Wireless group control lamp system and remote penetration control method thereof

Abstract

According to the wireless group control lamp system and the remote penetration control method thereof, at least one relay node is arranged in a lamp node distribution area, wireless signals can be amplified and forwarded, the signal coverage range is expanded, the signal blind area is reduced, and the remote penetration control of the wireless group control lamp system is realized. When direct communication between the lamp nodes and the remote control terminal is serious in signal attenuation due to distance or obstacles, the relay nodes transmit signals in a relay mode, stability and reliability of the signals are guaranteed, the problem of control instruction transmission is avoided, and the lamp control effect is improved. Besides, a group control calculation end calculates a comprehensive control weight according to the signal attenuation rate, the node energy consumption ratio and the historical control response accuracy rate of the lamp nodes in the current network environment and a preset lamp function importance coefficient, control priorities of the lamp nodes are ranked according to the comprehensive control weight, and the execution sequence of control instructions is scientifically and reasonably arranged; the problem of lack of a reasonable sorting mechanism in the prior art is solved, and the system control efficiency and reliability are improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of lamp control, in particular to a wireless group control lamp system and a remote penetration control method thereof. BACKGROUND

[0002] In large buildings, commercial places, urban landscape lighting and other scenarios, a large number of lamps often need to be controlled at the same time, so that the wireless lamp control system emerges as the times require, however, the existing wireless lamp control system has defects in communication stability, control accuracy and priority management, for example: in the case of many lamp nodes, wireless signals are easily disturbed, leading to data transmission errors or loss, thereby affecting the control effect of the lamps; at the same time, there is a lack of reasonable control priority sorting mechanism, when multiple control instructions are issued at the same time, the system cannot accurately determine which instructions should be executed first, which may lead to chaos in the operation of the lighting system. SUMMARY

[0003] Therefore, the present application provides a wireless group control lamp system and a remote penetration control method thereof, which can effectively solve the defects of the prior art that wireless signals are easily disturbed, leading to the control effect of the lamps being affected, and the lack of a reasonable control priority sorting mechanism.

[0004] The technical scheme of the present application is as follows:

[0005] A wireless group control lamp system, comprising:

[0006] a plurality of lamp nodes, each lamp node being equipped with a wireless communication module and a light control module, the wireless communication module being used for realizing wireless data transmission between the lamp nodes and communication with a remote control terminal, and the light control module being used for adjusting the brightness and color parameters of the lamps according to the received control instructions;

[0007] at least one relay node, the relay node being arranged in the lamp node distribution area and being used for enhancing the communication between the lamp nodes and between the lamp nodes and the remote control terminal;

[0008] a group control computing terminal, used for calculating a comprehensive control weight based on the signal attenuation rate, node energy consumption ratio, historical control response accuracy and preset lamp function importance coefficient of each lamp node in the current network environment, the comprehensive control weight being used for priority sorting of the lamp nodes;

[0009] a remote control terminal, used for sending control instructions to the lamp nodes according to the comprehensive control weight.

[0010] As a further optional solution of the wireless group control lamp system, the relay node is arranged in the lamp node distribution area in an optimized layout mode based on the distribution density of the lamp nodes, and specifically includes:

[0011] The distribution density of each lamp node is acquired;

[0012] According to the calculation result of the distribution density, the relay node is arranged at the center position of the area with the distribution density greater than a preset threshold.

[0013] As a further optional solution of the wireless group control lamp system, the calculation formula of the comprehensive control weight is specifically:

[0014] ;

[0015] Wherein, represents the comprehensive control weight, represents the signal attenuation rate, represents the node energy consumption ratio, represents the historical control response accuracy rate, represents the lamp function importance coefficient, and is a preset weight adjustment factor, and , , .

[0016] As a further optional solution of the wireless group control lamp system, the acquisition of the signal attenuation rate specifically includes:

[0017] A reference signal strength is preset;

[0018] During the operation of the lamp system, the lamp nodes periodically measure the received actual signal strength, and combine the preset network environment correction parameter to calculate the signal attenuation rate.

[0019] As a further optional solution of the wireless group control lamp system, the acquisition of the node energy consumption ratio specifically includes:

[0020] The current, voltage and working time of the lamp node in a preset statistical period are acquired in real time;

[0021] According to the acquired current, voltage and working time, the actual energy consumption of the lamp node in the statistical period is calculated;

[0022] The standard energy consumption of the lamp node is acquired, and the standard energy consumption is determined according to the rated power of the lamp node and a preset standard working time;

[0023] According to the actual energy consumption and the standard energy consumption, the node energy consumption ratio is calculated.

[0024] As a further optional solution of the wireless group control lamp system, the obtaining of the historical control response accuracy rate specifically comprises:

[0025] the number of all control instructions received by each lamp node in a preset historical statistical period and the number of accurately responded control instructions;

[0026] the historical control response accuracy rate is calculated according to the number of all control instructions and the number of accurately responded control instructions.

[0027] A remote penetration control method of a wireless group control lamp system, specifically comprising:

[0028] the remote control terminal initiates a control request and sends a control instruction to a cloud server through the Internet;

[0029] the cloud server determines a target lamp node according to a comprehensive control weight after receiving the control instruction;

[0030] the cloud server forwards the control instruction to the target lamp node through a communication link established with a relay node or a lamp node;

[0031] a light control module of the target lamp node receives and analyzes the control instruction, generates a corresponding control signal to adjust the brightness and color parameters of the lamp according to the instruction content, and realizes remote control of the lamp.

[0032] A computing device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the steps of the remote penetration control method of the wireless group control lamp system when executing the computer program.

[0033] A computer readable storage medium, wherein the storage medium stores a computer program, and the computer program is executable by a processor to implement the steps of the remote penetration control method of the wireless group control lamp system.

[0034] The beneficial effects of the present application are: by setting at least one relay node in the lamp node distribution area, the communication between the lamp nodes and between the lamp nodes and the remote control terminal is greatly enhanced, the relay node can amplify and forward the wireless signal, expand the coverage range of the signal, reduce the signal blind area, when the direct communication between a certain lamp node and the remote control terminal causes serious signal attenuation due to distance or obstacles, the relay node can relay the signal transmission, ensuring the stability and reliability of the signal transmission, effectively avoiding the problem that the lamp control instruction cannot be accurately conveyed due to signal interruption or weak signal, thereby improving the control effect of the lamp; the group control calculation end calculates the comprehensive control weight based on the signal attenuation rate, node energy consumption ratio, historical control response accuracy and preset lamp function importance coefficient of each lamp node in the current network environment, and sorts the control priority of the lamp nodes according to the weight, which can more scientifically and reasonably arrange the execution order of the control instruction, effectively solving the problem of lacking reasonable control priority sorting mechanism in the prior art, and improving the control efficiency and reliability of the system. BRIEF DESCRIPTION OF DRAWINGS

[0035] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the drawings needed to be used in the embodiments or prior art description will be briefly introduced below. Obviously, the drawings in the following description only represent some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative labor.

[0036] Fig. 1 It is a composition schematic diagram of a wireless group control lamp system of the present application.

[0037] Fig. 2 It is a flowchart of a remote penetration control method of a wireless group control lamp system of the present application.

[0038] Fig. 3 It is a composition schematic diagram of a computing device of the present application. DETAILED DESCRIPTION

[0039] The technical solutions in the embodiments of the present application will be described clearly and completely below. Obviously, the described embodiments only represent some of the embodiments of the present application, not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor are within the scope of protection of the present application.

[0040] REFERENCE Figs. 1 to 3 A wireless group control lamp system, comprising a plurality of lamp nodes, at least one relay node, a group control calculation end and a remote control terminal, wherein:

[0041] A plurality of luminaire nodes, each luminaire node is equipped with a wireless communication module and a light control module, the wireless communication module is used to realize wireless data transmission between the luminaire nodes and communication with the remote control terminal, and the light control module is used to adjust the brightness and color parameters of the luminaire according to the received control instruction.

[0042] Specifically, the wireless communication module equipped in each luminaire node realizes wireless data transmission between the luminaire nodes and communication with the remote control terminal, which makes the luminaire system free from the shackles of traditional wired connection, and the installation is more flexible and convenient, without the need for large-scale wiring, reducing the installation cost and construction difficulty; at the same time, the remote control terminal can control the lighting system at any time and anywhere, and the user can remotely adjust the brightness, color and other parameters of the luminaire through mobile phones, computers and other devices, greatly improving the convenience and flexibility of control, meeting the demand of modern intelligent lighting system for remote control;

[0043] The plurality of luminaire nodes each has wireless communication and light control capability, forming a distributed control structure, which makes the system have good expansibility, when the number of luminaire needs to be increased, only need to add luminaire nodes equipped with corresponding modules and access to the network, without the need for large-scale modification of the whole system, and the distributed structure improves the fault tolerance of the system, the failure of individual luminaire nodes will not affect the normal work of other nodes, ensuring the stable operation of the system;

[0044] The light control module can accurately adjust the brightness and color parameters of the luminaire according to the received control instruction, whether it is to create a warm home atmosphere or to create a professional commercial lighting effect, it can be realized through accurate light adjustment, for example: in the shopping mall, the brightness and color of the light can be adjusted flexibly according to different time periods and product display needs, highlighting the characteristics of the products, attracting the attention of customers and improving the shopping experience.

[0045] At least one relay node, the relay node is arranged in the luminaire node distribution area, used to enhance the communication between the luminaire nodes and the remote control terminal, in some embodiments, the relay node is arranged in the luminaire node distribution area in an optimized layout mode based on the distribution density of the luminaire nodes, specifically including:

[0046] First, the distribution density of each luminaire node is obtained through the sensor or the preset node position information The calculation formula is Wherein, N is the number of luminaire nodes within a preset radius r centered on a certain luminaire node, The area of the region within the preset radius is A;

[0047] According to the calculation result of the distribution density, the relay node is arranged in the area with a distribution density greater than a preset threshold The location is centrally positioned to ensure effective transmission and coverage of wireless signals in areas with dense distribution of lighting nodes, thereby enhancing the communication stability of the entire system.

[0048] Specifically, the distribution density of lighting nodes is obtained through sensors or preset node location information, and relay nodes are set according to the calculation results. This data-driven layout method can accurately place relay nodes in areas with dense distribution of lighting nodes. In areas with dense lighting nodes, wireless signals are prone to interference or signal attenuation due to too many nodes. The reasonable setting of relay nodes can effectively enhance the signal strength in the area, expand the coverage of wireless signals, and ensure that each lighting node can receive a stable and clear signal, thereby ensuring the reliability of communication between lighting nodes and between lighting nodes and remote control terminals.

[0049] By laying out relay nodes based on the distribution density of lighting fixture nodes, key coverage can be provided for densely populated areas where signals are prone to attenuation. This avoids the uneven signal coverage that may occur with traditional uniform layout methods, effectively reduces the occurrence of signal blind spots, and makes the communication network of the entire lighting system more stable and efficient.

[0050] Within the distribution area of ​​lighting nodes, there may be various complex physical environments, such as walls and obstacles. These factors can affect wireless signal transmission. Based on the optimized layout of lighting node distribution density, relay nodes can better adapt to this complex environment. When signal transmission is blocked in a certain area due to environmental factors, relay nodes can promptly relay the signal to ensure the smooth operation of the communication link and greatly enhance the communication stability of the entire system in complex environments.

[0051] The group control calculation terminal is used to calculate the comprehensive control weight based on the signal attenuation rate, node energy consumption ratio, historical control response accuracy, and preset lamp function importance coefficient of each lamp node in the current network environment. The comprehensive control weight is used to prioritize the control of lamp nodes.

[0052] In some embodiments, the formula for calculating the comprehensive control weight is as follows:

[0053] ;

[0054] in, Represented as comprehensive control weight, Expressed as signal attenuation rate, Expressed as node energy consumption ratio, This is expressed as the historical control response accuracy. This is expressed as the importance coefficient of the lighting fixture's function. and The preset weight adjustment factor, and , , .

[0055] Specifically, the formula comprehensively considers the signal attenuation rate of the lamp node in the current network environment, the node energy consumption ratio, the historical control response accuracy rate, and the preset lamp function importance coefficient; the signal attenuation rate reflects the quality of the node and network communication; the node energy consumption ratio reflects the efficiency of the node in energy utilization; the historical control response accuracy rate represents the reliability of the node in past instruction execution; and the lamp function importance coefficient explicitly indicates the criticality of different functions in the system; by incorporating these factors into the calculation, each lamp node can be comprehensively evaluated from multiple dimensions, so as to more accurately determine the control priority thereof and ensure that the system can comprehensively consider various important factors when making control decisions;

[0056] Since the signal attenuation rate, the node energy consumption ratio, and the historical control response accuracy rate are all parameters based on current or historical actual situations, the formula can dynamically adjust the comprehensive control weight as the network environment and node state change, for example: when the network signal in the area where a certain lamp node is located becomes poor and the signal attenuation rate increases, the comprehensive control weight of the lamp node will decrease accordingly, and the priority will also be adjusted, so that the system can more reasonably allocate control resources and adapt to changing actual situations;

[0057] After the control priority is sorted according to the comprehensive control weight, the system can preferentially process the control instructions of the lamp nodes with high weight and high priority, so as to ensure that the lamp nodes with critical functions, good communication, and reliable execution can respond to the control instructions in time, and improve the overall response speed and execution efficiency of the system, for example: in an emergency lighting scenario, the lamp nodes with important functions and good signals will be preferentially controlled to be turned on, thereby guaranteeing the lighting demand in the emergency situation;

[0058] Considering the node energy consumption ratio helps to balance energy saving and system reliability in control priority sorting, for nodes with low energy consumption, the priority thereof can be appropriately increased on the premise of meeting control requirements, thereby promoting the energy-saving operation of the system, and in combination with the historical control response accuracy rate, the nodes with high reliability are preferentially controlled to reduce system problems caused by node failure or untimely response, thereby realizing the organic unification of energy saving and system reliability.

[0059] In some embodiments, the signal attenuation rate is obtained, specifically including:

[0060] A reference signal strength is preset;

[0061] During the operation of the lamp system, the lamp node regularly measures the received actual signal strength, combines a preset network environment correction parameter, and calculates the signal attenuation rate by using the formula , wherein k is the correction parameter, Reference signal strength, Actual signal strength.

[0062] Specifically, the reference signal strength is preset, and the actual signal strength received by the lamp node is measured periodically during the operation of the lamp system. By comparing the actual signal strength with the reference signal strength, the change of the signal in the transmission process can be accurately reflected. This method based on actual measurement avoids the deviation of pure theoretical calculation and more truly reflects the attenuation of the wireless signal in the environment where the lamp node is located. The calculation result is corrected by using the preset network environment correction parameter, so that the calculation of the signal attenuation rate is more in line with the actual network environment. Different network environments (such as obstacles and interference sources) will have different effects on signal transmission. The introduction of the correction parameter can effectively compensate for the errors caused by these environmental factors, further improving the accuracy of the signal attenuation rate calculation. Generally, in a more serious interference scenario, the value range of k may be between 1.2−2.0 to fully compensate for the actual attenuation of the signal. In an open outdoor place, the wireless signal propagates more smoothly, and the value of k may be between 0.8−1.0, so that the calculation result of the signal attenuation rate is more accurate.

[0063] After the signal attenuation rate is accurately obtained, the system can dynamically adjust the communication strategy according to the signal attenuation of different lamp nodes. For nodes with a larger signal attenuation rate, the system can take measures such as increasing the signal transmission power, adjusting the communication frequency, or optimizing the data transmission mode to improve the reliability of signal transmission and ensure that the control command can accurately reach the lamp node, thereby improving the communication performance of the entire system. Through the analysis of the signal attenuation rate of each lamp node, the transmission characteristics of the signal in the lamp distribution area can be understood, which helps to reasonably layout the lamp nodes and relay nodes in the system design and planning stage, avoid the occurrence of signal blind area and weak signal area, and further optimize the coverage and communication quality of the wireless network.

[0064] In some embodiments, the acquisition of the node energy consumption ratio specifically includes:

[0065] The current measurement module measures the current I of the lamp node in real time when the lamp node is working, and the voltage measurement module measures the voltage U of the lamp node in real time when the lamp node is working. At the same time, a timing module is arranged in the lamp node to record the working time t of the lamp node in a preset statistical period T;

[0066] The actual energy consumption E of the lamp node in the statistical period is calculated by the formula

[0067] Obtain the standard energy consumption of the lamp node ​The standard energy consumption is determined according to the rated power of the lamp node and a preset standard working time.

[0068] According to the formula The node energy consumption ratio of each lamp node is calculated.

[0069] Specifically, the current measurement module and the voltage measurement module are integrated in each lamp node, which can measure the current I and the voltage U in real time when the lamp node is working. This real-time measurement method can accurately capture the electrical parameter changes of the lamp under different working states, avoiding the energy consumption calculation errors caused by untimely or inaccurate data collection. For example, when the brightness of the lamp is adjusted, the current and the voltage will change accordingly, and real-time measurement can accurately reflect these dynamic changes, providing a reliable data basis for subsequent energy consumption calculation. The timing module is arranged in the lamp node to record the working time t of the lamp node in the preset statistical period T. By accurately recording the working time, combined with the real-time measurement of the current and the voltage data, the actual energy consumption of the lamp in the statistical period can be more accurately calculated, which is very important for evaluating the actual energy consumption of the lamp and helps to understand the energy consumption characteristics of the lamp under different use scenarios.

[0070] The standard energy consumption of the lamp node is obtained The standard energy consumption is determined according to the rated power of the lamp node and a preset standard working time. The rated power is an important parameter of the lamp, which reflects the power demand of the lamp under normal working conditions. The standard energy consumption is determined based on the rated power and the standard working time, which provides a unified reference benchmark for evaluating the energy consumption performance of the lamp. For example, for the same type of lamp, the standard energy consumption can be set to facilitate the comparison of the energy consumption differences of different lamp nodes in actual use.

[0071] According to the formula The node energy consumption ratio of each lamp node is calculated. The energy consumption ratio is a relative index, which can intuitively reflect the proportional relationship between the actual energy consumption of the lamp node and the standard energy consumption. Through the energy consumption ratio, the energy utilization efficiency of each lamp node can be clearly understood, and whether it is running within a reasonable range can be judged. For example, if the energy consumption ratio is greater than 1, it means that the actual energy consumption of the lamp node is higher than the standard energy consumption, which may indicate energy waste or lamp failure. If the energy consumption ratio is less than 1, it means that the energy utilization efficiency of the lamp node is relatively high.

[0072] In some embodiments, the obtaining of the historical control response accuracy rate specifically includes:

[0073] The number of all control instructions received by each lamp node in a preset historical statistical period and the number of control instructions that are accurately responded, wherein the accurate response is determined according to the consistency between the actual state of the lamp node after executing the control instruction and the state expected to be achieved by the control instruction.

[0074] According to the number of all control instructions and the number of accurately responded control instructions, the historical control response accuracy rate is calculated.

[0075] Specifically, by counting the number of all control instructions and the number of accurately responded control instructions received by each lamp node in a preset historical statistical period, and taking the consistency of the actual state and the expected state as the basis for judging accurate response, the execution effect of each lamp node on the control instruction can be accurately quantified. This quantification method avoids the error of subjective judgment and provides objective and accurate data support for evaluating the control reliability of the lamp node, for example: it can be clearly known that a certain lamp node has received 100 control instructions in a month, of which 95 have been accurately responded, and the historical control response accuracy rate is 95%, which intuitively reflects the control reliability level of the node; based on the preset historical statistical period for data statistics, the control response situation of the lamp node in different time periods can be comprehensively reflected. Different time periods may correspond to different network environments, use scenarios and other factors. Through long-term statistics, the influence of various factors on the control response of the lamp node can be considered comprehensively, so that the evaluation result is more representative and reliable.

[0076] According to the historical control response accuracy rate of each lamp node, the system can adjust the control strategy accordingly. For the lamp nodes with high historical control response accuracy rate, the control mode can be continued or appropriately optimized in subsequent control; and for the nodes with low accuracy rate, measures such as increasing instruction repeated sending, adjusting communication parameters or giving priority to troubleshooting can be taken to improve the accuracy of control response, so as to improve the control effect of the system as a whole.

[0077] After understanding the historical control response accuracy rate of each lamp node, the system can be more reasonable in allocating control resources, for example: when sending control instructions to multiple lamp nodes at the same time, for the nodes with high control response accuracy rate, the resource allocation can be appropriately reduced, and for the nodes with low accuracy rate, the resource investment can be increased to ensure that the control instruction can be effectively executed and the overall operation efficiency of the system is improved.

[0078] In some embodiments, the preset of the lamp function importance coefficient is:

[0079] The lamp functions are divided into switch function, brightness adjustment function, color adjustment function, timing function and scene mode switching function; wherein the importance coefficient of the switch function is set to 0.4, the importance coefficient of the brightness adjustment function is set to 0.3, the importance coefficient of the color adjustment function is set to 0.15, and the importance coefficient of the timing function is set to 0.15. ​​​The importance coefficient of the scene mode switching function is set to 0.1 The importance coefficients are set to 0.05, which are set according to the frequency of use of each function of the lamp in the conventional use scene and the degree of influence on the user experience.

[0080] The remote control terminal sends a control instruction to the lamp node according to the comprehensive control weight.

[0081] Specifically, the comprehensive control weight is calculated based on the signal attenuation rate, node energy consumption ratio, historical control response accuracy rate and preset lamp function importance coefficient of the lamp node in the current network environment, which comprehensively reflects the importance and running state of the lamp node in the system. The remote control terminal sends a control instruction to the lamp node according to the comprehensive control weight, which can preferentially control nodes with high weight and high priority, ensure that key functions, communication is good and the lamp node with reliable execution responds to the control instruction in time, realize precise light control and meet the lighting needs in different scenes.

[0082] Since the comprehensive control weight is dynamically adjusted with the changes of the network environment and the state of the lamp node, the remote control terminal sends instructions according to the real-time weight, which can make the system quickly adapt to various changes, for example: when the network signal in a certain area becomes poor, causing the signal attenuation rate of the lamp node to increase, the comprehensive control weight of the lamp node will decrease, and the remote control terminal will accordingly reduce the control priority of the node, avoiding the failure of the control instruction due to signal problems, and ensuring the accuracy and stability of the system control.

[0083] A remote penetration control method of a wireless group control lamp system, specifically comprising:

[0084] The remote control terminal initiates a control request and sends a control instruction to the cloud server through the Internet;

[0085] After receiving the control instruction, the cloud server determines the target lamp node according to the comprehensive control weight;

[0086] The cloud server forwards the control instruction to the target lamp node through the communication link established with the relay node or the lamp node;

[0087] The light control module of the target lamp node receives and analyzes the control instruction, generates a corresponding control signal to adjust the brightness and color parameters of the lamp according to the instruction content, and realizes remote control of the lamp.

[0088] A computing device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the steps of the remote penetration control method of the wireless group control lamp system described above when executing the computer program.

[0089] A computer readable storage medium, a computer program is stored on the storage medium, the computer program is executed by a processor to implement the steps of the remote penetration control method of the wireless group control lamp system.

[0090] The above description is merely preferred embodiments of the present application, and is not used to limit the present application. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.

Claims

1. A wireless group control lighting system, characterized in that, include: Multiple lighting nodes, each equipped with a wireless communication module and a lighting control module. The wireless communication module is used to realize wireless data transmission between lighting nodes and communication with a remote control terminal. The lighting control module is used to adjust the brightness and color parameters of the lighting fixtures according to the received control commands. At least one relay node is provided, which is located within the distribution area of ​​the lighting nodes and is used to enhance communication between lighting nodes and between lighting nodes and remote control terminals. The group control calculation terminal is used to calculate the comprehensive control weight based on the signal attenuation rate, node energy consumption ratio, historical control response accuracy, and preset lamp function importance coefficient of each lamp node in the current network environment. The comprehensive control weight is used to prioritize the control of lamp nodes. The remote control terminal sends control commands to the lighting nodes based on the comprehensive control weights.

2. The wireless group control lighting system according to claim 1, characterized in that, The relay nodes are arranged in an optimized layout based on the distribution density of the lighting nodes within the lighting node distribution area, specifically including: Obtain the distribution density of each lighting node; Based on the distribution density calculation results, the relay node is set at the center of the area where the distribution density is greater than the preset threshold.

3. The wireless group control lighting system according to claim 2, characterized in that, The specific formula for calculating the comprehensive control weight is as follows: ； in, Represented as comprehensive control weight, Expressed as signal attenuation rate, Expressed as node energy consumption ratio, This is expressed as the historical control response accuracy. This is expressed as the importance coefficient of the lighting fixture's function. and The preset weight adjustment factor, and , , .

4. The wireless group control lighting system according to claim 3, characterized in that, The acquisition of the signal attenuation rate specifically includes: Preset reference signal strength; During the operation of the lighting system, the lighting nodes periodically measure the actual signal strength received and calculate the signal attenuation rate by combining the preset network environment correction parameters.

5. The wireless group control lighting system according to claim 4, characterized in that, The acquisition of the node energy consumption ratio specifically includes: Real-time acquisition of current, voltage, and working time of lighting nodes within a preset statistical period; Based on the obtained current, voltage, and operating time, the actual energy consumption of the lighting node within the statistical period is calculated. Obtain the standard energy consumption of the lighting node, which is determined based on the rated power of the lighting node and the preset standard working time; Based on the actual energy consumption and standard energy consumption, the node energy consumption ratio is calculated.

6. The wireless group control lighting system according to claim 5, characterized in that, The acquisition of the historical control response accuracy specifically includes: The number of all control commands received by each lighting node within a preset historical statistical period, and the number of control commands that were accurately responded to; The historical control response accuracy is calculated based on the total number of control commands and the number of control commands that respond accurately.

7. A remote penetration control method for a wireless group-controlled lighting system, characterized in that, Specifically, it includes: The remote control terminal initiates a control request and sends control commands to the cloud server via the Internet; After receiving the control command, the cloud server determines the target lighting node based on the comprehensive control weights; The cloud server forwards control commands to the target lighting node through a communication link established with the relay node or the lighting node. The lighting control module of the target lighting node receives and parses the control commands, generates corresponding control signals based on the command content, and adjusts the brightness and color parameters of the lighting fixture to achieve remote control of the lighting fixture.

8. A computing device, characterized in that, It includes a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the remote penetration control method of the wireless group control lighting system of claim 7.

9. A computer-readable storage medium, characterized in that, The storage medium stores a computer program, which, when executed by a processor, implements the steps of the remote penetration control method of the wireless group control lighting system of claim 7.

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