Construction Method of Intelligent Lighting System Based on Plane Mode and Lamp Signal Update Strategy

Abstract

The present invention discloses a construction method of a smart lighting system based on a planar mode, which is applied to a smart lighting system. The smart lighting system includes a lamp control platform and smart lamps, and the method comprises the following steps: input an electronic planar map into the lamp control platform, and draw topographic map blocks for representing lamp scenes on the map. The topographic map blocks are specific scene map blocks distributed at corresponding positions of a planar modeling map according to the actual scene topography; input lamp map blocks, move them to the area where the specified topographic map blocks are located on the map according to the corresponding actual lamp positions, and perform data linking between the lamp map blocks and the actual lamps one by one. The preset lamp attribute information of the corresponding lamps is loaded and displayed at the lamp map blocks; sequentially select at least some of the lamp map blocks on the electronic planar map, group the lamp map blocks, and set a group number; centrally number each group of lamp map blocks; select multiple lamp map blocks and batch-set the lamp attributes.

Description

Technical Field

[0001] The present invention belongs to the technical field of intelligent lighting systems, and particularly relates to a construction method of an intelligent lighting system based on a planar mode and a lamp number update strategy. Background Art

[0002] In the lamp control platform of the existing intelligent lighting system, in order to facilitate the real-time acquisition and observation of the parameter status of lamps, a list mode is generally used for display. Although the list mode can clearly and orderly present the relevant information of the lamps, the list mode often can only mechanically display the lamp attribute information, and it is impossible to intuitively see the information such as the lamp position, status, and the area conditions near the lamp. When multiple lamps need to be selected for operation, it is necessary to select them one by one corresponding to the map and the lamp information list, which is not only very inconvenient and inefficient, but also prone to errors, affecting the operation of the intelligent lighting system. Summary of the Invention

[0003] In order to overcome the deficiencies of the prior art, the present invention provides a construction method of an intelligent lighting system based on a planar mode and a lamp number update strategy, which can intuitively display lamp information, facilitate lamp setting, and ensure the normal operation of the intelligent lighting system.

[0004] In order to achieve the above object, the present invention adopts the following technical solutions: A construction method of an intelligent lighting system based on a planar mode, which is applied to an intelligent lighting system. The intelligent lighting system includes a lamp control platform and intelligent lamps, and the method includes the following steps:

[0005] Input an electronic planar map into the lamp control platform, and draw topographic map blocks for representing the lamp scene on the map. The topographic map blocks are specific scene map blocks distributed at corresponding positions on the planar modeling map according to the actual scene terrain;

[0006] Input lamp map blocks, and move them to the area where the specified topographic map blocks are located on the map according to the corresponding actual lamp positions. The lamp map blocks are data-linked one by one with the actual lamps, and the preset lamp attribute information of the corresponding lamps is loaded and displayed at the lamp map blocks;

[0007] Sequentially select at least part of the lamp map blocks on the electronic planar map, group the lamp map blocks, and set group numbers;

[0008] Concentratedly number each group of lamp map blocks;

[0009] Select multiple lamp map blocks and batch-set the lamp attributes.

[0010] Preferably, the lamp blocks are respectively displayed with different states in the first color and the second color. When the actual state of the lamp is normal, the corresponding lamp block is in the first color; when the actual state of the lamp is abnormal, the corresponding lamp block is in the second color. A fault display module for displaying the number of lamp blocks in the second color is provided on the electronic plane map.

[0011] Preferably, after grouping and setting the group number, the grouping frame is identified and drawn through the preset front-end path algorithm, and the group number is displayed.

[0012] Preferably, the step of "selecting several lamp blocks and batch-setting the lamp attributes" includes: selecting the lamp blocks in at least one area on the electronic plane map through a selection box to generate a first lamp block area; selectively selecting a part of the area in the first lamp block area through a screening box to generate a second lamp block area; removing the second lamp block area from the first lamp block area to obtain the area to be attribute-set; and batch-setting the lamp attributes of the lamp blocks in the area to be attribute-set.

[0013] Preferably, the step of centrally numbering each group of lamp blocks includes: selecting at least one group of lamp blocks, setting the range of lamp numbers to be numbered, clicking on each lamp block one by one to overwrite the preset numbers pre-loaded in the lamp blocks, and sequentially assigning the set lamp numbers to the corresponding lamp blocks.

[0014] A lamp number update strategy, based on the construction method of a smart lighting system based on a planar mode described in any one of the above, when replacing multiple new lamps in different areas, the new lamps are remotely activated one by one through the lamp control platform, and the new lamps report their lamp numbers, and the lamp information of the lamp blocks corresponding to the old lamps is updated to the lamp information of the new lamps. The steps include:

[0015] Select one of the areas where the lamps are replaced on the electronic plane map, and select the lamp blocks near the lamp blocks corresponding to the old lamps in the replacement area as the signal-sending lamps;

[0016] Set the signal strength of the signal-sending lamps to the weakest level, activate the signal-sending lamps, and the signal-sending lamps send a 0-hop request to the surrounding area. The standard of the weakest level is that the lamp can only activate several nearest lamps, and the 0-hop request means that after the lamp requests to activate the nearby lamps, the nearby lamps are activated and not forwarded.

[0017] The new lamps in this area receive the request and report their lamp information to the lamp control platform;

[0018] The lamp control platform receives the lamp information and updates the lamp information of the lamp blocks corresponding to the old lamps in this replacement area to the lamp information of the new lamps;

[0019] Update the lamp information of the lamp tiles corresponding to the old lamps in each replacement area in this way in sequence.

[0020] The technical effects of the present invention are as follows:

[0021] 1. Through the above construction method, the lamp status and lamp attributes can be directly and visually displayed on the electronic plane map, and the lamp machines can be grouped by means of box selection, and the numbering and attribute settings of the lamps can be carried out batch by batch, so as to effectively improve the convenience of the control settings of the intelligent lamp system and ensure the normal operation of the intelligent lamp system.

[0022] 2. Through the above update method, the information of multiple new lamps can be quickly corresponded to the lamp tiles of the old lamps, without relying on the excitation and reporting information of the staff at the lamp installation site. Multiple lamps after replacement can be remotely excited, so that the lamps report information in sequence respectively, and correspond to the original lamps in the electronic plane map in sequence, thereby further improving the convenience of the control of the intelligent lamp system. Specific embodiments

[0023] The present invention will be further described below through specific embodiments and drawings.

[0024] A construction method of an intelligent lighting system based on a planar mode is applied to the intelligent lighting system. The intelligent lighting system includes a lamp control platform and intelligent lamps. The lamp control platform can be an intelligent device such as a computer or a server with a display screen, and the intelligent lamps are intelligent lamps with wireless communication functions.

[0025] A construction method of an intelligent lighting system based on a planar mode includes the following steps:

[0026] Input an electronic plane map into the lamp control platform. The electronic plane map can be a CAD drawing. A topographic map block for representing the lamp scene is drawn on the map according to the actual scene. The topographic map block is a specific scene map block distributed at the corresponding position of the plane modeling map according to the actual scene topography;

[0027] Input the lamp tiles, move them to the area where the specified topographic map block is located on the map according to the corresponding actual lamp positions. The lamp tiles are data-linked one by one with the actual lamps, and the preset lamp attribute information of the corresponding lamps is loaded and displayed at the lamp tiles.

[0028] Select at least part of the lamp tiles on the electronic plane map in sequence, group the lamp tiles, and set the group number;

[0029] Identify and draw grouping frames through a preset front-end path algorithm, and display group numbers within the grouping frames of each group. The group numbers can be displayed as small numbers at a corner of the grouping frame or as light-colored tiles covering the lighting fixture tiles within the grouping frame, and the light-colored tiles will not affect the presentation of other tiles on the electronic floor plan;

[0030] Conduct centralized numbering for each group of lighting fixture tiles;

[0031] Select multiple lighting fixture tiles and batch-set the lighting fixture attributes.

[0032] Specifically, the specific scenario tiles can be graphic blocks of specific scenarios such as intersections, ramps, parking spaces, lanes, elevator shafts, etc.

[0033] Furthermore, the lighting fixture attributes include the signal strength, brightness, color temperature of the lighting fixture, the sensitivity of the induction element installed on the lighting fixture, the adjacent group settings between adjacent lighting groups, the operating mode of the lighting fixture, etc.

[0034] Furthermore, the lighting fixture tiles are respectively displayed with different states using a first color and a second color. The first color can be green, and the second color can be red; when the actual lighting fixture state is normal, the corresponding lighting fixture tile is green, and when the actual lighting fixture state is abnormal, the corresponding lighting fixture tile is red.

[0035] Furthermore, a fault display module is set at the lower right corner of the electronic floor plan, and the fault display module displays the number of lighting fixtures with abnormal states.

[0036] Furthermore, the step of "selecting several lighting fixture tiles and batch-setting the lighting fixture attributes" includes using a selection frame to select the lighting fixture tiles in at least one area on the electronic floor plan to generate a first lighting fixture tile area, using a screening frame to selectively select a partial area within the first lighting fixture tile area to generate a second lighting fixture tile area, removing the second lighting fixture tile area from the first lighting fixture tile area to obtain an area to be attribute-set, and batch-setting the lighting fixture attributes for the lighting fixture tiles in the area to be attribute-set.

[0037] Furthermore, the step of centralized numbering includes selecting at least one group of lighting fixture tiles, setting the range of lamp numbers to be numbered, clicking on the lighting fixture tiles one by one to overwrite the preset numbers pre-loaded in the lighting fixture tiles, and sequentially assigning the set lamp numbers to the corresponding lighting fixture tiles.

[0038] Furthermore, when replacing multiple new lighting fixtures in different areas, remotely activate the new lighting fixtures one by one through the lamp control platform. The new lighting fixtures report their lamp numbers, and the lighting fixture information of the lighting fixture tiles corresponding to the old lighting fixtures is updated to the lighting fixture information of the new lighting fixtures. The steps include:

[0039] Select one of the areas for replacing lamps on the electronic plane map, and select the lamp tiles near the lamp tile corresponding to the old lamp in the replacement area as the signal - sending lamps;

[0040] Set the signal strength of the signal - sending lamps to the weakest level, activate the signal - sending lamps, and the signal - sending lamps send 0 - hop requests to the surrounding area; the standard of the weakest level is that the lamps can only activate several nearest lamps, and the 0 - hop request means that after the lamps request to activate the nearby lamps, the nearby lamps are activated and not forwarded.

[0041] The new lamps in this area receive the requests and report the lamp information to the lamp control platform;

[0042] The lamp control platform receives the lamp information and updates the lamp information of the lamp tile corresponding to the old lamp in this replacement area to the lamp information of the new lamp;

[0043] Update the lamp information of the lamp tile corresponding to the old lamp in each replacement area in this way successively.

[0044] The above are only specific embodiments of the present invention, but the structural features of the present invention are not limited thereto. The present invention can be used on similar products, and any changes or modifications made by any person skilled in the art within the scope of the present invention are covered by the patent scope of the present invention.

Claims

1. A construction method of an intelligent lighting system based on a planar mode, applied to an intelligent lighting system, the intelligent lighting system comprising a lamp control platform and intelligent lamps, characterized in that, The steps include: Input an electronic plane map in the lighting control platform, and draw topographic map blocks for representing the lighting scenes on the map. The topographic map blocks are specific scene blocks distributed at corresponding positions on the plane modeling map according to the actual scene terrain; the specific scene blocks are intersections, ramps, parking spaces, lanes or elevator shafts; Input lighting fixture blocks, and move them to the area where the specified topographic map blocks are located on the map according to the corresponding actual lighting fixture positions. The lighting fixture blocks are data-linked one by one with the actual lighting fixtures, and the preset lighting fixture attribute information of the corresponding lighting fixtures is loaded and displayed at the lighting fixture blocks; Sequentially select at least some of the lighting fixture blocks on the electronic plane map, group the lighting fixture blocks, and set group numbers; centrally number each group of lighting fixture blocks; Select multiple lighting fixture blocks and batch-set the lighting fixture attributes; When replacing multiple new lighting fixtures in different areas, remotely activate the new lighting fixtures one by one through the lighting control platform. The new lighting fixtures report their lamp numbers, and the lighting fixture information of the lighting fixture blocks corresponding to the old lighting fixtures is updated to the lighting fixture information of the new lighting fixtures. The steps include: Select one of the areas where the lighting fixtures are replaced on the electronic plane map, and select the lighting fixture blocks near the lighting fixture blocks corresponding to the old lighting fixtures in the replacement area as the signal-sending lighting fixtures; Set the signal strength of the signal-sending lighting fixtures to the weakest level, activate the signal-sending lighting fixtures, and the signal-sending lighting fixtures send a 0-hop request to the surrounding area. The standard of the weakest level is that the lighting fixture can only activate several nearest lighting fixtures, and the 0-hop request means that after the lighting fixture requests to activate the nearby lighting fixtures, the nearby lighting fixtures are activated and not forwarded; The new lighting fixtures in this area receive the request and report their lighting fixture information to the lighting control platform; The lighting control platform receives the lighting fixture information and updates the lighting fixture information of the lighting fixture blocks corresponding to the old lighting fixtures in this replacement area to the lighting fixture information of the new lighting fixtures; Update the lighting fixture information of the lighting fixture blocks corresponding to the old lighting fixtures in each replacement area in this way in sequence; The step of "selecting multiple lighting fixture blocks and batch-setting the lighting fixture attributes" includes selecting the lighting fixture blocks in at least one area on the electronic plane map through a selection box to generate a first lighting fixture block area, selectively selecting a partial area within the first lighting fixture block area through a screening box to generate a second lighting fixture block area, removing the second lighting fixture block area from the first lighting fixture block area to obtain the area to be attribute-set, and batch-setting the lighting fixture attributes of the lighting fixture blocks in the area to be attribute-set; The step of central numbering includes selecting at least one group of lighting fixture blocks, setting the range of lamp numbers to be numbered, clicking on the lighting fixture blocks one by one to overwrite the preset numbers pre-loaded in the lighting fixture blocks, and sequentially assigning the set lamp numbers to the corresponding lighting fixture blocks.

2. The construction method of an intelligent lighting system based on a planar mode according to claim 1, characterized in that: The lighting fixture blocks are respectively displayed with different states distinguished by a first color and a second color. When the actual lighting fixture is in a normal state, the corresponding lighting fixture block is in the first color. When the actual lighting fixture is in an abnormal state, the corresponding lighting fixture block is in the second color. A fault display module for displaying the number of lighting fixture blocks with abnormal states is provided on the electronic plane map.

3. The construction method of an intelligent lighting system based on a planar mode according to claim 1, characterized in that: After grouping and setting the group numbers, identify and draw grouping frames through a preset front-end path algorithm and display the group numbers.