Industrial and commercial storage signal indicator light, indication method and storage medium thereof
By designing an industrial and commercial storage signal indicator light using lamp board and main control module in the industrial and commercial energy storage cabinet, the problem that existing indicator lights cannot effectively present more status information, and achieve more efficient information display and longer service life.
Patent Information
- Application Number
- CN202411988171.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-31
- Publication Date
- 2025-04-04
AI Technical Summary
The indicator light design of existing industrial and commercial energy storage cabinets cannot effectively present more status information, affecting the user experience, and due to quality and environmental factors, the service life is short, making it difficult to meet the current higher functional and reliability requirements.
A commercial storage signal indicator light is designed, using a combination of lamp board and main control module, to obtain the working status of the industrial and commercial energy storage cabinet through the detection module, and to control the display of multiple color lights through the main control module to realize the display of more information.
The same number of color lights can realize more information display, reduce costs, improve users' clear understanding of the equipment status, enhance monitoring and management efficiency, reduce energy consumption, and extend the service life of the lamp beads.
Smart Images

Figure CN119767477A_ABST
Abstract
Description
Technical Field
[0001] The present application relates to the field of industrial and commercial energy storage cabinets, and in particular to an industrial and commercial energy storage signal indicator light, an indication method and a storage medium thereof. Background Art
[0002] At present, the common industrial and commercial energy storage cabinets on the market generally adopt the indicator light design scheme of fault, alarm and operation status, which is limited to the intuitive presentation of these three basic statuses. However, in actual application, the status of the product is far more than that, and many detailed status information needs to be viewed on the display or App, which undoubtedly brings inconvenience to users and affects the user experience; and the quality of the indicator light varies, and because the product is usually installed in an outdoor environment and is subjected to the test of natural conditions such as rain and sun, its service life will be significantly affected.
[0003] As an important customer-oriented equipment, the indicator light design of industrial and commercial energy storage cabinets needs to meet higher functional requirements. The three indicator lights used previously are mainly adapted to the environment of the machine room and the power distribution room. Their functionality is relatively basic and can no longer meet the actual needs of current industrial and commercial energy storage cabinets. In view of the special application scenarios and customer needs of industrial and commercial energy storage cabinets, more stringent standards are proposed for the adaptability, functionality and reliability of indicator lights. Therefore, the indicator lights need to be upgraded to ensure that the overall performance of industrial and commercial energy storage cabinets keeps pace with market demand. Summary of the invention
[0004] In order to improve the problem that an indicator light can present too little information, the present application provides an industrial and commercial storage signal indicator light, an indication method and a storage medium thereof.
[0005] The present application provides a signal indicator light for industrial and commercial storage, which adopts the following technical solution: An industrial and commercial energy storage signal indicator light comprises a light board and a main control module, wherein the light board is covered with a transparent protective layer for protection, a plurality of color lights are embedded on the light board, and a detection module is provided on the main control module. The detection module is used to detect the working status of the industrial and commercial energy storage cabinet, obtain status data and output it to the main control module, and the main control module controls the display mode of the color lights according to the status data.
[0006] By adopting the above technical solution, the working status of the industrial and commercial energy storage cabinet is obtained through the detection module and then the color lights are controlled by the main control module to display differently, so that the same number of color lights can display more information and reduce costs.
[0007] Optionally, the colored lights include at least a red light, a light red light, a yellow light, a light yellow light and a green light. When the status data indicates that an alarm is triggered, the main control module controls the yellow light and the light yellow light to flash alternately; when the status data indicates that protection is triggered, the main control module controls the red light and the light red light to flash alternately; when the status data indicates normal operation, the main control module controls the green light to be always on.
[0008] By adopting the above technical solution, the user can see what the problem is more clearly through the flashing of similar colors, that is, the flashing of red and light red can be clearly distinguished from green and yellow, and is more conspicuous.
[0009] Optionally, the green light is composed of a plurality of green lamp beads and a plurality of white lamp beads arranged alternately, and the depth of the green light is controlled by the ratio of the green lamp beads to the white lamp beads that are lit up, and the main control module controls the direction in which the white lamp beads light up in sequence according to the charging and discharging status represented in the status data; the main control module controls the range of the green lamp beads that light up in the green light according to the power represented in the status data.
[0010] By adopting the above technical solution, the charging and discharging status is displayed by the direction of the white lamp beads, and the power level is displayed by the lighting range, so that one green light can display two types of data, thereby improving the utilization rate of the light display information.
[0011] Optionally, the main control module receives display data input by the user, and the main control module divides the green light into multiple parts according to the display data, one part of which is used to light up and display in response to the power and charging and discharging status represented by the status data, and the other part is used to light up and display in response to whether the status data indicates normal operation.
[0012] By adopting the above technical solution, a lamp can further display more information.
[0013] The present application provides an indication method of an industrial and commercial storage signal indicator light, which adopts the following technical solution: A method for indicating a signal indicator light for an industrial and commercial storage device, comprising: Acquire the status data and acquire the display threshold, wherein the display threshold includes an alarm display threshold, a protection display threshold, an operation display threshold, a power display threshold, and a charge and discharge display direction threshold; Determine and output an alarm signal based on the status data and the alarm display threshold; Determine and output a protection signal based on the state data and the protection display threshold; Determine and output an operation signal based on the state data and the operation display threshold; Determine a power threshold signal through the state data and the power display threshold and output it; A filling direction signal is determined and outputted according to the state data and the charge and discharge display direction threshold.
[0014] By adopting the above technical solution, the status of industrial and commercial energy storage cabinets is displayed for user monitoring, so that users can have a clearer and more accurate insight into the real-time operating status of the equipment, thereby achieving more efficient and accurate monitoring and management.
[0015] Optionally, the display threshold includes: Get green light range data; Determine the separated display area data by using the green light range data and a preset visual impact threshold; Determining a response ratio by comparing the state data with a preset longevity period threshold; Determine the area light quantity data by using the partitioned display area data and the response ratio; Determine and output the lighting data based on the lighting quantity data of the area, the partitioned display area data and a preset random threshold; Determine exclusion of light-on data by using the light-on data, the long life cycle threshold, the area light-on quantity data and the partitioned display area data; Determine new partitioned display area data by using the light-excluded data and the partitioned display area data; Determine and output the new lighting data by using the lighting quantity data of the area, the new partitioned display area data and the random threshold; The exclusion lighting data and the long life cycle threshold are used to calibrate and adjust the new partitioned display area data again, and the cycle continues.
[0016] By adopting the above technical solution, energy consumption can be reduced and the service life of the lamp beads can be extended.
[0017] Optional, including: Determining urgency data by using the status data, the display threshold and a preset urgency threshold; Determine the new response ratio by using the urgency data, the longevity period threshold and a preset full adjustment threshold; Determining flicker frequency data by using the urgency data and a preset flicker frequency threshold; Determine the round frequency data by using the flashing frequency data and the longevity period threshold value; The alarm signal and the protection signal are determined and outputted according to the round frequency data.
[0018] By adopting the above technical solution, the brightness can be increased according to the urgency while extending the service life, making it more conspicuous to remind users.
[0019] The present application provides a computer-readable storage medium, which adopts the following technical solution: A computer-readable storage medium stores a computer program that can be loaded by a processor and executed by a processor for an indication method of an industrial and commercial storage signal indicator light.
[0020] By adopting the above technical solution, the computer program is stored in a computer-readable storage medium.
[0021] In summary, the present application includes at least one of the following beneficial technical effects: 1. The same number of color lamps can display more information and reduce costs.
[0022] 2. It enables users to have a clearer and more accurate insight into the real-time operating status of the equipment, thereby achieving more efficient and accurate monitoring and management.
[0023] 3. Reduce energy consumption and extend the service life of lamp beads. BRIEF DESCRIPTION OF THE DRAWINGS
[0024] Figure 1 It is a structural schematic diagram of an industrial and commercial storage signal indicator light in Example 1 of the present application.
[0025] Figure 2 This is a module schematic diagram of an industrial and commercial storage signal indicator light in Example 1 of the present application.
[0026] Figure 3 This is a wiring diagram of an industrial and commercial storage signal indicator light in Example 1 of the present application.
[0027] Figure 4 It is a flow chart of an indication method of an industrial and commercial storage signal indicator light in Example 1 of the present application.
[0028] Figure 5 It is a flow chart of an indication method of an industrial and commercial storage signal indicator light in Example 2 of the present application.
[0029] Figure 6 It is a flowchart diagram of step S25 to step S28.
[0030] Figure 7 It is a flowchart diagram of step S3 to step S34.
[0031] Explanation of the accompanying drawings: 1. Light board; 11. Transparent protective layer; 12. Color light; 121. Red light; 122. Light red light; 123. Yellow light; 124. Light yellow light; 125. Green light; 1251. Green light bead; 1252. White light bead; 2. Main control module; 3. Detection module. DETAILED DESCRIPTION
[0032] The following is combined with Figure 1-7 This application is described in further detail.
[0033] Embodiment 1 of the present application discloses an industrial and commercial storage signal indicator light. Figure 1 and Figure 2 The industrial and commercial energy storage signal indicator light includes a light board 1 and a main control module 2. The main control module 2 is the main control module 2 of the light board 1, and is not the main control unit of the industrial and commercial energy storage cabinet. The light board 1 is covered with a transparent protective layer 11 for protection. The transparent protective layer 11 can be made of an acrylic plate. A plurality of color lights 12 are embedded on the light board 1. The transparent protective layer 11 covers all the color lights 12 for protection. The main control module 2 is electrically connected to a detection module 3. The detection module 3 is used to detect the working state of the industrial and commercial energy storage cabinet, such as fault state, alarm signal, operating state, SOC (state of charge), charging process and discharging process, etc., and obtains status data and outputs it to the main control module 2. The detection module 3 and the main control unit of the non-industrial and commercial energy storage cabinet realize data transmission, and the working state of the non-industrial and commercial energy storage cabinet can be directly obtained from the main control unit. The main control module 2 controls the display mode of the color lights 12 according to the status data.
[0034] Reference Figure 1 and Figure 2 The color lights 12 at least include a red light 121, a light red light 122, a yellow light 123, a light yellow light 124 and a green light 125. The color of the red light 121 is RGB: 255 0 0, the color of the light red light 122 is RGB: 255 127 127, the color of the yellow light 123 is RGB: 255 255 0, and the color allows a certain deviation, such as a deviation within ±5, or a deviation within ±10. The color of the light yellow light 124 is RGB: 255 255 127. When the status data indicates that an alarm is triggered, the main control module 2 controls the yellow light 123 and the light yellow light 124 to flash alternately. When the status data indicates that protection is triggered, the main control module 2 controls the red light 121 and the light red light 122 to flash alternately. When the status data indicates normal operation, the main control module 2 controls the green light 125 to be always on.
[0035] Reference Figure 1 and Figure 2The green light 125 is composed of a plurality of green lamp beads 1251 and a plurality of white lamp beads 1252 arranged alternately. The color of the green lamp beads 1251 is RGB: 0 255 0. The color of the white lamp beads 1252 and the green lamp beads 1251 when lit together is RGB: 177 255177. A certain degree of deviation is also allowed. By changing the ratio of the green lamp beads 1251 and the white lamp beads 1252 that light up, for example, by reducing the number of white lamp beads 1252 that light up, the overall color of the green light 125 can be made more "green", thereby controlling the depth of the color of the light emitted by the green light 125 as a whole. The main control module 2 controls the direction in which the white lamp beads 1252 light up in sequence according to the charge and discharge state represented in the state data. For ease of understanding, the following is used to illustrate the main control module 2. Figure 1 For example, when the status data indicates the charging state, the white lamp beads 1252 can light up in a cycle from left to right in sequence, and when the status data indicates the discharging state, the white lamp beads 1252 can light up in a cycle from right to left in sequence. The main control module 2 controls the range of green lamp beads 1251 that light up in the green lamp 125 according to the power represented in the status data. For example, if the power represented by the status data is 100% (i.e., the SOC capacity is 100%), all green lamp beads 1251 within the range of the green lamp 125 will light up, and the power represented by the status data is 50%. At this time, the middle section of the horizontal distance of the green lamp 125 is used as the dividing line, and all green lamp beads 1251 on the left side of the dividing line will light up, while all green lamp beads 1251 on the right side of the dividing line will be off.
[0036] Reference Figure 1 , the main control module 2 receives the display data input by the user, and the main control module 2 divides the green light 125 into multiple parts according to the display data. For example, if the display data is 20%, then 20% of the horizontal distance of the green light 125 from left to right is used as the display boundary. The green light beads 1251 and the white light beads 1252 on the display boundary are always in an off state. The green light beads 1251 on the left side of the display boundary are lit when the status data indicates normal operation, and are off when the status data indicates abnormal operation. Whether the white light beads 1252 are lit is controlled and adjusted according to the set color depth, and the color depth can be adjusted by the ratio of the green light beads 1251 and the white light beads 1252. The green light beads 1251 and the white light beads 1252 on the right side of the display boundary, that is, within the remaining 80% of the horizontal length, are used according to the cycle lighting and lighting range described in the previous paragraph to represent the power and charge and discharge status represented in the status data.
[0037] Reference Figure 3 , is a wiring diagram of the main control module 2.
[0038] The implementation principle of an industrial and commercial storage signal indicator light in Example 1 of the present application is as follows: in an outdoor environment, the light board 1 and the color light 12 are protected by a transparent protective layer 11, and the color light 12 is controlled by a main control module 2 to display different modes, thereby achieving the same number of lights but being able to display more information.
[0039] Embodiment 1 of the present application discloses a method for indicating a signal indicator light of an industrial and commercial storage. Figure 4 The indication method of the industrial and commercial storage signal indicator light includes the following steps: S1. Obtain status data and display thresholds, which include alarm display thresholds, protection display thresholds, operation display thresholds, power display thresholds, and charge and discharge display direction thresholds; S11, determine the alarm signal through the status data and the alarm display threshold and output it; S12, determining and outputting a protection signal through status data and protection display threshold; S13, determining and outputting an operation signal through the status data and the operation display threshold; S14, determining a power threshold signal through the state data and the power display threshold and outputting it; S15, determining a filling direction signal through the state data and the charge and discharge display direction threshold and outputting it.
[0040] In detail: when the processing performance of the main control module 2 allows, steps S11-S15 are run in parallel. If the performance does not allow, they are run in sequence and in a loop. The alarm display threshold is used to determine whether the data in the status data is data that requires an alarm. For example, if the status data is overcurrent, it means that a fault has occurred and an alarm is required. At this time, according to the alarm display threshold, an alarm signal that requires the yellow light 123 and the light yellow light 124 to flash alternately is obtained, and the output controls the yellow light 123 and the light yellow light 124. The same applies to protection signals, operation signals, power threshold signals and filling direction signals.
[0041] Embodiment 1 of the present application discloses a computer-readable storage medium. Figure 1 The computer-readable storage medium stores a computer program that can be loaded and executed by a processor to indicate the method of the industrial and commercial storage signal indicator light.
[0042] Computer-readable storage media include, for example, various media that can store program codes, such as a USB flash drive, a mobile hard disk, a read-only memory (ROM), a random access memory (RAM), a magnetic disk, or an optical disk.
[0043] Embodiment 2: Different from Example 1, Figure 5 and Figure 6 , Example 2 of the present application discloses an indication method of an industrial and commercial storage signal indicator light, further comprising the following steps: S2, obtaining green light range data; S21, determining the separated display area data according to the green light range data and the preset visual impact threshold; S22, determining a response ratio through the state data and a preset longevity period threshold; S23, determining the number of lights on in the area by separating the display area data and the response ratio; S24, determining and outputting the light data through the area light quantity data, the separated display area data and the preset random threshold; S25, determining exclusion of light data based on light data, long life cycle threshold, area light quantity data and partition display area data; S26, determining new partitioned display area data by excluding the light-on data and the partitioned display area data; S27, determining new light data through the area light quantity data, the new separated display area data and the random threshold value and outputting it; S28, excluding the light-on data and the long life cycle threshold, and calibrating and adjusting the new partitioned display area data again, and repeating the cycle.
[0044] Detailed: The green light range data is the coordinate data of all green lamp beads 1251 and all white lamp beads 1252 in the green light 125. The visual impact threshold is the human visual error. For example, the size of a lamp bead is 0.6mm*0.3mm, and there are multiple lamp beads installed adjacent to each other. If these lamp beads are of the same color, then when all the lamp beads are fully lit and when only one lamp bead is lit, the human eye can hardly see the difference. This is the limitation of the human eye. At this time, the coordinates of all green lamp beads 1251 and white lamp beads 1252 are partitioned by the visual impact threshold. For example, the size range of the green light 125 is 10mm-100mm, and it is divided into areas according to the 2mm*2mm area. In each area, there are multiple green lamp beads 1251 and white lamp beads 1252. This area is the separated display area data; longevity cycle threshold The on-off ratio that causes the least damage to the lamp beads is, for example, a 1:3 on-off ratio, that is, the on time and the off time are 1:3, which causes little damage to the lamp beads. This is the longevity cycle threshold, and the time cycle ratio is converted into the on-off number ratio, which is the response ratio, that is, all the lamp beads in the area are divided into four parts, and only one part of the lamp beads is lit each time, and then this part of the lamp beads is turned off after a certain period of time, and then the other parts of the lamp beads are lit. This is seen by the user's naked eye as the color lamp 12 always on, which is applicable to the color lamps 12 except the green lamp 125. The response ratio is combined with the data of the separated display area, which is the specific number and the corresponding coordinates of the lamp beads. After the coordinates are accurately calculated, the corresponding lamp beads can be controlled to light up according to the random algorithm. The random algorithm is the preset random threshold, and the ratio of the number of lit green lamp beads 1251 and white lamp beads 1252 is maintained at the desired color;After the lamp beads are controlled to light up, the lamp beads that are lit at this time are recorded, for example, they can be recorded as (a coordinate, first cycle batch), which means that the lamp bead with a coordinate lights up in the first batch of the cycle. If it is based on a ratio of 1:3, one cycle is divided into four batches. The record at this time is used as the exclusion lighting data. When the lamp beads that need to be lit are randomly calculated next time, the lamp beads in the exclusion lighting data are first removed, and then the remaining lamp beads are randomly lit up, that is, the exclusion lighting data in the separated display area data is removed, and the lamp bead coordinates are randomly selected from the remaining separated display area data as the lighting data, which lights up in the second batch of this cycle, and then can be recorded as (b coordinate, second cycle batch). After four cycles, the original (a coordinate, first cycle batch) is deleted from the exclusion lighting data and re-enters the display area data for selection, and even if 1: 3, the number of lights that light up can also be not to divide all the lamp beads in the separated display area data into four parts. For example, according to the brightness adjusted by the user, only one-fourth or one-fifth can be lit. At this time, it can be divided into more parts. At this time, even if the lights are cycled, there will be lamp beads that are not rotated. For example, x1, x2, x3, x4 and x5 are five lamp beads. The first batch randomly lights up x1, then in the second batch to the fourth batch, x1 cannot be randomly selected. If the four batches are randomly selected to x1, x2, x3 and x4 in turn, then in the first batch of the next cycle, x1 is released again to the random range, and then it is randomly selected between x1 and x5. If there are only four lamp beads, then after the first cycle ends, the lamp beads that light up in the subsequent cycles will be exactly the same as the first cycle. If there are extra lamp beads, the rest time of the lamp beads can be extended. ;
[0045] Reference Figure 7 , further comprising the following steps: S3, determining the urgency data through the status data, the display threshold and the preset emergency threshold; S31, determining a new response ratio through the urgency data, the longevity cycle threshold and the preset full adjustment threshold; S32, determining flicker frequency data according to the urgency data and a preset flicker frequency threshold; S33, determining round frequency data through the flashing frequency data and the longevity cycle threshold; S34. Determine the alarm signal and protection signal through the round frequency data and output them.
[0046] Detailed: The status data, display threshold and emergency threshold can determine how much the excess is, and thus determine the degree of urgency. For example, if the overcurrent in the display threshold is 20A, and the status data is 30A, then the excess is (30-20) / 20=50%, that is, it exceeds by 50%. This is the urgency data. The larger the data, the more serious the degree. The larger the urgency data, the closer the long life cycle threshold is to the cycle limit. For example, the long life cycle threshold is 26%, which means that the number of lamp beads that light up at the same time does not exceed 26%. According to the brightness set by the user, one-fifth or one-sixth of the lamp beads can be lit before, and the brightness meets the user's requirements. As the urgency data increases, the number of lamp beads that light up at the same time will increase until it reaches the limit of the long life cycle threshold of 26%. At this time, the number of lamp beads that light up is not evenly divided. The number of lamp beads that light up in four batches is 26%, 26%, 26% and 22% in sequence. This is the new response ratio, so that each lamp bead still lights up once in one cycle, and the same The full adjustment threshold is the relationship between the emergency data and the number of light beads. If it is not very bright, such as red light 121, light red light 122, yellow light 123, and light yellow light 124, they flash in sequence, and the flashing frequency is included in the calculation. The flashing frequency data can be calculated and combined with the longevity cycle threshold to obtain the round frequency data. The round frequency data is the periodic flashing rest. For example, there are four groups of lamp beads y1, y2, y3, and y4 flashing in sequence. In the emergency flashing After a period of time, the rest time will be extended, and then the emergency flashing will be on for a period of time. For example, the flashing frequency is y1 lights up for 1s and then goes out, and y2 lights up for 1s and then goes out, and so on. After ten cycles, in the eleventh cycle, y1 lights up for 1s and then goes out, and y2 lights up for 1s after 1s, and after going out, y3 lights up for 1s after another 1s to achieve rest. This provides intermittent rest time for the lamp beads whose flashing frequency is increased due to the large urgency data, thereby extending the service life of the lamp beads.
[0047] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.
Claims
1. An industrial and commercial storage signal indicator light, characterized in that: The invention comprises a light board (1) and a main control module (2), wherein the light board (1) is covered with a transparent protective layer (11) for protection, a plurality of color lights (12) are embedded in the light board (1), and a detection module (3) is arranged on the main control module (2), wherein the detection module (3) is used to detect the working state of the industrial and commercial energy storage cabinet, obtain state data and output it to the main control module (2), and the main control module (2) controls the display mode of the color lights (12) according to the state data.
2. The industrial and commercial storage signal indicator light according to claim 1, characterized in that: The colored lights (12) at least include a red light (121), a light red light (122), a yellow light (123), a light yellow light (124), and a green light (125); when the status data indicates that an alarm is triggered, the main control module (2) controls the yellow light (123) and the light yellow light (124) to flash alternately; when the status data indicates that protection is triggered, the main control module (2) controls the red light (121) and the light red light (122) to flash alternately; and when the status data indicates normal operation, the main control module (2) controls the green light (125) to be constantly on.
3. The industrial and commercial storage signal indicator light according to claim 2, characterized in that: The green light (125) is composed of a plurality of green light beads (1251) and a plurality of white light beads (1252) arranged alternately, and the depth of the green light (125) is controlled by the ratio of the green light beads (1251) and the white light beads (1252) being lit up, and the main control module (2) controls the direction in which the white light beads (1252) are sequentially lit up according to the charge and discharge state indicated in the state data; and the main control module (2) controls the range of the green light beads (1251) that are lit up in the green light (125) according to the amount of electricity indicated in the state data.
4. The industrial and commercial storage signal indicator light according to claim 3, characterized in that: The main control module (2) receives the display data input by the user, and the main control module (2) divides the green light (125) into multiple parts according to the display data, wherein one part is used to light up and display in response to the electric quantity and the charging and discharging state represented by the status data, and the other part is used to light up and display in response to whether the status data represents normal operation.
5. A method for indicating an industrial and commercial storage signal indicator light, using the industrial and commercial storage signal indicator light according to claim 4, characterized in that: include: Acquire the status data and acquire the display threshold, wherein the display threshold includes an alarm display threshold, a protection display threshold, an operation display threshold, a power display threshold, and a charge and discharge display direction threshold; Determine and output an alarm signal based on the status data and the alarm display threshold; Determine and output a protection signal based on the state data and the protection display threshold; Determine and output an operation signal based on the state data and the operation display threshold; Determine a power threshold signal through the state data and the power display threshold and output it; A filling direction signal is determined and outputted according to the state data and the charge and discharge display direction threshold.
6. A method for indicating an industrial and commercial storage signal indicator light according to claim 5, characterized in that: The display thresholds include: Get green light range data; Determine the separated display area data by using the green light range data and a preset visual impact threshold; Determining a response ratio by comparing the state data with a preset longevity period threshold; Determine the area light quantity data by using the partitioned display area data and the response ratio; Determine and output the lighting data based on the lighting quantity data of the area, the partitioned display area data and a preset random threshold; Determine exclusion of light-on data by using the light-on data, the long life cycle threshold, the area light-on quantity data and the partitioned display area data; Determine new partitioned display area data by using the light-excluded data and the partitioned display area data; Determine and output the new lighting data by using the lighting quantity data of the area, the new partitioned display area data and the random threshold; The exclusion lighting data and the long life cycle threshold are used to calibrate and adjust the new partitioned display area data again, and the cycle continues.
7. A method for indicating an industrial and commercial storage signal indicator light according to claim 6, characterized in that: include: Determining urgency data by using the status data, the display threshold and a preset urgency threshold; Determine the new response ratio by using the urgency data, the longevity period threshold and a preset full adjustment threshold; Determining flicker frequency data by using the urgency data and a preset flicker frequency threshold; Determine the round frequency data by using the flashing frequency data and the longevity period threshold value; The alarm signal and the protection signal are determined and outputted according to the round frequency data.
8. A computer-readable storage medium, characterized in that: A computer program is stored which can be loaded by a processor and execute the indication method of the industrial and commercial storage signal indicator light according to any one of claims 5 to 7.