Lamp control method based on BLE channel detection

Abstract

The invention provides a lamp control method based on BLE channel detection, and the method comprises the steps: switching to a corresponding registered lamp discovery process when responding to a first induction event, judging whether to synchronously switch to a registered lamp lighting processing process or not, the registered lamp discovery process being used for updating the maximum brightness and state of a lamp, and the registered lamp lighting processing process being used for updating the maximum brightness and state of the lamp; registering a lamp lighting processing flow for brightness control of the lamp; when it is judged that the registered lamp lighting processing flow is synchronously switched to, lighting control is carried out; when a registered lamp discovery process is switched to, current induction event occurrence information is generated and recorded to databases of corresponding lamps, each lamp has a mutually independent database, and the database comprises the number of each lamp, the maximum brightness, the enabling state and the distance between the lamp and the current lamp; wherein the maximum brightness of each lamp in the database of the current lamp is inversely proportional to the distance between the current lamp and each lamp. According to the scheme, non-inductive lighting is achieved, light brightness is set in a stepped mode, and the experience effect is improved.

Description

Technical Field

[0001] This application relates to the technical field of lamp networking, and specifically relates to a lamp control method based on BLE channel detection. Background Art

[0002] Energy-saving lamps in underground parking lots generally rely on infrared induction or microwave induction to detect whether there are people or vehicles around the lamps. When there is no one, the lamps automatically turn off or have a low brightness, and when someone is detected, the lamps automatically turn on or increase the brightness, so as to achieve the purpose of energy conservation.

[0003] Currently, the common energy-saving lamps in underground parking lots are divided into two types: non-networkable induction energy-saving lamps and networkable induction energy-saving lamps. For the former non-networkable induction energy-saving lamps, the linkage control between energy-saving lamps cannot be achieved, and only when people and vehicles arrive can the lamps light up. The energy-saving effect and user perception are average. For the second type of networkable induction energy-saving lamps, the energy-saving lamps have the function of mutual networking and communication, and the linkage control between energy-saving lamps can be achieved. The energy-saving lamps in front of the lane can be lit in advance, which has a better energy-saving effect and user perception compared with the first type of energy-saving lamps.

[0004] However, in the related technology, during the implementation and use of networkable induction energy-saving lamps in projects, problems such as how to sort out the adjacent relationships of energy-saving lamps according to the actual installation positions and usage scenarios of energy-saving lamps, design and plan the linkage relationships of energy-saving lamps to ensure the linkage effect, and arrange implementers to configure and debug each energy-saving lamp according to the above design and plan often arise.

[0005] Therefore, after the installation of networkable induction energy-saving lamps is completed, if a better linkage effect is to be achieved, a large amount of manpower needs to be invested to solve the above problems. Otherwise, the usage effect of networkable energy-saving lamps is similar to that of energy-saving lamps that cannot be linked and controlled.

[0006] In addition, the invention patent with the application number 202411016365.3 provides a method and device for self-discovery and control of adjacent relationships of energy-saving lamps based on Mesh networking. This invention defines three induction events to meet the requirements of linkage control of energy-saving lamp networking, but there are still defects such as inability to meet stepped brightness control and complex nodes. Summary of the Invention

[0007] To solve the above technical problems, this application proposes a lamp control method based on BLE channel detection, including:

[0008] When responding to the first induction event, transfer to the corresponding registered lamp discovery process, and determine whether to synchronously transfer to the registered lamp lighting process. The registered lamp discovery process is used to update the maximum brightness and status of the lamp, and the registered lamp lighting process is used for the brightness control of the lamp;

[0009] When it is determined to synchronously transfer to the process of controlling the lighting of registered lamps, lighting control is performed;

[0010] When transferring to the process of discovering registered lamps, generate the information on the occurrence of the current induction event, record the information on the occurrence of the current induction event in the database corresponding to the lamp, and each lamp has an independent database. The database includes the lamp numbers, maximum brightness, enable status, and the distance from the current lamp;

[0011] Among them, the maximum brightness of each lamp in the database of the current lamp is inversely proportional to the distance between the current lamp and each lamp.

[0012] In this solution, a basic framework of a lamp control method based on BLE channel detection is constructed. When the first induction event (such as detecting a human signal) is sensed, the processes of discovering registered lamps, judging, and executing the lighting process are carried out in an orderly manner. By recording the key information of the lamps (number, maximum brightness set inversely proportional to the distance, enable status, spacing) in an independent database, precise management of the lamps and intelligent adjustment of the brightness are realized, meeting the requirements of different scenarios, improving the intelligent level of the lighting system and the energy utilization efficiency. For example, when a person approaches a lamp, the brightness is reasonably adjusted according to the distance.

[0013] Specifically, the first induction event is an event of detecting a human signal.

[0014] Specifically, when transferring to the process of discovering registered lamps, generate the information on the occurrence of the current induction event, record the information on the occurrence of the current induction event in the database corresponding to the lamp. Specifically, when transferring to the process of discovering registered lamps, generate the information on the occurrence of the current induction event, record the information on the occurrence of the current induction event in the database of the lamp that triggers the current event, and transmit the information on the occurrence of the current induction event to the databases of all lamps. The information on the occurrence of the current induction event includes the type, ID, and enable status of the lamp that triggers the current induction event.

[0015] This technical solution further refines the link of recording event information in the process of discovering registered lamps. Record the event information in the database of the triggering lamp and transmit it to the databases of all lamps, covering the lamp type, ID, and enable status, ensuring real-time synchronization and complete sharing of lamp information, providing accurate basis for the overall decision-making of the system, and facilitating collaborative control, such as accurate information interaction in the scenario of multiple lamps collaborating to create a comfortable light environment.

[0016] Specifically, determine whether to synchronously transfer to the process of controlling the lighting of registered lamps. Specifically, when responding to an induction event, transfer to the corresponding process of discovering registered lamps. After the process of discovering registered lamps is completed, if the database of the lamp has changed compared with before the induction event is triggered, it is determined to transfer to the process of controlling the lighting of registered lamps, otherwise not.

[0017] Specifically, when determining to synchronously transfer to the process of controlling the registered lamps to light up, lighting control is performed, which specifically includes: if the maximum brightness in the database of the lamp changes compared with that before the induction event is triggered, lighting control is performed to adjust the brightness of the corresponding lamp to the maximum brightness in the current database of the corresponding lamp.

[0018] Specifically, it further includes: when responding to the second induction event, transferring to the corresponding registered lamp detection process; the second induction event is an event of sensing a lamp; the registered lamp detection process is used to collect the type, lamp ID, distance, and maximum brightness of the lamps similar to the lamp that triggers the second induction event.

[0019] Through the above technical solutions, the second induction event (sensing a lamp event) and the registered lamp detection process are introduced to collect key information of surrounding lamps (type, ID, distance, maximum brightness), enhancing the system's ability to perceive and coordinate the lamp environment, laying the foundation for intelligent regulation under complex lighting layouts, such as realizing intelligent collaboration of lamp groups in complex lamp layouts in large shopping malls.

[0020] Specifically, the information of the current induction event occurrence is transmitted to the databases of each lamp, which specifically includes: the lamp that triggers the current induction event performs an ADV_NONCONN_IND broadcast trigger notification through BLE externally, so as to transmit the information of the current induction event occurrence to the databases of each lamp.

[0021] Specifically, the enabling state of the database includes YES / NO; when the first induction event is triggered, the enabling state of the corresponding lamp in the database of each lamp is updated to YES, and vice versa to NO.

[0022] Specifically, the process of controlling the registered lamps to light up specifically includes: each lamp periodically checks the corresponding database. When the enabling state of the database is YES, it judges whether the current brightness of the corresponding lamp is the same as the maximum brightness. If not, the brightness is adjusted to the maximum brightness, and vice versa, the current brightness is maintained.

[0023] The above technical means define the enabling state of the database and the update rule. The working state of the lamp is characterized by the enabling state (YES / NO) and is switched according to the induction event, enabling the lamp to accurately respond to personnel activities, realizing intelligent switch control and energy saving, such as the lamps in the area where people leave are turned off in time, and quickly turned on and the brightness is adjusted when they return.

[0024] Specifically, it further includes: after the enabling state of the corresponding lamp in the database is updated to YES, if the corresponding lamp does not receive the first induction event again within the predetermined time, the enabling state of the corresponding lamp is updated to NO.

[0025] Through the above technical means, the lamp periodically checks the database enabling status and brightness, automatically adjusts as needed, ensures continuous optimization and accuracy of lighting, reduces manual intervention, such as stable and intelligent lighting of lamps in scenarios with changes in personnel activities at different times.

[0026] This technical solution improves the lamp enabling status update mechanism. It is set that if the first induction event is not received within a predetermined time, the enabling status is updated to NO to prevent the lamp from continuously working erroneously, reasonably control the lamp on-time, and further improve the energy-saving effect and system intelligence. For example, lamps in a short-term personnel activity area are timely turned off to avoid idle energy consumption. Brief Description of the Drawings

[0027] The drawings are included to provide a further understanding of the embodiments and are incorporated into and form a part of this specification. The drawings illustrate the embodiments and are used in conjunction with the description to explain the principles of the present application. Other embodiments and many of the expected advantages of the embodiments will be readily apparent as they become better understood by reference to the following detailed description. The elements of the drawings are not necessarily to scale with each other. Like reference numerals refer to corresponding like parts.

[0028] Figure 1 is a flowchart of the implementation of a lamp control method based on BLE channel detection according to an embodiment of the present application;

[0029] Figure 2 is a flowchart of the registered lamp discovery process of a lamp control method based on BLE channel detection according to an embodiment of the present application;

[0030] Figure 3 is a flowchart of the registered lamp lighting processing process of a lamp control method based on BLE channel detection according to an embodiment of the present application;

[0031] Figure 4 is a flowchart of the registered lamp detection process of a lamp control method based on BLE channel detection according to an embodiment of the present application;

[0032] Figure 5 is a schematic diagram of a lighting system of a lamp control method based on BLE channel detection according to an embodiment of the present application;

[0033] Figure 6 is an application schematic diagram of a lamp control method based on BLE channel detection according to a specific embodiment of the present application. Detailed Embodiments

[0034] In the following detailed description, reference is made to the accompanying drawings, which form a part of the detailed description and illustrate illustrative specific embodiments in which the present application can be practiced. In this regard, directional terms such as "top", "bottom", "left", "right", "upper", "lower", etc. are used with reference to the orientation of the described figures. Since the components of the embodiments can be positioned in several different orientations, the directional terms are used for the purpose of illustration and are in no way limiting. It should be understood that other embodiments can be utilized or logical changes can be made without departing from the scope of the present application. Therefore, the following detailed description should not be taken in a limiting sense, and the scope of the present application is defined by the appended claims.

[0035] As Figure 1 shown, the present application proposes a lamp control method based on BLE channel detection, including:

[0036] When responding to a first sensing event, transfer to the corresponding registered lamp discovery process, and determine whether to synchronously transfer to the registered lamp lighting process. The registered lamp discovery process is used to update the maximum brightness and status of the lamp, and the registered lamp lighting process is used for the brightness control of the lamp;

[0037] When it is determined to synchronously transfer to the registered lamp lighting process, perform lighting control;

[0038] When transferring to the registered lamp discovery process, generate current sensing event occurrence information, and record the current sensing event occurrence information in the database corresponding to the lamp. Each lamp has an independent database, and the database includes the lamp numbers, maximum brightness, enable status, and the distance from the current lamp;

[0039] Among them, the maximum brightness of each lamp in the database of the current lamp is inversely proportional to the distance between the current lamp and each lamp.

[0040] In this solution, a basic framework of a lamp control method based on BLE channel detection is constructed. When a first sensing event (such as sensing a human signal) is sensed, the registered lamp discovery process and the lighting process judgment and execution work are carried out in an orderly manner. By recording the key information of the lamp (number, maximum brightness set inversely proportional to the distance, enable status, spacing) through an independent database, precise management of the lamp and intelligent regulation of the brightness are realized, meeting the requirements of different scenarios, and improving the intelligent level and energy utilization efficiency of the lighting system. For example, when a person approaches the lamp, the brightness is reasonably adjusted according to the distance.

[0041] Specifically, the first sensing event is an event of sensing a human signal.

[0042] Specifically, when entering the registration lamp discovery process, generate the current induction event occurrence information and record the current induction event occurrence information in the database corresponding to the lamp. Specifically, when entering the registration lamp discovery process, generate the current induction event occurrence information, record the current induction event occurrence information in the database of the lamp that triggered the current event, and transmit the current induction event occurrence information to the databases of each lamp. The current induction event occurrence information includes the type, ID, and enable status of the lamp that triggered the current induction event.

[0043] This technical solution further refines the event information recording link in the registration lamp discovery process. Record the event information in the database of the triggering lamp and transmit it to the databases of each lamp, covering the lamp type, ID, and enable status, ensuring real-time synchronization and complete sharing of lamp information, providing an accurate basis for the overall decision-making of the system, and facilitating collaborative control, such as accurate information interaction in the scenario of multiple lamps collaborating to create a comfortable lighting environment.

[0044] Specifically, determine whether to synchronously enter the registration lamp lighting processing process, specifically including: when responding to an induction event, enter the corresponding registration lamp discovery process. After the registration lamp discovery process is completed, if the database of the lamp has changed compared with before the induction event is triggered, then determine to enter the registration lamp lighting processing process; otherwise, do not enter.

[0045] Specifically, when determining to synchronously enter the registration lamp lighting processing process, perform lighting control, specifically including: if the maximum brightness in the database of the lamp has changed compared with before the induction event is triggered, then perform lighting control and adjust the brightness of the corresponding lamp to the maximum brightness in the current database of the corresponding lamp.

[0046] Specifically, it also includes: when responding to the second induction event, enter the corresponding registration lamp detection process; the second induction event is an event of sensing a lamp; the registration lamp detection process is used to collect the type, lamp ID, distance, and maximum brightness of the lamps similar to the lamp that triggered the second induction event.

[0047] Through the above technical solution, introduce the second induction event (lamp sensing event) and the registration lamp detection process, collect key information of surrounding lamps (type, ID, distance, maximum brightness), enhance the system's ability to perceive and coordinate the lamp environment, and lay the foundation for intelligent control under complex lighting layouts, such as realizing intelligent collaboration of lamp groups in the scenario of complex lamp layouts in large shopping malls.

[0048] Specifically, the transmission of the current induction event occurrence information to the databases of each lamp specifically includes: the lamp that triggered the current induction event performs an ADV_NONCONN_IND broadcast trigger notification through BLE, thereby transmitting the current induction event occurrence information to the databases of each lamp.

[0049] Specifically, the enabled state of the database includes YES / NO; when the first induction event is triggered, the enabled state of the corresponding lamp in the database of each lamp is updated to YES, and vice versa to NO.

[0050] Specifically, the process for handling the lighting of registered lamps specifically includes: each lamp periodically checks the corresponding database. When the enabled state of the database is YES, it determines whether the current brightness of the corresponding lamp is the same as the maximum brightness. If not, it adjusts the brightness to the maximum brightness; otherwise, it maintains the current brightness.

[0051] The above technical means define the enabled state of the database and the update rules. By using the enabled state (YES / NO) to represent the working state of the lamp, which is switched according to the induction event, the lamp can accurately respond to personnel activities, realizing intelligent switch control and energy saving. For example, when people leave the area, the lamps are turned off in time, and when they return, they are quickly turned on and the brightness is adjusted.

[0052] Specifically, it also includes: after the enabled state of the corresponding lamp in the database is updated to YES, if the corresponding lamp does not receive the first induction event again within the predetermined time, the enabled state of the corresponding lamp is updated to NO.

[0053] Through the above technical means, the lamp periodically checks the enabled state and brightness of the database, and automatically adjusts as needed, ensuring continuous optimization and accuracy of lighting, reducing manual intervention. For example, in scenarios where the personnel activity changes at different times, the lamps provide stable and intelligent lighting.

[0054] This technical solution improves the mechanism for updating the enabled state of the lamp. It is set that if the first induction event is not received within the predetermined time, the enabled state is updated to NO, preventing the lamp from working continuously by mistake, reasonably controlling the on-time of the lamp, and further improving the energy-saving effect and system intelligence. For example, the lamps in the area with short-term personnel activities are turned off in a timely manner to avoid idle energy consumption.

[0055] To better understand this application, the technical solution is described through specific embodiments, such as Figure 2 As shown, during the operation of the lighting system, when a human body induction signal such as a microwave is received, the system will perform the following ordered operations:

[0056] Firstly, the lamp uses the ble wireless radio frequency module to periodically send out ADV_NONCONN_IND broadcast trigger notifications externally. This broadcast data packet accurately carries the type identifier and unique ID information of this lamp, thereby realizing the efficient dissemination and identification of lamp information. At the same time, a countdown program is immediately started, and the countdown duration can be flexibly configured according to the actual needs of the system, providing a time reference for subsequent accurate control.

[0057] Second, synchronously update the data in Table 1 within the system, and set the status flag corresponding to this lamp column to "yes", so as to clearly indicate that the lamp is in the active standby state during the current induction cycle, providing a clear basis for subsequent possible collaborative operations or status judgments.

[0058] Third, during the continuous reception of the human body induction signal, if the signal is received repeatedly for multiple times, the system will automatically reset the countdown program to ensure that the lamp remains in the active state continuously, maintaining the effective monitoring and response capabilities for the environment to meet the lighting needs in the scenario of continuous personnel activities.

[0059] Fourth, once the countdown program ends, the lamp immediately stops the periodic triggering broadcast operation and updates the data in Table 1 again, changing the status flag of this lamp column to "no", so as to clearly indicate that the lamp has completed the task or is determined not to need to continue working during the current induction cycle, thereby accurately realizing the dynamic control and energy-saving optimization of the lamp status, and improving the intelligent level and energy utilization efficiency of the entire lighting system.

[0060] For other lamps that receive the trigger notification process, immediately perform a precise update operation on Table 1, and clearly set the status identifier of the column corresponding to the lamp that triggers the induction event to "yes".

[0061] After experiencing N complete cycles and continuously not receiving the trigger information sent by Lamp 1 again, strictly follow the preset rules and established logic to perform a precise status reset operation on the Lamp 1 column in Table 1, and steadily adjust its status identifier to "no".

[0062] For the trigger notifications received by the system from other lamps, the above completely consistent processing procedures and standard logics will also be strictly followed. Through a unified processing paradigm, the system can methodically manage and coordinate the working status and interaction information of numerous lamps, ensuring that in the scenario of multi-lamp collaborative work of the entire lighting system, the status of each lamp can be switched in a timely and precise manner, and they can cooperate with each other in a coordinated, efficient and orderly manner, comprehensively improving the intelligent management level, response ability and user experience of the lighting system, and strongly supporting the stable and reliable operation and performance optimization of the system in diverse lighting demand scenarios.

[0063] As Figure 4 shown, when the lighting system starts the ranging process, it relies on advanced channel detection technology for ranging operations, and is assisted by RRT (if applicable) or PBR technology to achieve high-precision ranging, accurately controlling the error within the range of 0.5m, so as to ensure the accuracy and reliability of the measured distance data, providing solid data support for the precise regulation of the subsequent lighting system. The specific operation process is as follows:

[0064] First, the system enables intelligent monitoring of the surrounding environment and comprehensively collects the ADV broadcast signals emitted by nearby lamps of the same type. In this process, relying on efficient signal parsing and data extraction technologies, the type identification and unique lamp ID information of each lamp are accurately obtained, laying a basic data framework for subsequent accurate identification and positioning of each lamp, ensuring that the system can clearly distinguish the individual characteristics and identity identifiers of each lamp in a complex lighting environment, and achieving precise management and control.

[0065] Second, based on the lamp information obtained in the first step, the system methodically conducts BLE channel detection operations on lamps of the same type at unknown distances one by one. In this detection process, professional signal processing algorithms and precise ranging models are used to deeply mine and analyze the channel state information, so as to accurately measure the exact distance value between two lit lamps. Through this precise measurement step, the system further enriches the position relationship data of each lamp, providing key spatial position parameter basis for constructing an accurate lighting layout model and optimizing lighting parameter configuration, and ensuring the uniformity and coordination of lighting effects.

[0066] Third, based on the rich data collected and measured in the previous steps, the system performs precise data filling tasks, and fills the obtained lamp ID, the distance value obtained by precise measurement, and the brightness information feedback by real-time monitoring into the corresponding columns of the key data table one by one.

[0067] As Figure 5 shown, the technical effects of this technical solution can be achieved only through four modules. The lighting system includes: MCU, LED driving module, radio frequency module, and human body sensing module; the MCU is respectively connected to the LED driving module, the radio frequency module, and the human body sensing module; at the same time, the MCU and the radio frequency module communicate with each other in terms of data.

[0068] As Figure 6 shown, there are 7 groups of lamps in this embodiment. When a person moves from west to east to the position of lamp 4, lamp 4 quickly detects the presence of the person by virtue of its precise sensing device, immediately starts the working mode and lights up, and at the same time emits a notification signal to the surrounding environment through an efficient signal transmitting module.

[0069] During this process, lamps 1, 2, 3, 5, 6, and 7 located in the vicinity can all capture this notification signal in a timely manner by virtue of their sensitive signal receiving units.

[0070] After receiving the signal, each lamp quickly starts the internal data processing process, refreshes the corresponding enable column, and comprehensively maintains and updates the key data table - Table 1. Based on the updated enable column information, each lamp strictly performs the lighting operation according to the maximum brightness parameter set therein.

[0071] In this scenario, since the brightness setting of the lamps is inversely proportional to the distance from the lamps to the person, the lamp 4 at the closest position to the person presents the brightest illumination state. As the distance from lamp 4 gradually increases, the brightness of lamps 1, 2, 3, 5, 6, and 7 gradually decreases in sequence, thus constructing an intelligent lighting scenario with the position of the person as the core and the brightness decreasing gradually from near to far.

[0072] Obviously, those skilled in the art can make various modifications and changes to the embodiments of the present application without departing from the spirit and scope of the present application. In this way, if these modifications and changes are within the scope of the claims of the present application and their equivalent forms, the present application also aims to cover these modifications and changes. The word "comprising" does not exclude the presence of other elements or steps not listed in the claims. The mere fact that certain measures are recited in mutually different dependent claims does not indicate that a combination of these measures cannot be used to advantage. Any reference signs in the claims should not be construed as limiting the scope.

Claims

1. A lighting control method based on BLE channel detection, characterized in that: include: When responding to the first sensing event, the corresponding registered lamp discovery process is entered, and it is determined whether to synchronously enter the registered lamp lighting processing process, wherein the registered lamp discovery process is used to update the maximum brightness and status of the lamp, and the registered lamp lighting processing process is used to control the brightness of the lamp; When it is determined that the registered lamp lighting process is synchronously transferred, the lighting control is performed; When entering the registered lamp discovery process, the current sensing event occurrence information is generated, and the current sensing event occurrence information is recorded in the database of the corresponding lamp. Each lamp has an independent database, and the database includes the lamp number, maximum brightness, enabled state and distance from the current lamp. The maximum brightness of each lamp in the database of the current lamp is inversely proportional to the distance between the current lamp and each lamp.

2. The lighting control method based on BLE channel detection according to claim 1, characterized in that: The first sensing event is an event of sensing a human signal.

3. The lighting control method based on BLE channel detection according to claim 1, characterized in that: When entering the registered lamp discovery process, the current sensing event occurrence information is generated, and the current sensing event occurrence information is recorded in the database of the corresponding lamp, specifically including: when entering the registered lamp discovery process, the current sensing event occurrence information is generated, the current sensing event occurrence information is recorded in the database of the lamp that triggers the current event, and the current sensing event occurrence information is transmitted to the database of each lamp, and the current sensing event occurrence information includes the type, ID and enable status of the lamp that triggers the current sensing event.

4. The lighting control method based on BLE channel detection according to claim 3 is characterized in that: The determination of whether to synchronously enter the registered lamp lighting processing flow specifically includes: when responding to a sensing event, entering the corresponding registered lamp discovery flow; after the registered lamp discovery flow is completed, if the lamp database changes compared to before the sensing event is triggered, then determining to enter the registered lamp lighting processing flow, otherwise not entering.

5. The lighting control method based on BLE channel detection according to claim 4 is characterized in that: When the judgment is synchronously transferred to the registered lamp lighting processing flow, the lighting control is performed, specifically including: if the maximum brightness in the lamp database changes compared to before the sensing event is triggered, the lighting control is performed to adjust the brightness of the corresponding lamp to the maximum brightness in the current database of the corresponding lamp.

6. The lighting control method based on BLE channel detection according to claim 1, characterized in that: Also includes: When responding to the second sensing event, entering the corresponding registered lamp detection process; The second sensing event is an event of sensing a lamp; The registered lamp detection process is used to collect the type, lamp ID, distance and maximum brightness of lamps that are close to the lamp that triggers the second sensing event.

7. The lighting control method based on BLE channel detection according to claim 6, characterized in that: The current sensing event occurrence information is transmitted to the database of each lamp, specifically including: the lamp that triggers the current sensing event performs an ADV_NONCONN_IND broadcast trigger notification externally through BLE, thereby transmitting the current sensing event occurrence information to the database of each lamp.

8. The lighting control method based on BLE channel detection according to any one of claims 1 to 7, characterized in that: The enabling state of the database includes YES / NO; when the first sensing event is triggered, the enabling state of the corresponding lamp in the database of each lamp is updated to YES, otherwise it is updated to NO.

9. The lighting control method based on BLE channel detection according to claim 8, characterized in that: The registered lamp lighting processing flow specifically includes: each lamp periodically checks the corresponding database, and when the database enable status is YES, determines whether the current brightness of the corresponding lamp is the same as the maximum brightness. If not, adjust the brightness to the maximum brightness, otherwise maintain the current brightness.

10. The lighting control method based on BLE channel detection according to claim 9, characterized in that: Also includes: When the enabling state of the corresponding lamp in the database is updated to YES, if the corresponding lamp does not receive the first sensing event again within a predetermined time, the enabling state of the corresponding lamp is updated to NO.

Images