordinary lighting end devices and the number of emergency lighting end devices, pre-arrange the target construction lane, and supplement the arrangement at the corner of the target construction lane according to the index of the lane center line;

[0014] The recursive method is used to traverse all emergency lighting end devices on the target building lane, and the emergency lighting end devices overlapping with the package surface area of the general lighting end devices are adjusted.

[0015] The further optimization scheme is that the construction illumination requirement database and the end device library containing utilization coefficients are included.

[0016] The illumination requirement database is obtained by collecting illumination standards and manuals of different building engineering types, the information and light distribution curve of the lighting end device are obtained by parsing the Illuminating Engineering Society document, and the end device library containing utilization coefficients is constructed according to the information and light distribution curve of the lighting end device.

[0017] The further optimization scheme is that the package surface area includes the maximum value maxX of the general lighting end device or the emergency lighting end device in the X-axis direction, the minimum value minX in the X-axis direction, the maximum value maxY in the Y-axis direction, and the minimum value minY in the Y-axis direction.

[0018] The further optimization scheme is that the container information table is constructed based on the lane center line of each target building lane.

[0019] A two-dimensional first container table is constructed, the rows of the first container table respectively store the lane index, the lane length, the lane width, the lane ceiling height, the wall, the ceiling and the ground reflectance near the lane, and the columns of the first container table respectively store different target building lanes.

[0020] The second container table and the third container table are constructed, the wall, the ceiling and the ground reflectance near each target building lane are searched in the end device library, the utilization coefficients of the general lighting end devices of each target building lane are stored in the second container table, and the utilization coefficients of the emergency lighting end devices of each target building lane are stored in the third container table.

[0021] The further optimization scheme is that the container information table, the illumination requirement database and the end device library are used to calculate the required number of general lighting end devices and emergency lighting end devices for each target building lane.

[0022] According to the illumination requirement database, the first container table is traversed, the required number N of end devices m for each target building lane is calculated based on the lane length, the lane ceiling height, and the utilization coefficient, the luminous flux and the maintenance coefficient of the end device m.

[0023]

[0024] Wherein, N represents the number of end devices m, wherein, end device m=1 or 2; end device m=1 represents a general lighting end device; end device m=2 represents an emergency lighting end device; E av_req represents the illumination requirement of general lighting or emergency lighting obtained based on the illumination requirement database; L and W respectively represent the length and width of the target building lane, in mm; U represents the utilization coefficient of end device m; K represents the maintenance coefficient of end device m; represents the luminous flux of end device m.

[0025] A further optimization scheme is that the target building lane is pre-arranged according to the number of general lighting end devices and the number of emergency lighting end devices, and is additionally arranged at the corner of the target building lane according to the index of the lane center line; including a method:

[0026] N general lighting end devices or emergency lighting end devices are uniformly arranged on the target building lane at a distance D;

[0027] Two auxiliary arrangement lines are determined based on the lane center line, and general lighting end devices or emergency lighting end devices are uniformly arranged on the auxiliary arrangement lines at a distance D, the height of the general lighting end devices or the height of the emergency lighting end devices on the auxiliary arrangement lines being the same as the height of the lane ceiling; the auxiliary arrangement lines are parallel to the lane center line, and the distance to the lane center line is W / 2;

[0028] According to the index of the lane center line, general lighting end devices or emergency lighting end devices are alternately supplemented and offset at the corner of the target building lane based on the direction of the lane unit vector.

[0029] A further optimization scheme is that general lighting end devices or emergency lighting end devices are alternately supplemented and offset at the corner of the target building lane according to the index of the lane center line based on the direction of the lane unit vector; including a method:

[0030] Determine whether the index of the lane center line is odd or even:

[0031] If the current index is odd, one general lighting end device or emergency lighting end device is supplemented to the current target building lane; the distance of the general lighting end device or the emergency lighting end device on the target building lane is reset to D 2n+1 ; and the general lighting end device or the emergency lighting end device already arranged on the target building lane is offset to the starting point along the direction of the lane unit vector, and the offset distance is |D 2n+1 -D|;

[0032] If the current index is even and not the maximum value of the index, the current target building lane is provided with N+1 normal lighting end devices or emergency lighting end devices, the spacing of the normal lighting end devices or emergency lighting end devices on the target building lane is reset to D 2n , and the normal lighting end devices or emergency lighting end devices already arranged on the target building lane are offset from the starting point in the direction of the lane unit vector by a spacing of |D 2n -D|;

[0033] If the current index is even and not the maximum value of the index, the current target building lane is provided with N-1 normal lighting end devices or emergency lighting end devices, the spacing of the normal lighting end devices or emergency lighting end devices on the target building lane is adjusted to D 2m , and the normal lighting end devices or emergency lighting end devices already arranged on the target building lane are offset from the starting point in the direction of the lane unit vector by a spacing of |D 2m -D|.

[0034] A further optimization scheme is that the recursive method traverses all emergency lighting end devices on the target building lane, and adjusts the emergency lighting end devices that overlap with the normal lighting end device package surface domain; including the method:

[0035] S61, obtaining the package surface domain of each emergency lighting end device, and determining whether the package surface domain of each emergency lighting end device intersects with the package surface domain of the normal lighting end device;

[0036] S62, if the package surface domain of the current emergency lighting end device intersects with the package surface domain of the normal lighting end device, the current emergency lighting end device is adjusted by a fixed offset, and steps S61 and S62 are repeatedly executed until the package surface domain of the current emergency lighting end device does not intersect with the package surface domain of the normal lighting end device.

[0037] The scheme also provides a building lane lighting arrangement system based on a lane center line, which is used to implement the building lane lighting arrangement method based on the lane center line; the system includes:

[0038] A database construction module is configured to construct an illuminance requirement database and an end device library containing utilization coefficients;

[0039] A determination module is configured to determine the basic information of the normal lighting end devices and the emergency lighting end devices to be arranged, the basic information including device styles and package surface domains;

[0040] a container table construction module, configured to construct a container information table based on a lane center line of each target construction lane; the container information table comprises a general lighting end device container information table and an emergency lighting end device container information table;

[0041] a calculation module, configured to calculate a general lighting end device quantity and an emergency lighting end device quantity required by each target construction lane based on the container information table, an illuminance requirement database and an end device library;

[0042] a layout module, configured to pre-layout the target construction lane according to the general lighting end device quantity and the emergency lighting end device quantity, and supplement the layout at a corner of the target construction lane according to an index of the lane center line;

[0043] an adjustment module, configured to offset adjust an emergency lighting end device that overlaps with a general lighting end device package surface domain based on a recursive method traversing all emergency lighting end devices on the target construction lane.

[0044] The scheme also provides a computer readable medium, which stores a computer program, and the computer program can be executed by a processor to realize the construction lane lighting layout method based on a lane center line.

[0045] Compared with the prior art, the present application has the following advantages and beneficial effects:

[0046] The present application provides a construction lane lighting layout method based on a lane center line, a system and a medium, constructs a container information table based on a lane center line of each target construction lane, pre-arranges the target construction lane according to a general lighting end device quantity and an emergency lighting end device quantity, and supplements the layout at a corner of the target construction lane according to an index of the lane center line, and finally offset adjusts an emergency lighting end device that overlaps with a general lighting end device package surface domain based on a recursive method traversing all emergency lighting end devices on the target construction lane; realizes automatic arrangement and automatic avoidance of general lighting and emergency lighting based on a construction engineering lane center line. BRIEF DESCRIPTION OF DRAWINGS

[0047] In order to more clearly illustrate the technical scheme in the exemplary embodiments of the present application, the following will briefly introduce the drawings needed to be used in the embodiments, and it should be understood that the following drawings only show some embodiments of the present application, and therefore should not be regarded as a limitation to the scope, and for those skilled in the art, other related drawings can also be obtained without paying creative labor. In the drawings:

[0048] Figure 1 a flowchart of the construction lane lighting layout method based on a lane center line;

[0049] Figure 2 Fig. 1 is a schematic diagram of information and light distribution curve of a lighting end device corresponding to a lighting engineering association document;

[0050] Figure 3 Fig. 2 is a schematic diagram of a general lighting end device arrangement for a building lane;

[0051] Figure 4 Fig. 3 is a schematic diagram of automatic avoidance of a lane emergency lighting end device;

[0052] Figure 5 Fig. 4 is a schematic diagram of a building lane lighting arrangement system structure based on a lane center line. DETAILED DESCRIPTION

[0053] In order to make the purpose, technical solutions and advantages of the present application clearer and more apparent, the present application will be further described in detail below with reference to the embodiments and the accompanying drawings, the schematic embodiments of the present application and the description thereof are only used to explain the present application, and do not limit the present application.

[0054] When the lighting end device is automatically arranged in the current building engineering lane, the automatic arrangement of multiple sections of the lane cannot be solved at one time, and the illumination requirement at the corner cannot be considered when the single section is automatically arranged, and the general lighting and emergency lighting points may coincide. In view of this, the present application provides the following embodiments to solve the above technical problems:

[0055] Embodiment 1: The embodiment provides a building lane lighting arrangement method based on a lane center line, as shown in Fig. 2, which comprises the following steps: Figure 1

[0056] Step 1: Construct an illumination requirement database and an end device library containing utilization coefficients; specifically, the step comprises the following method:

[0057] Collect the lighting standards and manuals under different building engineering types to obtain the illumination requirement database, obtain the information and light distribution curve of the lighting end device by analyzing the lighting engineering association document, and construct the end device library containing the utilization coefficient according to the information and light distribution curve of the lighting end device.

[0058] Specifically, the lighting standards and manuals are, for example, “Lighting Design Manual (Third Edition)”, “Building Lighting Design Standard (GB / T50034-2024)”, “Technical Standard for Fire Emergency Lighting and Evacuation Indication System (GB 51309-2018)”, etc.; the light distribution curve of the lighting end device corresponding to the lighting engineering association document is as shown in Fig. 1, wherein the light curve is the light distribution curve when the horizontal angle of the lighting end device is 0°, and the dark curve is the light distribution curve when the horizontal angle of the lighting end device is maximum. Figure 2

[0059] ​​Step two: determine the basic information of the general lighting end device and the emergency lighting end device to be arranged, including the device style and the wrapping surface area; as shown in Table 1, the wrapping surface area includes the maximum value maxX of the general lighting end device or the emergency lighting end device in the X-axis direction, the minimum value minX in the X-axis direction, the maximum value maxY in the Y-axis direction, and the minimum value minY in the Y-axis direction.

[0060] Table 1 wrapping surface area information table

[0061]

[0062] Step three: construct a container information table based on the lane center line of each target building lane; the container information table includes a general lighting end device container information table and an emergency lighting end device container information table; the container information table is constructed based on the lane center line of each target building lane; including the method:

[0063] Construct a two-dimensional first container table, and the rows of the first container table respectively store the lane index, the lane length, the lane width, the lane ceiling height, the wall, the ceiling and the ground reflectance near the lane; the columns of the first container table respectively store different target building lanes;

[0064] Construct a second container table and a third container table, search in the end device library based on the wall, the ceiling and the ground reflectance near each target building lane, store the utilization coefficient of the general lighting end device of each target building lane in the second container table, and store the utilization coefficient of the emergency lighting end device of each target building lane in the third container table. The wall, the ceiling and the ground reflectance near each target building lane correspond to the lighting device utilization coefficient value, which can be consulted in the “Lighting Design Manual (Third Edition)”, as shown in Table 2.

[0065] Table 2 utilization coefficient table

[0066]

[0067] Step four: based on the container information table, the illuminance requirement database and the end device library, calculate the number of general lighting end devices and emergency lighting end devices required for each target building lane; this step specifically includes the method:

[0068] According to the illuminance requirement database, traverse the first container table, and based on the lane length, the lane ceiling height of each target building lane, and the utilization coefficient, the luminous flux and the maintenance coefficient of the end device m, calculate the number N of the end device m required for each target building lane;

[0069]

[0070] Wherein, N represents the number of end devices m, wherein, end device m = 1 or 2; end device m = 1 represents a general lighting end device; end device m = 2 represents an emergency lighting end device; E av_req represents the illumination requirement of general lighting or emergency lighting obtained based on the illumination requirement database; L and W respectively represent the length and width of the target building lane, in mm; U represents the utilization coefficient of end device m; K represents the maintenance coefficient of end device m; represents the luminous flux of end device m.

[0071] Step five: pre-arranging the target building lane according to the number of general lighting end devices and the number of emergency lighting end devices, and supplementally arranging at the corners of the target building lane according to the index of the lane center line; this step specifically includes the method of:

[0072] uniformly arranging N general lighting end devices or emergency lighting end devices on the target building lane at a distance D; wherein, ;

[0073] determining two auxiliary arrangement lines based on the lane center line, and uniformly arranging general lighting end devices or emergency lighting end devices on the auxiliary arrangement lines at a distance D, the height of the general lighting end devices or the height of the emergency lighting end devices on the auxiliary arrangement lines being the same as the height of the lane ceiling; the auxiliary arrangement lines are parallel to the lane center line, and the distance to the lane center line is W / 2;

[0074] alternately supplementing and offsetting general lighting end devices or emergency lighting end devices at the corners of the target building lane based on the direction of the lane unit vector according to the index of the lane center line. In this embodiment, the index of the lane center line mainly refers to the number representing the lane; this step specifically includes the method of:

[0075] determining whether the index of the lane center line is odd or even:

[0076] if the current index is odd, supplementing 1 general lighting end device or emergency lighting end device to the current target building lane; resetting the distance of the general lighting end devices or the emergency lighting end devices on the target building lane to D 2n+1 ; first arranging a general lighting end device or an emergency lighting end device at the start and end points of the target building lane, and then offsetting the general lighting end devices or the emergency lighting end devices already arranged on the target building lane in the direction of the lane unit vector towards the start point, the offset distance being |D 2n+1 -D| ; ;

[0077] If the current index is even and is not the maximum value of the index, because the end of the lane corresponding to the previous index is supplemented with an ordinary lighting end device or an emergency lighting end device, and the start of the lane behind is also offset by an ordinary lighting end device or an emergency lighting end device, these ordinary lighting end devices or emergency lighting end devices can also provide illumination on the section of the lane, in order to reduce costs and achieve energy-saving lighting requirements, therefore, the current target building lane needs to be provided with N+1 ordinary lighting end devices or emergency lighting end devices, and the spacing of the ordinary lighting end devices or emergency lighting end devices on the target building lane is reset to D 2n ; then the ordinary lighting end devices or emergency lighting end devices already arranged on the target building lane are offset towards the start along the direction of the lane unit vector, and the offset spacing is |D 2n -D|; ;

[0078] If the current index is even and is the maximum value of the index, because only the end of the lane corresponding to the previous index is supplemented with an ordinary lighting end device or an emergency lighting end device, the ordinary lighting end device or emergency lighting end device can also provide illumination on the section of the lane, therefore, the current target building lane needs to be provided with N-1 ordinary lighting end devices or emergency lighting end devices, and the spacing of the ordinary lighting end devices or emergency lighting end devices on the target building lane is adjusted to D 2n-1 ; then the ordinary lighting end devices or emergency lighting end devices already arranged on the target building lane are offset towards the start along the direction of the lane unit vector, and the offset spacing is |D 2m -D|; ; the lane ordinary lighting end device arrangement schematic diagram is shown in Figure 3 .

[0079] Step six: based on the recursive method, all emergency lighting end devices on the target building lane are traversed, and the emergency lighting end devices that overlap with the ordinary lighting end device wrapping surface domain are offset and adjusted.

[0080] This step specifically includes the following methods:

[0081] S61, obtaining the wrapping surface domain of each emergency lighting end device, and judging whether the wrapping surface domain of each emergency lighting end device intersects with the wrapping surface domain of the ordinary lighting end device;

[0082] S62, if the package surface domain of the current emergency lighting end device intersects with the package surface domain of the general lighting end device, the current emergency lighting end device is adjusted by a fixed offset, and steps S61 and S62 are repeatedly executed until the package surface domain of the current emergency lighting end device does not intersect with the package surface domain of the general lighting end device; the fixed offset is 100 mm in the embodiment. The result of automatically avoiding the general lighting end device by the emergency lighting end device based on recursion is shown in FIG. 6. Figure 4

[0083] Embodiment 2

[0084] The embodiment provides a building lane lighting arrangement system based on a lane center line, as shown in FIG. 7, for implementing the building lane lighting arrangement method based on a lane center line described in embodiment 1; the system comprises: Figure 5

[0085] a database construction module for constructing an illuminance requirement database and an end device library containing utilization coefficients;

[0086] a determination module for determining basic information of the general lighting end device and the emergency lighting end device to be arranged, the basic information including device styles and package surface domains;

[0087] a container table construction module for constructing a container information table based on the lane center line of each target building lane; the container information table includes a general lighting end device container information table and an emergency lighting end device container information table;

[0088] a calculation module for calculating the number of general lighting end devices and the number of emergency lighting end devices required for each target building lane based on the container information table, the illuminance requirement database and the end device library;

[0089] an arrangement module for pre-arranging the target building lane according to the number of general lighting end devices and the number of emergency lighting end devices, and supplementally arranging at corners of the target building lane according to the index of the lane center line;

[0090] an adjustment module for offset adjusting the emergency lighting end devices that have overlapping package surface domains with the general lighting end devices based on a recursive method for traversing all the emergency lighting end devices on the target building lane.

[0091] Embodiment 3

[0092] The embodiment provides a computer readable medium having a computer program stored thereon, and the computer program is executed by a processor to implement the building lane lighting arrangement method based on a lane center line as described in embodiment 1; the following steps are specifically executed:

[0093] ​​Step one: constructing an illumination requirement database and an end device library containing utilization coefficients;

[0094] Step two: determining the basic information of the general lighting end device and the emergency lighting end device to be arranged, the basic information including device style and wrapping surface area;

[0095] Step three: constructing a container information table based on the lane centerline of each target building lane; the container information table including a general lighting end device container information table and an emergency lighting end device container information table;

[0096] Step four: calculating the number of general lighting end devices and the number of emergency lighting end devices required for each target building lane based on the container information table, the illumination requirement database and the end device library;

[0097] Step five: pre-arranging the target building lane according to the number of general lighting end devices and the number of emergency lighting end devices, and supplementing the arrangement at the corner of the target building lane according to the index of the lane centerline;

[0098] Step six: offset adjusting the emergency lighting end devices that have overlapping wrapping surface area with the general lighting end devices based on the recursive method to traverse all the emergency lighting end devices on the target building lane.

[0099] The above detailed description further explains the purpose, technical solutions and beneficial effects of the present application. It should be understood that the above description is only a specific embodiment of the present application and is not used to limit the protection scope of the present application. Any modification, equivalent replacement, improvement, etc. within the spirit and principle of the present application should be included in the protection scope of the present application.

Claims

1. A method of arranging a building lane lighting based on a lane center line, characterized by, The method comprises the following steps: constructing an illumination requirement database and a terminal device library containing utilization coefficients; determining the basic information of the general lighting terminal devices and the emergency lighting terminal devices to be arranged, the basic information including device styles and package surface domains; constructing a container information table based on the lane centerlines of the target building lanes; the container information table includes a general lighting terminal device container information table and an emergency lighting terminal device container information table; the container information table is constructed based on the lane centerlines of the target building lanes; The method comprises the following steps: constructing a two-dimensional first container table, wherein the rows of the first container table respectively store lane indexes, lane lengths, lane widths, lane ceiling heights, wall, ceiling and ground reflectance near the lanes, and the columns of the first container table respectively store different target building lanes; constructing a second container table and a third container table, searching in the terminal device library based on the wall, ceiling and ground reflectance near the lanes of the target building lanes, storing the utilization coefficients of the general lighting terminal devices of the target building lanes in the second container table, and storing the utilization coefficients of the emergency lighting terminal devices of the target building lanes in the third container table; calculating the required number of general lighting terminal devices and the required number of emergency lighting terminal devices for each target building lane based on the container information table, the illumination requirement database and the terminal device library; pre-arranging the target building lanes according to the number of general lighting terminal devices and the number of emergency lighting terminal devices, and supplementally arranging at the corners of the target building lanes according to the indexes of the lane centerlines; recursively traversing all the emergency lighting terminal devices on the target building lanes, and adjusting the offset of the emergency lighting terminal devices that overlap with the package surface domains of the general lighting terminal devices.

2. The method of claim 1, wherein, The method comprises the following steps: constructing an illumination requirement database and a terminal device library containing utilization coefficients; The method comprises the following steps:

3. The method of claim 1, wherein the lane centerline-based architectural lane lighting arrangement is characterized by, collecting lighting standards and manuals under different building engineering types to obtain the illumination requirement database, obtaining the information and light distribution curves of the lighting terminal devices by analyzing the files of the Illuminating Engineering Society, and constructing the terminal device library containing utilization coefficients based on the information and light distribution curves of the lighting terminal devices.

4. The method for arranging a construction lane lighting based on a lane center line according to claim 1, wherein The package surface domain includes the maximum value maxX in the X-axis direction, the minimum value minX in the X-axis direction, the maximum value maxY in the Y-axis direction, and the minimum value minY in the Y-axis direction. The method comprises the following steps: calculating the required number of general lighting terminal devices and the required number of emergency lighting terminal devices for each target building lane based on the container information table, the illumination requirement database and the terminal device library; wherein N represents the number of end devices m, wherein end device m = 1 or 2; end device m = 1 represents a general lighting end device; end device m = 2 represents an emergency lighting end device; E av_req represents the illumination requirement of general lighting or emergency lighting based on the illumination requirement database; L and W respectively represent the length and width of the target building lane; U represents the utilization coefficient of end device m; K represents the maintenance coefficient of end device m; represents the luminous flux of end device m.

5. The method of claim 4, wherein, The method comprises the following steps: traversing the first container table according to the illumination requirement database, calculating the required number of terminal devices m for each target building lane based on the lane length, the lane ceiling height, and the utilization coefficient, luminous flux and maintenance coefficient of the terminal device m; The method comprises the following steps: N normal lighting end devices or emergency lighting end devices are arranged on the target building lane with a uniform interval D; Two auxiliary arrangement lines are determined based on the lane center line, and the normal lighting end devices or the emergency lighting end devices are arranged on the auxiliary arrangement lines with a uniform interval D, the height of the normal lighting end devices or the height of the emergency lighting end devices on the auxiliary arrangement lines is the same as the height of the lane ceiling; the auxiliary arrangement lines are parallel to the lane center line, and the distance to the lane center line is W / 2; According to the index of the lane center line, the normal lighting end devices or the emergency lighting end devices are supplemented and offset at the corners of the target building lane based on the direction of the lane unit vector.

6. The method of claim 5, wherein the lane centerline-based architectural lane lighting arrangement is characterized by, According to the index of the lane center line, the normal lighting end devices or the emergency lighting end devices are supplemented and offset at the corners of the target building lane based on the direction of the lane unit vector. The method comprises the following steps: Determine whether the index of the lane center line is odd or even: If the current index is odd, supplement one normal lighting end device or one emergency lighting end device to the current target building lane; The spacing of the general lighting end device or emergency lighting end device on the target building lane is D 2n+1 ; and offsetting the general lighting end device or emergency lighting end device already arranged on the target building lane to the starting point in the direction of the lane unit vector by a spacing of |D 2n+1 -D| If the current index is even and is not the maximum value of the index, then the current target building lane is provided with N+1 normal lighting end devices or emergency lighting end devices, and the spacing of the normal lighting end devices or emergency lighting end devices on the target building lane is reset to D 2n ; and the normal lighting end devices or emergency lighting end devices that have been arranged on the target building lane are offset from the starting point in the direction of the lane unit vector by a spacing of |D 2n -D|; If the current index is even and is not the maximum value of the index, then the current target building lane is provided with N-1 normal lighting end devices or emergency lighting end devices, and the spacing of the normal lighting end devices or emergency lighting end devices on the target building lane is adjusted to D 2m ; and the normal lighting end devices or emergency lighting end devices already arranged on the target building lane are offset from the starting point in the direction of the lane unit vector by a spacing of |D 2m -D| 7. The lane centerline based construction lane lighting arrangement method as claimed in claim 1, wherein, The recursive method is used to traverse all the emergency lighting end devices on the target building lane, and the emergency lighting end devices that overlap with the package surface domain of the normal lighting end device are adjusted. The method comprises the following steps: S61, obtain the package surface domain of each emergency lighting end device, and determine whether the package surface domain of each emergency lighting end device intersects with the package surface domain of the normal lighting end device; S62, if the package surface domain of the current emergency lighting end device intersects with the package surface domain of the normal lighting end device, adjust the current emergency lighting end device by a fixed offset, and repeat steps S61 and S62 until the package surface domain of the current emergency lighting end device does not intersect with the package surface domain of the normal lighting end device.

8. A construction lane lighting arrangement system based on lane centerline, characterized by, The system is used to implement the building lane lighting arrangement method based on the lane center line according to any one of claims 1-7, and the system comprises: A database construction module is configured to construct an illuminance requirement database and an end device library containing utilization coefficients; A determination module is configured to determine the basic information of the normal lighting end devices and the emergency lighting end devices to be arranged, the basic information including device styles and package surface domains; A container table construction module is configured to construct a container information table based on the lane center line of each target building lane, the container information table including a normal lighting end device container information table and an emergency lighting end device container information table; A calculation module is configured to calculate the number of normal lighting end devices and the number of emergency lighting end devices required for each target building lane based on the container information table, the illuminance requirement database, and the end device library; An arrangement module is configured to pre-arrange the target building lane according to the number of normal lighting end devices and the number of emergency lighting end devices, and to supplement the arrangement at the corners of the target building lane according to the index of the lane center line; An adjustment module is configured to traverse all the emergency lighting end devices on the target building lane based on a recursive method, and to adjust the emergency lighting end devices that overlap with the package surface domain of the normal lighting end device.

9. A computer readable medium having stored thereon a computer program, characterized in that, The computer program is executed by a processor to implement the method for arranging construction lane lighting based on a lane center line according to any one of claims 1-7.

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