An intelligent control method and system for building lighting

Abstract

The present application relates to an intelligent control method and system for building lighting, belonging to the technical field of building lighting. The control method includes obtaining lighting information corresponding to each lighting lamp in the building; wherein, the lighting information includes service life, lighting type, and location information; monitoring in real time the total usage duration of each lighting lamp in the building; calculating the aging degree ratio of each lighting lamp according to the total usage duration and service life of each lighting lamp; determining a first preset ratio threshold corresponding to each lighting lamp based on a first preset mapping relationship according to the lighting type of each lighting lamp; judging whether the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp, and if so, generating a lighting inspection prompt message according to the location information of the lighting lamp and sending it to the management terminal. The present application can facilitate detection and troubleshooting according to the actual situation of each lighting lamp in the building.

Description

Technical Field

[0001] The present application relates to the technical field of building lighting, and in particular, to an intelligent control method and system for building lighting. Background Art

[0002] With the development of social economy, the area of buildings has also shown a significant growth trend. People's requirements for the comfort and safety of buildings are also constantly increasing. Optimizing the building environment within the building and improving the living standards of users within the building have become a top priority.

[0003] As an indispensable daily-use device in building construction, lighting fixtures can provide illumination when the light is dim to meet the living and working needs of users within the building, and at the same time can reduce the occurrence of accidents, thereby providing users with an efficient and comfortable building environment.

[0004] Currently, a certain number of lighting fixtures are installed on each floor within the building. Since the lighting fixtures will age after being used for a long time, the light output efficiency will decrease, resulting in a weakened light intensity or even a situation where they cannot be used normally, which may affect the work and life of users and reduce the safety of users when walking at night. Therefore, during the building maintenance process, it is usually necessary to arrange staff to regularly or irregularly detect and check each lighting fixture on the same floor to reduce the occurrence of low lighting intensity or even lighting failures and ensure the daily lighting needs of users within the building.

[0005] Regarding the above related technologies, the inventor found that there are at least the following problems in the related technologies: Since the number of lighting fixtures within the building is large and they are widely distributed, the usage conditions of different lighting fixtures are not the same. During the actual maintenance process, if the staff checks each lighting fixture one by one, the work intensity is large and the checking efficiency is low; if only some lighting fixtures are selected for detection and checking, it is easy to miss the checking, thus reducing the safety. Summary of the Invention

[0006] In order to facilitate the detection and checking according to the actual conditions of each lighting fixture within the building, the present application provides an intelligent control method and system for building lighting.

[0007] In a first aspect, the present application provides an intelligent control method for building lighting, adopting the following technical solution:

[0008] An intelligent control method for building lighting, the control method includes,

[0009] Obtain the lighting fixture information corresponding to each lighting fixture within the building; wherein, the lighting fixture information includes service life, lighting type, and location information;

[0010] Real-time monitor the total usage duration of each lighting fixture within the building;

[0011] Calculate the aging degree ratio of each of the lighting fixtures based on the total usage duration and service life of each of the lighting fixtures; based on a first preset mapping relationship, determine a first preset ratio threshold corresponding to each of the lighting fixtures according to the lighting type of each of the lighting fixtures.

[0012] Determine whether the aging degree ratio of the lighting fixture exceeds the first preset ratio threshold corresponding to the lighting fixture. If so, generate a lighting inspection prompt message according to the location information of the lighting fixture and send it to the management terminal.

[0013] By adopting the above technical solution, since the usage conditions of different lighting fixtures in the building are different, the aging conditions of each lighting fixture will also vary. The corresponding aging degree ratio can be obtained by calculating the total usage duration and service life of each lighting fixture; and because the lighting requirements provided by lighting fixtures of different lighting types are different, the corresponding lighting inspection standards are also different. Determine the corresponding first preset ratio threshold according to the lighting type of the lighting fixture, and then determine whether the aging degree ratio of the lighting fixture exceeds the first preset ratio threshold. If so, it can be determined that the lighting fixture may have a decrease in output efficiency, weak light intensity, etc. due to long-term use. Furthermore, generate a lighting inspection prompt message according to the location information of the lighting fixture and send it to the management terminal of the management staff for reminder. After receiving the lighting inspection prompt message, the management staff can arrange staff to conduct detection and troubleshooting according to the location information of the lighting fixture, so as to reduce the occurrence of situations such as low lighting intensity or even lighting failures; this application monitors the aging degree of each lighting fixture in the building and determines the corresponding lighting inspection standards for lighting fixtures of different lighting types, thereby facilitating detection and troubleshooting according to the actual conditions of each lighting fixture in the building, improving the troubleshooting efficiency while ensuring the daily lighting requirements of users in the building and enhancing safety.

[0014] Optionally, the lighting type includes an emergency lighting type, a daily lighting type, and a decorative lighting type; the first preset mapping relationship includes multiple sets of corresponding relationships between the lighting types and the first preset ratio thresholds; among them, the first preset ratio threshold corresponding to the emergency lighting type is less than the first preset ratio threshold corresponding to the daily lighting type, and the first preset ratio threshold corresponding to the daily lighting type is less than the first preset ratio threshold corresponding to the decorative lighting type.

[0015] By adopting the above technical solutions, the lighting types in a building can be divided into three types according to lighting requirements: emergency lighting type, daily lighting type, and decorative lighting type. Among them, the emergency lighting type refers to the lighting enabled due to the failure of the power supply of normal lighting. The daily lighting type refers to the uniform lighting set to illuminate the area during daily work and life. Decorative lighting refers to the lighting used for decoration and adding atmosphere on the basis of daily lighting. It can be understood that, for safety considerations, the lighting requirement priority of emergency lighting is set to be the highest, followed by daily lighting, and finally decorative lighting. Therefore, when setting the first preset proportion threshold, the first preset proportion threshold corresponding to the emergency lighting type is less than the first preset proportion threshold corresponding to the daily lighting type, and the first preset proportion threshold corresponding to the daily lighting type is less than the first preset proportion threshold corresponding to the decorative lighting type. That is, the lighting inspection requirement corresponding to the emergency lighting type is the highest, followed by the daily lighting type, and the decorative lighting type is the lowest, thus further improving the safety of building lighting.

[0016] Optionally, the specific steps of generating the lighting inspection prompt information according to the position information of the lighting fixtures include:

[0017] Calculate the proportion difference between the aging degree proportion of the lighting fixture and the first preset proportion threshold;

[0018] Based on a preset inspection frequency table, generate the corresponding lighting inspection frequency according to the proportion difference; wherein, the preset inspection frequency table includes the corresponding relationships between multiple groups of proportion difference intervals and lighting inspection frequencies;

[0019] Generate the lighting inspection prompt information according to the lighting inspection frequency and the position information of the lighting fixture.

[0020] By adopting the above technical solutions, calculate the proportion difference between the aging degree proportion of each lighting fixture and the first preset proportion threshold. The larger the proportion difference, the higher the aging degree of the lighting fixture, and the higher the required lighting inspection frequency. Therefore, the corresponding lighting inspection frequency can be determined according to the proportion difference, and then the lighting inspection prompt information is generated according to the lighting inspection frequency and the position information to prompt the staff to carry out lighting inspection work according to the lighting inspection frequency, so as to facilitate meeting the inspection requirements of different lighting fixtures, reducing the situation of untimely inspection of some lighting fixtures or waste of resources caused by frequent inspection of some lighting fixtures, and improving adaptability and safety.

[0021] Optionally, each floor in the building is divided into multiple lighting areas according to the position information of each lighting fixture in the building, and multiple lighting fixtures are correspondingly arranged in each lighting area;

[0022] After the step of generating the lighting inspection prompt information and sending it to the management terminal, the following steps are further included:

[0023] Determine whether there are multiple pieces of lighting inspection prompt information. If so, after a preset duration, receive the lighting inspection feedback results of multiple lighting lamps written by the management terminal.

[0024] According to the number of lighting lamps with abnormal lighting inspection feedback results in each lighting area and the total number of lighting lamps in each lighting area, calculate the abnormal quantity proportion of each lighting area.

[0025] Determine whether there is a lighting area where the abnormal quantity proportion exceeds the preset abnormal proportion threshold. If so, generate lighting area inspection prompt information and send it to the management terminal.

[0026] By adopting the above technical solution, each floor in the building is divided into multiple lighting areas in advance according to the positions of each lighting lamp in the building. Since the lighting environment will also affect the lighting intensity, service life, etc. of the lighting lamps, when most of the lighting lamps in a certain lighting area are abnormal, it indicates that the damage may be caused by the environmental factors in that lighting area. Therefore, by sending lighting area inspection prompt information to prompt the management terminal, the management terminal can arrange staff to inspect the lighting area to timely eliminate the influence of environmental factors on the lighting lamps in that lighting area, thereby also realizing the protection of other normal lighting lamps and further improving the safety of building lighting.

[0027] Optionally, after determining that the aging degree proportion of the lighting lamp exceeds the first preset proportion threshold corresponding to the lighting lamp, it further includes:

[0028] Based on the second preset mapping relationship, determine the second preset proportion threshold corresponding to the lighting lamp according to the lighting type of the lighting lamp; wherein, the second preset proportion threshold is greater than the first preset proportion threshold.

[0029] Determine whether the aging degree proportion of the lighting lamp exceeds the second preset proportion threshold corresponding to the lighting lamp. If so, generate lighting replacement prompt information according to the position information of the lighting lamp and send it to the management terminal.

[0030] By adopting the above technical solution, since the lighting requirements provided by lighting lamps of different lighting types are different, the corresponding lighting replacement standards are also different; after determining that the aging degree proportion of the lighting lamp exceeds the first preset proportion threshold corresponding to the lighting lamp, the second preset proportion threshold corresponding to the lighting lamp is determined according to the lighting type. If the aging degree proportion of the lighting lamp exceeds the second preset proportion threshold, it can be determined that the lighting lamp has been used for too long and needs to be replaced. Then, by sending lighting replacement prompt information to prompt the management terminal of the management staff, the staff can be arranged to replace it in time, so as to ensure the lighting requirements of the users in the building.

[0031] Optionally, the steps of generating a lighting replacement prompt message according to the position information of the lighting lamp and sending it to the management terminal include:

[0032] Generating a lighting replacement prompt message according to the position information of the lighting lamp;

[0033] Judging whether there are multiple lighting replacement prompt messages. If not, sending the lighting replacement prompt message to the management terminal; if so, determining a corresponding replacement priority sequence according to the lighting types of the lighting lamps corresponding to each lighting replacement prompt message, and sequentially sending each lighting replacement prompt message to the management terminal according to the replacement priority sequence; wherein, the replacement priority corresponding to the emergency lighting type is higher than the replacement priority corresponding to the daily lighting type, and the replacement priority corresponding to the daily lighting type is higher than the replacement priority corresponding to the decorative lighting type.

[0034] By adopting the above technical solution, when there is only one lighting replacement prompt message, it can be directly sent to the management terminal for prompt replacement; when there are multiple lighting replacement prompt messages, a corresponding replacement priority sequence is determined according to the lighting types of each lighting lamp, and then the lighting replacement prompt messages are sequentially sent to the management terminal according to the replacement priority sequence, and the management terminal can arrange the replacement of each lighting lamp in sequence; according to the different priorities of lighting requirements corresponding to different lighting types, the corresponding replacement priorities are reasonably arranged, with the replacement priority corresponding to the emergency lighting type set as the highest, the daily lighting type second, and the decorative lighting type the lowest, so as to preferentially arrange the replacement of the lighting lamps with higher replacement priorities according to the order of importance and urgency, improving the safety of building lighting.

[0035] Optionally, after determining the corresponding replacement priority sequence, it further includes

[0036] Judging whether there are multiple lighting lamps with the same replacement priority. If so, obtaining the lighting usage information of each lighting lamp with the same replacement priority in the previous time period;

[0037] Based on a pre-designed calculation rule, calculating the usage priority index corresponding to each lighting lamp with the same replacement priority according to the lighting usage information;

[0038] Sorting according to the usage priority indexes corresponding to each lighting lamp with the same replacement priority to obtain the replacement sub-priorities corresponding to each lighting lamp with the same replacement priority; wherein, the larger the usage priority index of the lighting lamp, the higher the corresponding replacement sub-priority.

[0039] By adopting the above technical solution, since the replacement priorities corresponding to the same lighting type are the same, when there are multiple lighting lamps of the same lighting type, the corresponding usage priority index is calculated according to the lighting usage information of each lighting lamp in the previous period. This usage priority index is used to reflect the degree of user preference for each lighting lamp in the near future. The larger the usage priority index, the faster it can reflect the shortening of the service life of the lighting lamp, and it can also reflect that the normal or abnormal state of the lighting lamp is more likely to affect the normal life of the user. Therefore, the corresponding replacement sub-priority is higher. Thus, the replacement of each lighting lamp with the same replacement priority is arranged in sequence according to the replacement sub-priority, which not only improves the user's lighting experience but also ensures the orderly progress of the lighting replacement work.

[0040] Optionally, the lighting usage information includes the number of switch times and the usage duration in the previous period;

[0041] The pre-designed calculation rule includes:

[0042]

[0043] Wherein, UPI is the usage priority index, N is the number of switch times in the previous period, N d is the preset value of the number of switch times, W 1 is the preset weight value of the number of switch times, T is the usage duration in the previous period, T d is the preset value of the usage duration, W 2 is the preset weight value of the usage duration.

[0044] By adopting the above technical solution, during the use of the lighting lamp, in addition to the use environment and the usage duration, the frequent switching of the lighting lamp will also affect the service life of the lighting lamp. Therefore, combining the number of switch times and the usage duration in the previous period can comprehensively reflect the degree of user preference for the lighting lamp. The higher this degree of user preference, the faster it indicates the shortening of the corresponding service life of the lighting lamp, and it can also indicate that the lighting lamp has a greater impact on the user's lighting needs; during the calculation of the usage priority index, the preset value of the number of switch times, the preset weight value of the number of switch times, the preset value of the usage duration, and the preset weight value of the usage duration corresponding to each lighting lamp are preset according to the actual situation of each lighting lamp. Through the unified and standardized index calculation rule, the authenticity and comprehensiveness of the calculation results are improved.

[0045] In a second aspect, the present application provides a building lighting intelligent control system, adopting the following technical solution:

[0046] A building lighting intelligent control system, the control system includes,

[0047] The lighting lamp information acquisition module is used to acquire the lighting lamp information corresponding to each lighting lamp in the building; wherein, the lighting lamp information includes the service life, lighting type and location information;

[0048] The lighting monitoring module is used to monitor the total usage duration of each lighting lamp in the building in real time;

[0049] The aging degree ratio calculation module is used to calculate the aging degree ratio of each lighting lamp according to the total usage duration and service life of each lighting lamp;

[0050] The first preset ratio threshold determination module is used to determine the first preset ratio threshold corresponding to each lighting lamp according to the lighting type of each lighting lamp based on the first preset mapping relationship;

[0051] The first judgment module is used to judge whether the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp. If so, it outputs the first judgment result;

[0052] The lighting inspection prompt information generation module is used to respond to the first judgment result and generate lighting inspection prompt information according to the location information of the lighting lamp;

[0053] The lighting inspection prompt information sending module is used to send the lighting inspection prompt information to the management terminal.

[0054] By adopting the above technical solution, the aging degree of each lighting lamp in the building is monitored, and the corresponding lighting inspection standards are determined for lighting lamps of different lighting types, so as to facilitate the detection and investigation according to the actual situation of each lighting lamp in the building, improve the investigation efficiency while ensuring the daily lighting needs of users in the building, and enhance the safety.

[0055] In a third aspect, the present application provides a computer-readable storage medium, adopting the following technical solution:

[0056] A computer-readable storage medium stores a computer program that can be loaded and executed by a processor to perform any method in the first aspect.

[0057] In summary, the present application includes at least one of the following beneficial technical effects: Since the usage conditions of different lighting fixtures in a building are not the same, the aging conditions of each lighting fixture will also vary. The corresponding aging degree ratio can be obtained by calculating the total usage duration and service life of each lighting fixture. And because the lighting requirements provided by lighting fixtures of different lighting types are different, the corresponding lighting inspection standards are also different. Determine the corresponding first preset ratio threshold according to the lighting type of the lighting fixture, and then judge whether the aging degree ratio of the lighting fixture exceeds the first preset ratio threshold. If so, it can be judged that the lighting fixture may have problems such as a decrease in output efficiency and weak light intensity due to long-term use. Furthermore, generate a lighting inspection prompt message based on the location information of the lighting fixture and send it to the management terminal of the management staff for reminder. After receiving the lighting inspection prompt message, the management staff can arrange staff to conduct inspections and troubleshooting according to the location information of the lighting fixture to reduce the occurrence of situations with low lighting intensity or even lighting failures. The present application monitors the aging degree of each lighting fixture in the building and determines the corresponding lighting inspection standards for lighting fixtures of different lighting types, thereby facilitating inspections and troubleshooting according to the actual situation of each lighting fixture in the building, ensuring the daily lighting needs of users in the building while improving the troubleshooting efficiency and enhancing safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0058] Figure 1 is the first flowchart of the intelligent control method for building lighting in one embodiment of the present application.

[0059] Figure 2 is the second flowchart of the intelligent control method for building lighting in one embodiment of the present application.

[0060] Figure 3 is the third flowchart of the intelligent control method for building lighting in one embodiment of the present application.

[0061] Figure 4 is the fourth flowchart of the intelligent control method for building lighting in one embodiment of the present application.

[0062] Figure 5 is the fifth flowchart of the intelligent control method for building lighting in one embodiment of the present application.

[0063] Figure 6 is the sixth flowchart of the intelligent control method for building lighting in one embodiment of the present application.

[0064] Figure 7 is the structural block diagram of the intelligent control system for building lighting in one embodiment of the present application.

[0065] Explanation of the accompanying drawings: 101, lighting information acquisition module; 102, lighting monitoring module; 103, aging degree ratio calculation module; 104, first preset ratio threshold determination module; 105, first judgment module; 106, lighting inspection prompt information generation module; 107, lighting inspection prompt information sending module. DETAILED DESCRIPTION

[0066] In order to make the purpose, technical solutions and advantages of this application more clear, the following Figure 1-7 It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0067] The embodiment of the present application discloses a method for intelligent control of building lighting.

[0068] Reference Figure 1 , a building lighting intelligent control method, the control method comprising,

[0069] Step S101, obtaining lighting information corresponding to each lighting in the building; wherein the lighting information includes service life, lighting type and location information;

[0070] Specifically, the lighting lamp information can be pre-stored in the lighting lamp information database, wherein the manufacturer usually indicates the corresponding service life in the manual when the lighting lamp leaves the factory, so that the user can know how long the lighting lamp can be used after purchase. However, in actual use, since the service life of the lighting lamp will be affected by external environmental factors such as heat dissipation materials, aluminum substrate plates, driving power supply, power factor, product structure, etc., the service life can only be used as reference data; lighting types can be divided into emergency lighting type, daily lighting type and decorative lighting type. The lighting type can be determined according to the actual use requirements of each lighting lamp, and the location information is pre-recorded when the lighting lamp is installed;

[0071] Step S102, real-time monitoring of the total usage time of each lighting lamp in the building;

[0072] The total usage time refers to the time the lighting lamp is in the on state;

[0073] Step S103, calculating the aging percentage of each lighting lamp according to the total usage time and service life of each lighting lamp;

[0074] Among them, according to the ratio of the total use time of the lighting lamp to the service life, the corresponding aging degree ratio can be determined, that is, the longer the total use time, the higher the corresponding aging degree;

[0075] Step S104: Based on the first preset mapping relationship, determine the first preset proportion threshold corresponding to each lighting lamp according to the lighting type of each lighting lamp;

[0076] Among them, the first preset proportion threshold is used to reflect the aging degree judgment standard for the lighting lamp to be detected and checked. Since the lighting requirements provided by lighting lamps of different lighting types are different, the corresponding lighting inspection standards are also different, so the set first preset proportion thresholds are also different;

[0077] Step S105: Judge whether the proportion of the aging degree of the lighting lamp exceeds the first preset proportion threshold corresponding to the lighting lamp;

[0078] Step S106: If so, generate a lighting inspection prompt message according to the position information of the lighting lamp and send it to the management terminal.

[0079] Among them, when the proportion of the aging degree exceeds the first preset proportion threshold, it can be judged that the lighting lamp may have a decrease in output efficiency, weak light intensity, etc. due to long-term use. Therefore, it is necessary to arrange staff to conduct detection and inspection in a timely manner.

[0080] In the above implementation manner, since the usage conditions of different lighting lamps in the building are different, the aging conditions of each lighting lamp will also vary. The corresponding proportion of the aging degree can be obtained by calculating the total usage time and service life of each lighting lamp; determine the corresponding first preset proportion threshold according to the lighting type of the lighting lamp, and then judge whether the proportion of the aging degree of the lighting lamp exceeds the first preset proportion threshold. If so, generate a lighting inspection prompt message according to the position information of the lighting lamp and send it to the management terminal of the management staff for reminder. After receiving the lighting inspection prompt message, the management staff can arrange staff to conduct detection and inspection according to the position information of the lighting lamp to reduce the occurrence of situations with low lighting intensity or even lighting failures; this application monitors the aging degree of each lighting lamp in the building and determines the corresponding lighting inspection standards for lighting lamps of different lighting types, so as to facilitate detection and inspection according to the actual situation of each lighting lamp in the building, improve the inspection efficiency while ensuring the daily lighting needs of users in the building and enhancing safety.

[0081] As an implementation manner of the management terminal, the management terminal can be the intelligent mobile terminal of the management staff, such as a mobile phone, a tablet computer, etc., or it can be a computer terminal in the management room. This application does not make a limitation.

[0082] As an implementation of the lighting type, the lighting type includes an emergency lighting type, a daily lighting type, and a decorative lighting type; among them, the emergency lighting type refers to the lighting enabled due to the failure of the power supply of the normal lighting. For example, standby lighting, evacuation lighting, and safety lighting all belong to the emergency lighting type. When a fire or other disaster occurs in a building and the power supply is interrupted, the emergency lighting plays an important role in the evacuation of personnel, fire rescue work, the continued operation of important production and work, or necessary operation and disposal; the daily lighting type refers to the uniform lighting set to illuminate the area during daily work and life, usually only illuminating the required place without considering special positions, and the decorative lighting refers to the lighting used for decoration and atmosphere enhancement on the basis of daily lighting, mainly bringing different visual enjoyments to people through the changes of colors and dynamics.

[0083] As an implementation of the first preset mapping relationship, the first preset mapping relationship includes multiple groups of corresponding relationships between lighting types and the first preset proportion threshold; among them, the first preset proportion threshold corresponding to the emergency lighting type is less than the first preset proportion threshold corresponding to the daily lighting type, and the first preset proportion threshold corresponding to the daily lighting type is less than the first preset proportion threshold corresponding to the decorative lighting type; in addition, the first preset proportion threshold corresponding to each lighting type is preset according to the actual situation or historical experience.

[0084] It can be understood that, for safety considerations, the lighting demand priority of the emergency lighting is set to the highest, followed by the daily lighting, and finally the decorative lighting. Therefore, when setting the first preset proportion threshold, the first preset proportion threshold corresponding to the emergency lighting type is less than the first preset proportion threshold corresponding to the daily lighting type, and the first preset proportion threshold corresponding to the daily lighting type is less than the first preset proportion threshold corresponding to the decorative lighting type, that is, the lighting inspection demand corresponding to the emergency lighting type is the highest, the daily lighting type is the second, and the decorative lighting type is the lowest, thereby further improving the safety of building lighting.

[0085] Refer to Figure 2 , as an implementation of generating the lighting inspection prompt information according to the position information of the lighting lamp in step S106, the specific steps include:

[0086] Step S1061, calculate the proportion difference between the aging degree proportion of the lighting lamp and the first preset proportion threshold;

[0087] Among them, the proportion difference is always greater than or equal to 0. For example, if the aging degree proportion is 0.7 and the first preset proportion threshold is 0.65, the corresponding proportion difference is 0.05; the larger the proportion difference, the higher the aging degree of the lighting lamp, and the higher the required lighting inspection frequency;

[0088] Step S1062: Based on a preset inspection frequency table, generate a corresponding lighting inspection frequency according to the proportion difference. The preset inspection frequency table includes the corresponding relationships between multiple groups of proportion difference intervals and lighting inspection frequencies.

[0089] Among them, the lighting inspection frequency is the number of times the staff detects and checks the lighting lamps within a cycle. For example, the lighting inspection frequency can be set to twice a week or six times a month, etc.

[0090] Step S1063: Generate a lighting inspection prompt message according to the lighting inspection frequency and the position information of the lighting lamps.

[0091] In the above embodiment, calculate the proportion difference between the aging degree proportion of each lighting lamp and the first preset proportion threshold. According to the proportion difference, the corresponding lighting inspection frequency can be determined, and then a lighting inspection prompt message is generated according to the lighting inspection frequency and the position information to prompt the staff to perform lighting inspection work according to the lighting inspection frequency, so as to facilitate meeting the inspection requirements of different lighting lamps, reducing the situation of untimely inspection of some lighting lamps or waste of resources caused by frequent inspection of some lighting lamps, and improving adaptability and safety.

[0092] As an implementation manner of generating a corresponding lighting inspection frequency according to the proportion difference based on a preset inspection frequency table, the preset inspection frequency table includes the corresponding relationships between multiple groups of proportion difference intervals and lighting inspection frequencies. There is no intersection between each proportion difference interval, and each proportion difference interval corresponds to a preset inspection frequency. If it is judged that the proportion difference interval is large, a higher inspection frequency can be used for inspection to improve safety. If it is judged that the proportion difference interval is small, a lower inspection frequency can be used for inspection to reduce waste of human resources. In addition, the above lighting inspection frequency is the lighting inspection frequency when the proportion difference is within this proportion difference interval. The optimal lighting inspection frequency can be set according to the actual situation, and the opening and closing of the endpoints of each proportion difference interval, the length of each proportion difference interval, and the number of proportion difference intervals can all be set and adjusted according to the actual situation.

[0093] As a further implementation manner of the control method, each floor in the building can be divided into multiple lighting areas in advance according to the position information of each lighting lamp in the building, and multiple lighting lamps are correspondingly arranged in each lighting area.

[0094] Among them, the lighting area can be divided according to the distribution of the lighting lamps on each floor. Each lighting lamp is pre-assigned a uniquely corresponding lighting area, and each lighting area is pre-named and stored in the lighting lamp information database accordingly, such as the first lighting area on the first floor, the second lighting area on the first floor, the first lighting area on the second floor, etc. In addition, for different lighting areas, their areas and the number of allocated lighting lamps can be the same or can be set differently according to the actual situation, which is not limited in this application.

[0095] Referring to Figure 3 , further, after generating the lighting inspection prompt information in step S106 and sending it to the management terminal, it further includes:

[0096] Step S107, determining whether there are multiple lighting inspection prompt information;

[0097] Among them, two or more are considered multiple;

[0098] Step S108, if so, receiving the lighting inspection feedback results of multiple lighting lamps written by the management terminal after a preset duration;

[0099] Among them, after receiving the lighting inspection prompt information, the management terminal will arrange staff for inspection and troubleshooting, and write the lighting inspection feedback results of the lighting lamps into the management terminal after inspection and troubleshooting. The lighting lamp feedback results include two situations: normal or abnormal. The preset duration can be set according to the actual inspection and troubleshooting situation. For example, it can be set to one week or other durations, which is not limited in this application;

[0100] Step S109, calculating the abnormal quantity ratio of each lighting area according to the number of lighting lamps with abnormal lighting inspection feedback results in each lighting area and the total number of lighting lamps in each lighting area;

[0101] Among them, the corresponding abnormal quantity ratio can be determined according to the number of lighting lamps with abnormal lighting inspection feedback results in the lighting area and the total number of lighting lamps. The higher the abnormal quantity ratio, the more lighting lamps in the lighting area are in the abnormal lighting state;

[0102] Step S110, determining whether there is a lighting area with an abnormal quantity ratio exceeding the preset abnormal ratio threshold;

[0103] Among them, the preset abnormal ratio threshold is used to reflect the abnormal judgment standard for the entire lighting area that needs to be inspected and troubleshot, and can be preset according to historical experience or actual situation;

[0104] Step S111, if so, generating lighting area inspection prompt information and sending it to the management terminal;

[0105] Among them, when the proportion of the number of anomalies in a certain lighting area exceeds the preset anomaly proportion threshold, it indicates that most of the lighting lamps in this lighting area are abnormal. It is judged that there may be adverse conditions such as a large amount of dust, humidity, high temperature or low temperature in the lighting environment of this lighting area. Therefore, it is necessary to arrange staff to detect and investigate this lighting area in a timely manner.

[0106] In the above implementation manner, each floor in the building is divided into multiple lighting areas in advance according to the positions of the lighting lamps in the building. Since the lighting environment will also affect the lighting intensity, service life, etc. of the lighting lamps, when most of the lighting lamps in a certain lighting area are abnormal, it indicates that the damage may be caused by the environmental factors in this lighting area. Therefore, by sending a lighting area inspection prompt message to prompt the management terminal, the management terminal can arrange staff to inspect this lighting area to timely eliminate the influence of environmental factors on the lighting lamps in this lighting area, thereby also realizing the protection of other normal lighting lamps and further improving the safety of building lighting.

[0107] Refer to Figure 4 , as a further implementation manner of the control method, after it is judged in step S105 that the proportion of the aging degree of the lighting lamp exceeds the first preset proportion threshold corresponding to the lighting lamp, it further includes:

[0108] Step S201, based on the second preset mapping relationship, determine the second preset proportion threshold corresponding to the lighting lamp according to the lighting type of the lighting lamp; wherein, the preset proportion threshold is greater than the first preset proportion threshold;

[0109] Specifically, this second preset proportion threshold is used to reflect the aging degree judgment standard for the lighting lamp to be replaced. Since the lighting requirements provided by lighting lamps of different lighting types are different, the corresponding lighting replacement standards are also different, and the first preset proportion thresholds set correspondingly are also different;

[0110] Step S202, judge whether the proportion of the aging degree of the lighting lamp exceeds the second preset proportion threshold corresponding to the lighting lamp;

[0111] Step S203, if so, generate a lighting replacement prompt message according to the position information of the lighting lamp and send it to the management terminal.

[0112] Among them, if the proportion of the aging degree of the lighting lamp exceeds the second preset proportion threshold, it can be judged that the lighting lamp has been used for too long and needs to be replaced in a timely manner.

[0113] In the above embodiments, after it is determined that the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp, the second preset ratio threshold corresponding to the lighting lamp is determined according to the lighting type. If the aging degree ratio of the lighting lamp exceeds the second preset ratio threshold, a lighting replacement prompt message can be sent to prompt the management terminal of the management personnel, so as to arrange for the staff to replace it in time, thereby ensuring the lighting needs of the users in the building.

[0114] Referring to Figure 5 , as an implementation manner of step S203, the steps of generating a lighting replacement prompt message according to the position information of the lighting lamp and sending it to the management terminal include:

[0115] Step S301, generating a lighting replacement prompt message according to the position information of the lighting lamp;

[0116] Step S302, determining whether there are multiple lighting replacement prompt messages;

[0117] Step S303, if not, sending the lighting replacement prompt message to the management terminal;

[0118] Among them, when there is only one lighting replacement prompt message, it can be directly sent to the management terminal to prompt for replacement;

[0119] Step S304, if so, determining the corresponding replacement priority sequence according to the lighting types of the lighting lamps corresponding to each lighting replacement prompt message; among them, the replacement priority corresponding to the emergency lighting type is higher than that corresponding to the daily lighting type, and the replacement priority corresponding to the daily lighting type is higher than that corresponding to the decorative lighting type.

[0120] Step S305, sending each lighting replacement prompt message to the management terminal in sequence according to the replacement priority sequence.

[0121] It can be understood that when there are multiple lighting replacement prompt messages, the corresponding replacement priority sequence is determined according to the lighting types of each lighting lamp, and then the lighting replacement prompt messages are sent to the management terminal in sequence according to the replacement priority sequence, and the management terminal can arrange the replacement of each lighting lamp in sequence.

[0122] In the above embodiments, according to the different priorities of lighting requirements corresponding to different lighting types, the corresponding replacement priorities are reasonably arranged, and the replacement priority corresponding to the emergency lighting type is set to the highest, the daily lighting type is the second, and the decorative lighting type is the lowest. Thus, the lighting lamps with higher replacement priorities are preferentially arranged for replacement according to the order of importance and urgency, improving the safety of building lighting.

[0123] Referring to Figure 6, as a further implementation of the intelligent control method for building lighting, after determining the corresponding replacement priority sequence in step S304, it further includes

[0124] Step S401, determine whether there are multiple lighting lamps with the same replacement priority;

[0125] Step S402, if so, obtain the lighting usage information of each lighting lamp with the same replacement priority in the previous time period;

[0126] Among them, the previous time period can be the previous week, previous month, previous quarter, etc., and can be specifically preset according to the actual situation;

[0127] Step S403, based on the pre-designed calculation rule, calculate the corresponding usage priority index of each lighting lamp with the same replacement priority according to the lighting usage information;

[0128] Among them, the usage priority index is used to reflect the degree of user preference for each lighting lamp in the recent period. The larger the usage priority index, the faster it can reflect that the service life of the lighting lamp is shortened, and it can also reflect that the normal or abnormal state of the lighting lamp is more likely to affect the normal life of users;

[0129] Step S404, sort according to the usage priority index corresponding to each lighting lamp with the same replacement priority to obtain the replacement sub-priority corresponding to each lighting lamp with the same replacement priority; among them, the larger the usage priority index of the lighting lamp, the higher the corresponding replacement sub-priority.

[0130] In the above implementation, since the replacement priorities corresponding to the same lighting type are the same, therefore, when there are multiple lighting lamps of the same lighting type, calculate the corresponding usage priority index according to the lighting usage information of each lighting lamp in the previous period of time. The larger the usage priority index, the higher the corresponding replacement sub-priority is set. Thus, arrange replacements for each lighting lamp with the same replacement priority in turn according to the replacement sub-priority, which improves the user's lighting experience while ensuring the orderly progress of the lighting replacement work.

[0131] As an implementation of the lighting usage information, the lighting usage information includes the number of switch times and the usage duration in the previous time period; among them, a lighting lamp from being turned on to being turned off corresponds to a complete switch process, and the number of switch times in the previous time period is the number of times this lighting lamp has gone through this complete switch process in the previous time period; the usage duration in the previous time period is the usage duration of this lighting lamp in the on state in the previous time period.

[0132] It can be understood that during the use of the lighting lamp, in addition to the use environment and the use duration, the frequent switching on and off of the lighting lamp will also affect its service life. Therefore, by combining the number of switching times and the use duration in the previous time period, the user's preference for using this lighting lamp can be comprehensively reflected. The higher this preference degree is, it not only means that the corresponding service life of this lighting lamp is shortened faster, but also indicates that this lighting lamp has a greater impact on the user's lighting needs.

[0133] As an implementation manner of step S403, the pre-designed calculation rule includes:

[0134]

[0135] Among them, UPI is the use priority index, N is the number of switching times in the previous time period, N d is the preset value of the number of switching times, W 1 is the preset weight value of the number of switching times, T is the use duration in the previous time period, T d is the preset value of the use duration, W 2 is the preset weight value of the use duration.

[0136] In the above implementation manner, during the calculation of the use priority index, according to the actual situation of each lighting lamp, the corresponding preset value of the number of switching times, the preset weight value of the number of switching times, the preset value of the use duration, and the preset weight value of the use duration of each lighting lamp are preset. Through the unified and standardized index calculation rule, the authenticity and comprehensiveness of the calculation result are improved.

[0137] It should be noted that when calculating the use priority index corresponding to each lighting lamp, the preset weight value of the number of switching times and the preset weight value of the use duration corresponding to each lighting lamp can both be set to a unified standard, that is, set to a certain fixed value in combination with historical experience and historical statistical situations; or they can be set to different standards according to the lamp type of the lighting lamp. For example, for a lighting lamp with the lamp type of an energy-saving lamp, the more frequently the energy-saving lamp is switched on and off, the easier it is to cause an "impact" on the filament, and relatively it is easier to affect its service life, while the impact of its use duration on the service life is relatively low. Therefore, the preset weight value of the number of switching times for this type of lighting lamp should be higher than the preset weight value of the use duration; for a lighting lamp with the lamp type of an LED lamp, since the LED lamp is a fixed light source, the impact of frequent switching on and off on the service life is very small. Therefore, the preset weight value of the use duration for this type of lighting lamp should be higher than the preset weight value of the number of switching times.

[0138] In addition, for the preset values of the number of switch operations and the preset values of the usage duration corresponding to each lighting lamp, they can all be set to a unified standard, that is, all set to a certain fixed value. For example, obtain the historical usage data of each lighting lamp in the previous year, and based on this previous time period, obtain the historical number of switch operations and the historical usage duration in the same time period as the previous year. Combine the historical number of switch operations of each lighting lamp to determine the corresponding average number of switch operations as the preset value of the number of switch operations, and combine the historical usage duration of each lighting lamp to determine the corresponding average usage duration as the preset value of the usage duration, so as to facilitate comparing the recent usage preference degrees of each lighting lamp and improve the authenticity of the comparison results.

[0139] Referring to Figure 7 , the embodiment of the present application also discloses an intelligent control system for building lighting.

[0140] An intelligent control system for building lighting, the control system includes,

[0141] A lighting lamp information acquisition module 101, configured to acquire lighting lamp information corresponding to each lighting lamp in the building; wherein, the lighting lamp information includes service life, lighting type, and position information;

[0142] A lighting monitoring module 102, configured to monitor the total usage duration of each lighting lamp in the building in real time;

[0143] An aging degree ratio calculation module 103, configured to calculate the aging degree ratio of each lighting lamp according to the total usage duration and the service life of each lighting lamp;

[0144] A first preset ratio threshold determination module 104, configured to determine the corresponding first preset ratio threshold for each lighting lamp based on a first preset mapping relationship according to the lighting type of each lighting lamp;

[0145] A first judgment module 105, configured to judge whether the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp. If so, output a first judgment result;

[0146] A lighting inspection prompt information generation module 106, configured to respond to the first judgment result and generate lighting inspection prompt information according to the position information of the lighting lamp;

[0147] A lighting inspection prompt information sending module 107, configured to send the lighting inspection prompt information to the management terminal.

[0148] In the above implementation manner, by monitoring the aging degree of each lighting lamp in the building and determining the corresponding lighting inspection standards for lighting lamps of different lighting types, it is convenient to detect and investigate according to the actual situation of each lighting lamp in the building, which improves the investigation efficiency while ensuring the daily lighting needs of users in the building and enhancing the safety.

[0149] As an implementation of the intelligent control system for building lighting, the control system further includes a proportion difference calculation module and a lighting inspection frequency generation module;

[0150] The proportion difference calculation module is configured to respond to the first judgment result and calculate the proportion difference between the aging degree proportion and the first preset proportion threshold;

[0151] The lighting inspection frequency generation module is configured to generate a corresponding lighting inspection frequency based on the preset inspection frequency table according to the proportion difference; wherein, the preset inspection frequency table includes the corresponding relationships between multiple groups of proportion difference intervals and lighting inspection frequencies;

[0152] The lighting inspection prompt information generation module 106 is further configured to generate lighting inspection prompt information according to the lighting inspection frequency and the position information of the lighting fixtures.

[0153] In the above implementation, the corresponding lighting inspection frequency can be determined according to the proportion difference, and then the lighting inspection prompt information is generated according to the lighting inspection frequency and the position information to prompt the staff to perform lighting inspection work according to the lighting inspection frequency, so as to facilitate meeting the inspection requirements of different lighting fixtures, reducing the situation of untimely inspection of some lighting fixtures or waste of resources caused by frequent inspection of some lighting fixtures, and improving the adaptability and safety.

[0154] As a further implementation of the intelligent control system for building lighting, the control system further includes:

[0155] The lighting inspection prompt information judgment module is configured to judge whether there are multiple lighting inspection prompt information;

[0156] The lighting inspection feedback result receiving module is configured to receive the lighting inspection feedback results of multiple lighting fixtures written by the management terminal after a preset time when there are multiple lighting inspection prompt information;

[0157] The abnormal quantity proportion calculation module is configured to calculate the abnormal quantity proportion of each lighting area according to the number of lighting fixtures with abnormal lighting inspection feedback results in each lighting area and the total number of lighting fixtures in each lighting area;

[0158] The lighting area judgment module is configured to judge whether there is a lighting area where the abnormal quantity proportion exceeds the preset abnormal proportion threshold;

[0159] The lighting area inspection prompt information generation module is configured to generate lighting area inspection prompt information when there is a lighting area where the abnormal quantity proportion exceeds the preset abnormal proportion threshold;

[0160] The lighting area inspection prompt information sending module is configured to send the lighting area inspection prompt information to the management terminal.

[0161] In the above embodiment, the management terminal is prompted by sending a lighting area inspection prompt message, and the management terminal can arrange staff to inspect the lighting area, so as to timely eliminate the influence of environmental factors on the lighting lamps in the lighting area, thereby realizing the protection of other normal lighting lamps and further improving the safety of building lighting.

[0162] As a further embodiment of the intelligent control system for building lighting, the control system further includes:

[0163] A second preset proportion threshold determination module, configured to determine a second preset proportion threshold corresponding to the lighting lamp according to the lighting type of the lighting lamp based on a second preset mapping relationship; wherein, the second preset proportion threshold is greater than the first preset proportion threshold;

[0164] A second judgment module is further configured to respond to the first judgment result and judge whether the proportion of the aging degree of the lighting lamp exceeds the second preset proportion threshold corresponding to the lighting lamp. If so, a second judgment result is output;

[0165] A lighting replacement prompt message generation module, configured to respond to the second judgment result and generate a lighting replacement prompt message according to the position information of the lighting lamp;

[0166] A lighting replacement prompt message sending module, configured to send the lighting replacement prompt message to the management terminal.

[0167] In the above embodiment, after it is determined that the proportion of the aging degree of the lighting lamp exceeds the first preset proportion threshold corresponding to the lighting lamp, the second preset proportion threshold corresponding to the lighting lamp is determined according to the lighting type. If the proportion of the aging degree of the lighting lamp exceeds the second preset proportion threshold, it can be determined that the lighting lamp has been used for too long and needs to be replaced. Then, the management terminal of the management staff can be prompted by sending a lighting replacement prompt message to arrange staff to replace it in time, so as to ensure the lighting needs of users in the building.

[0168] As a further embodiment of the intelligent control system for building lighting, the control system further includes:

[0169] A lighting replacement prompt message judgment module, configured to judge whether there are multiple lighting replacement prompt messages. If so, a third judgment result is output; if not, a fourth judgment result is output;

[0170] The lighting replacement prompt information sending module is used to send the lighting replacement prompt information to the management terminal in response to the third judgment result; the lighting replacement priority determination module is used to determine the corresponding replacement priority sequence according to the lighting types of the lighting fixtures corresponding to each lighting replacement prompt information in response to the fourth judgment result; among them, the replacement priority corresponding to the emergency lighting type is higher than that corresponding to the daily lighting type, and the replacement priority corresponding to the daily lighting type is higher than that corresponding to the decorative lighting type;

[0171] The lighting replacement prompt information sending module is also used to receive the replacement priority sequence and send each lighting replacement prompt information to the management terminal in sequence according to the replacement priority sequence.

[0172] In the above implementation manner, according to the different priorities of lighting requirements corresponding to different lighting types, the corresponding replacement priorities are reasonably arranged. The replacement priority corresponding to the emergency lighting type is set to the highest, the daily lighting type is the second, and the decorative lighting type is the lowest. Thus, the lighting fixtures with higher replacement priorities are preferentially arranged for replacement according to the order of importance and urgency, improving the safety of building lighting.

[0173] As a further implementation manner of the building lighting intelligent control system, the control system further includes:

[0174] The same replacement priority judgment module is used to judge whether there are multiple lighting fixtures with the same replacement priority. If so, it outputs the fifth judgment result;

[0175] The lighting usage information acquisition module is used to acquire the lighting usage information of each lighting fixture with the same replacement priority in the previous time period in response to the fifth judgment result;

[0176] The usage priority index calculation module is used to calculate the corresponding usage priority index of each lighting fixture with the same replacement priority respectively based on the pre-designed calculation rules according to the lighting usage information;

[0177] The replacement sub-priority determination module is used to sort according to the usage priority index corresponding to each lighting fixture with the same replacement priority to obtain the replacement sub-priority corresponding to each lighting fixture with the same replacement priority; among them, the larger the usage priority index of the lighting fixture, the higher the corresponding replacement sub-priority.

[0178] In the above implementation manner, the corresponding usage priority index is calculated according to the lighting usage information of each lighting fixture in the previous time period. The larger the usage priority index, the higher the corresponding replacement sub-priority is set. Thus, the replacement of each lighting fixture with the same replacement priority is arranged in sequence according to the replacement sub-priority, improving the user's lighting experience while ensuring the orderly progress of the lighting replacement work.

[0179] The building lighting intelligent control system of the present application can implement any one of the above-mentioned building lighting intelligent control methods, and the specific working process of the building lighting intelligent control system can refer to the corresponding process in the above method embodiments.

[0180] It should be noted that in the above embodiments, the descriptions of the respective embodiments have their own emphases. For the parts not detailed in a certain embodiment, reference can be made to the relevant descriptions of other embodiments.

[0181] The embodiments of the present application also disclose a computer-readable storage medium.

[0182] A computer-readable storage medium stores a computer program that can be loaded and executed by a processor to perform any one of the above-mentioned building lighting intelligent control methods.

[0183] Among them, the computer-readable storage medium can be any tangible medium that contains or stores a program, and the program can be used by or in conjunction with an instruction execution system, apparatus, or device; the program code contained on the computer-readable medium can be transmitted by any suitable medium, including but not limited to wireless, wire, optical fiber, RF, etc., or any suitable combination of the above.

[0184] In several embodiments provided by the present invention, it should be understood that the provided methods and systems can be implemented in other ways. For example, the device embodiments described above are merely illustrative; for example, the division of a certain module is only a logical function division, and there can be other division methods in actual implementation. For example, multiple modules can be combined or integrated into another system, or some features can be ignored or not executed. Another point is that the displayed or discussed coupling or direct coupling or communication connection between each other can be an indirect coupling or communication connection through some interfaces, devices, or units, and can be in electrical, mechanical, or other forms.

[0185] The above are all the preferred embodiments of the present application. Without restricting the protection scope of the present application accordingly, any feature disclosed in this specification (including the abstract and drawings), unless specifically described, can be replaced by other equivalent or similar-purpose alternative features. That is, unless specifically described, each feature is only an example in a series of equivalent or similar features.

Claims

1. An intelligent control method for building lighting, characterized in that: the control method includes, obtaining the lighting information corresponding to each lighting lamp in the building; wherein, the lighting information includes service life, lighting type and location information; real-time monitoring the total usage duration of each lighting lamp in the building; calculating the aging degree ratio of each lighting lamp according to the total usage duration and service life of each lighting lamp; based on a first preset mapping relationship, determining a first preset ratio threshold corresponding to each lighting lamp according to the lighting type of each lighting lamp; judging whether the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp, if so, generating a lighting inspection prompt message according to the location information of the lighting lamp and sending it to the management terminal; the lighting type includes emergency lighting type, daily lighting type and decorative lighting type; the first preset mapping relationship includes multiple sets of corresponding relationships between the lighting types and the first preset ratio thresholds; wherein, the first preset ratio threshold corresponding to the emergency lighting type is less than the first preset ratio threshold corresponding to the daily lighting type, and the first preset ratio threshold corresponding to the daily lighting type is less than the first preset ratio threshold corresponding to the decorative lighting type; after judging that the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp, it further includes: based on a second preset mapping relationship, determining a second preset ratio threshold corresponding to the lighting lamp according to the lighting type of the lighting lamp; wherein, the second preset ratio threshold is greater than the first preset ratio threshold; judging whether the aging degree ratio of the lighting lamp exceeds the second preset ratio threshold corresponding to the lighting lamp, if so, generating a lighting replacement prompt message according to the location information of the lighting lamp and sending it to the management terminal; the step of generating a lighting replacement prompt message according to the location information of the lighting lamp and sending it to the management terminal includes: generating a lighting replacement prompt message according to the location information of the lighting lamp; judging whether there are multiple lighting replacement prompt messages, if not, sending the lighting replacement prompt message to the management terminal; if so, determining a corresponding replacement priority sequence according to the lighting types of the lighting lamps corresponding to each lighting replacement prompt message, and sending each lighting replacement prompt message to the management terminal in sequence according to the replacement priority sequence; wherein, the replacement priority corresponding to the emergency lighting type is higher than the replacement priority corresponding to the daily lighting type, and the replacement priority corresponding to the daily lighting type is higher than the replacement priority corresponding to the decorative lighting type; after determining the corresponding replacement priority sequence, it further includes, judging whether there are multiple lighting lamps with the same replacement priority, if so, obtaining the lighting usage information of each lighting lamp with the same replacement priority in the previous time period; calculating the usage priority index corresponding to each lighting lamp with the same replacement priority respectively according to the lighting usage information based on a preset calculation rule; Sort according to the usage priority index corresponding to the lighting lamps with the same replacement priority, and obtain the replacement sub-priorities corresponding to the lighting lamps with the same replacement priority; wherein, the larger the usage priority index of the lighting lamp, the higher the corresponding replacement sub-priority. The lighting usage information includes the number of switch times and the usage duration in the previous time period. The number of switch times is the number of times the lighting lamp has gone through a complete switch process in the previous time period, and the usage duration is the usage duration when the lighting lamp is in the on state in the previous time period; the preset calculation rules include: Among them, UPI is the usage priority index, N is the number of switch operations in the previous time period, N d is the preset value of the number of switch operations, W 1 is the preset weight value of the number of switch operations, T is the usage duration in the previous time period, T d is the preset value of the usage duration, W 2 is the preset weight value of the usage duration.

2. A building lighting intelligent control method according to claim 1, characterized in that The specific steps of generating the lighting inspection prompt information according to the position information of the lighting lamp include: Calculate the ratio difference between the aging degree ratio of the lighting lamp and the first preset ratio threshold; Based on a preset inspection frequency table, generate a corresponding lighting inspection frequency according to the ratio difference; wherein, the preset inspection frequency table includes the corresponding relationships between multiple ratio difference intervals and lighting inspection frequencies; Generate the lighting inspection prompt information according to the lighting inspection frequency and the position information of the lighting lamp.

3. A building lighting intelligent control method according to claim 1, characterized in that Divide each floor in the building into multiple lighting areas according to the position information of each lighting lamp in the building, and multiple lighting lamps are correspondingly arranged in each lighting area; After the step of generating the lighting inspection prompt information and sending it to the management terminal, it further includes: Judge whether there are multiple lighting inspection prompt information. If so, receive the lighting inspection feedback results of multiple lighting lamps written by the management terminal after a preset time; Calculate the abnormal quantity ratio of each lighting area according to the number of lighting lamps with abnormal lighting inspection feedback results in each lighting area and the total number of lighting lamps in each lighting area; Judge whether there is a lighting area with an abnormal quantity ratio exceeding the preset abnormal ratio threshold. If so, generate a lighting area inspection prompt information and send it to the management terminal.

4. A building lighting intelligent control system, characterized in that: It is used to execute a building lighting intelligent control method according to any one of claims 1 to 3. The control system includes, A lighting lamp information acquisition module (101) for acquiring the lighting lamp information corresponding to each lighting lamp in the building; wherein, the lighting lamp information includes service life, lighting type and position information; A lighting monitoring module (102) for real-time monitoring of the total usage duration of each lighting lamp in the building; An aging degree ratio calculation module (103) for calculating the aging degree ratio of each lighting lamp according to the total usage duration and service life of each lighting lamp; A first preset ratio threshold determination module (104) for determining the first preset ratio threshold corresponding to each lighting lamp according to the lighting type of each lighting lamp based on a first preset mapping relationship; The first judgment module (105) is configured to judge whether the aging degree ratio of the lighting lamp exceeds the first preset ratio threshold corresponding to the lighting lamp. If so, a first judgment result is output; The lighting inspection prompt information generation module (106) is configured to respond to the first judgment result and generate lighting inspection prompt information according to the position information of the lighting lamp; The lighting inspection prompt information sending module (107) is configured to send the lighting inspection prompt information to the management terminal.

5. A computer-readable storage medium, characterized in that: it stores a computer program that can be loaded and executed by a processor to perform the method according to any one of claims 1 to 3.

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