CN115460741A - Street lamp control method and device based on 5G positioning big data information - Google Patents

Abstract

The embodiment of the application discloses a street lamp control method and device based on 5G positioning big data information, wherein a lamp turning-on range is determined by acquiring street lamp information and road section speed limit information according to an illumination range, road section speed limit information, preset information processing time and preset sending intervals of the street lamp information; when the preset sending interval is finished, detecting whether 5G positioning information of the user exists in a light-on range according to the 5G positioning big data information of the user; if the 5G positioning information of the user exists in the light-on range and the opening and closing state of the street lamp is the light-off state, sending a light-on instruction to the corresponding street lamp when the preset information processing time is over; if the 5G positioning information of the user does not exist in the lighting range, and the opening and closing state of the street lamp is the lighting state, the lamp closing instruction is sent to the corresponding street lamp after the preset information processing time is over, so that the street lamp controls the lamp closing according to the lamp closing instruction, the problem of poor energy-saving effect of street lamp control can be solved, the accuracy of street lamp control is improved, and the energy-saving effect of street lamp control is improved.

Description

A street lamp control method and device based on 5G positioning big data information

technical field

The embodiment of the present application relates to the technical field of street lamp adjustment, and in particular to a street lamp control method and device based on 5G positioning big data information.

Background technique

According to the data, in 2018, the stock of street lamps in my country was between 28 million and 30 million. In recent years, the proportion of newly added street lamps is about 15%-20% every year, and the number of newly added street lamps is about 3 million to 6 million per year. Global lighting electricity consumption accounts for about 19% of global electricity consumption, while street lighting electricity consumption accounts for about 30% of lighting electricity consumption. However, street lighting is mostly low-efficiency lighting, and the utilization rate of electric energy is less than 65%, which is a serious waste of electric energy.

The current street lamp control method is generally based on unified adjustment of a fixed time period, such as full-power lighting before 22:00, dimming or directly turning off the lights after 22:00. This kind of street lamp control method is not precise, which will cause the problem of wasted lighting in the first half of the night and insufficient lighting in the second half of the night, and the energy saving effect achieved is poor.

Contents of the invention

Embodiments of the present application provide a street lamp control method, device, device, and storage medium based on 5G positioning big data information, which can solve the problem of poor energy-saving effect of street lamp control, improve the accuracy of street lamp control, and improve the energy-saving effect of street lamp control.

In the first aspect, the embodiment of the present application provides a street lamp control method based on 5G positioning big data information, including:

Obtain street lamp information and road section speed limit information, the street lamp information includes street lamp geographic location, street lamp ID, street lamp on/off status and lighting range;

Determine the lighting range according to the lighting range of the street lamp information, the speed limit information of the road section, the preset information processing time and the preset sending interval;

Determine the user's 5G positioning big data information according to the 5G terminal equipment;

At the end of the preset sending interval, detect whether there is 5G positioning information of the user within the light-on range according to the 5G positioning big data information of the user;

If there is 5G positioning information of the user in the light-on range, and the street light is in the off-light state, then when the preset information processing time ends, a light-on command is sent to the corresponding street light, so that the street light can receive The received command to turn on the light is controlled to turn on the light;

If there is no 5G positioning information of the user within the light-on range, and the street light is in the on-off state, a light-off command is sent to the corresponding street light at the end of the preset information processing time, so that the street light Turning off the lights is controlled according to the lights off instruction.

Further, the determination of the lighting range according to the lighting range of the street lamp information, the speed limit information of the road section, the preset information processing time and the preset sending interval includes:

The first time is obtained by adding the preset information processing time to the preset sending interval;

Obtaining the first distance according to a preset multiple of the product of the speed limit information of the road section and the first time;

The light-on range is obtained according to the superposition of the lighting range and the first distance.

Further, the light-on instruction includes brightness level information;

If the 5G positioning information of the user exists in the light-on range, and the street light is in the off-light state, when the preset information processing time ends, a light-on instruction is sent to the corresponding street light, including:

If there is 5G positioning information of the user within the light-on range, then obtain the second distance between the 5G positioning information and the geographic location of the street lamp;

Determine the brightness level information according to the second distance, if the brightness level information is not the highest level or the street lamp is currently turned on and off, then generate a light-on instruction according to the brightness level information;

Send the light-on command to the corresponding street lamp according to the street lamp ID.

Further, the determining brightness level information according to the second distance includes:

According to the second distance and a preset mapping relationship between the distance and the brightness level, determine the brightness level corresponding to the second distance to form brightness level information.

Further, after sending the light-on instruction to the corresponding street lamp according to the street lamp ID, it includes:

The street lights control the lights according to the received light-on instructions, so that the brightness of the lights reaches the corresponding brightness level;

The brightness of the street lamp is automatically increased by one level at every preset time interval until reaching the maximum brightness level. The preset time interval includes a ratio of the sum of the preset sending interval and the preset information processing time to the brightness level minus one.

Further, the street lamp information also includes base station information, and the light-on instruction includes street lamp information;

The sending the light-on command to the corresponding street lamp includes:

According to the base station information in the street lamp information, the light-on instruction is sent to the corresponding base station, so that the base station forwards the light-on instruction to the corresponding street lamp according to the street lamp ID in the street lamp information.

Further, the light-on instruction includes brightness level information;

If there is 5G positioning information of the user within the range of turning on the light, then sending a light-on instruction to the corresponding street lamp, including:

If there is 5G positioning information of the user within the range of turning on the lights, then obtain the number of users within the range of turning on the lights;

Determine corresponding brightness level information according to the number of users and a preset mapping relationship between the number of users and the brightness level;

Generate a light-on instruction according to the brightness level information, and send the light-on instruction to a corresponding street lamp.

In the second aspect, the embodiment of the present application provides a street lamp control device based on 5G positioning big data information, including:

An information acquisition unit, configured to acquire street lamp information and road section speed limit information, the street lamp information including street lamp geographic location, street lamp ID, street lamp on/off status and lighting range;

A light-on range determination unit, configured to determine the light-on range according to the lighting range of the street light information, the speed limit information of the road section, the preset information processing time and the preset sending interval;

The detection unit is used to determine the user's 5G positioning big data information according to the 5G terminal equipment, and at the end of the preset sending interval, detect whether the user's 5G positioning information exists within the light-on range according to the user's 5G positioning big data information ;

The command sending unit is used to send a light-on command to the corresponding street lamp when the preset information processing time ends if there is 5G positioning information of the user in the light-on range, and the street lamp is in the off-light state, so that making the street lamp turn on according to the received instruction to turn on the light;

If there is no 5G positioning information of the user within the light-on range, and the street light is in the on-off state, a light-off command is sent to the corresponding street light at the end of the preset information processing time, so that the street light Turning off the lights is controlled according to the lights off instruction.

Further, the light-on range determination unit is further configured to add the preset information processing time to the preset sending interval to obtain the first time;

Obtaining the first distance according to a preset multiple of the product of the speed limit information of the road section and the first time;

The light-on range is obtained according to the superposition of the lighting range and the first distance.

Further, the light-on instruction includes brightness level information;

The instruction sending unit is further configured to obtain a second distance between the 5G positioning information and the geographic location of the street light if there is 5G positioning information of the user within the range of turning on the lights;

Determine the brightness level information according to the second distance, if the brightness level information is not the highest level or the street lamp is currently turned on and off, then generate a light-on instruction according to the brightness level information;

Send the light-on command to the corresponding street lamp according to the street lamp ID.

Further, the instruction sending unit is further configured to determine a brightness level corresponding to the second distance according to the second distance and a preset mapping relationship between distance and brightness level, and form brightness level information.

Further, the device further includes a light-on unit, the light-on unit is used to control the street lamp to turn on the light according to the received light-on instruction, so that the brightness of the light on reaches the corresponding brightness level;

The brightness of the street lamp is automatically increased by one level at every preset time interval until reaching the maximum brightness level. The preset time interval includes a ratio of the sum of the preset sending interval and the preset information processing time to the brightness level minus one.

Further, the street lamp information also includes base station information, and the light-on instruction includes street lamp information;

The instruction sending unit is further configured to send the light-on instruction to the corresponding base station according to the base station information in the street lamp information, so that the base station forwards the light-on instruction to the corresponding base station according to the street lamp ID in the street lamp information. street lights.

Further, the light-on instruction includes brightness level information;

The instruction sending unit is also used to obtain the number of users within the light-on range if there is 5G positioning information of the user within the light-on range;

Determine corresponding brightness level information according to the number of users and a preset mapping relationship between the number of users and the brightness level;

Generate a light-on instruction according to the brightness level information, and send the light-on instruction to a corresponding street lamp.

In the third aspect, the embodiment of the present application provides a street lamp control device based on 5G positioning big data information, including:

memory and one or more processors;

The memory is used to store one or more programs;

When the one or more programs are executed by the one or more processors, the one or more processors implement the street lamp control method based on 5G positioning big data information as described in the first aspect.

In the fourth aspect, the embodiment of the present application provides a storage medium storing computer-executable instructions, and the computer-executable instructions are used to execute the 5G-based positioning big data as described in the first aspect when executed by a computer processor. Informational street light control method.

In the embodiment of the present application, by acquiring street lamp information and road section speed limit information, according to the lighting range in the street lamp information, road section speed limit information, preset information processing time and preset sending interval, the range of turning on the lights is determined, and the user's speed is determined according to the 5G terminal equipment. 5G positioning big data information, and at the end of the preset transmission interval, according to the user's 5G positioning big data information, detect whether there is user's 5G positioning information within the light-on range, if there is user's 5G positioning information within the light-on range, and the If the state of the street light on and off is the light off state, then at the end of the preset information processing time, a light-on command is sent to the corresponding street light, instructing the street light to turn on the light; when it is detected that there is no 5G positioning information of the user within the light-on range, And if the street lamp is turned on or off, a light off instruction is sent to the corresponding street lamp at the end of the preset sending time interval, so that the street lamp is controlled to turn off the light according to the light off instruction. Using the above-mentioned technical means, the lighting range can be determined through the lighting range and speed limit information of the road section, the preset information processing time, and the preset sending time interval, so that when a user is detected within the lighting range at the end of the preset sending interval, then At the end of the preset information processing time, the light-on command is sent, so that the street light remains on until the next command is received, ensuring that the street light remains on when the user passes the lighting range of the street light. When it is detected that there is no user within the light-on range at the end of the preset sending interval, a light-off command is sent at the end of the preset information processing time to turn off the street light, avoiding resource waste caused by no user turning on the light within the lighting range.

Description of drawings

FIG. 1 is a flow chart of a street lamp control method based on 5G positioning big data information provided by an embodiment of the present application;

Fig. 2 is a schematic diagram of the street lighting range and the lighting range provided by the embodiment of the present application;

Fig. 3 is a schematic diagram of a light-off state provided by an embodiment of the present application;

Fig. 4 is a schematic diagram of a light-on state provided by an embodiment of the present application;

Fig. 5 is a schematic diagram of circles corresponding to brightness levels provided by the embodiment of the present application;

Fig. 6 is a schematic diagram of the circle layer and position corresponding to the street lamp turning on in Table 1 provided by the embodiment of the present application;

FIG. 7 is a schematic diagram of street lamp positions corresponding to Table 4 provided in the embodiment of the present application;

Fig. 8 is a schematic structural diagram of a street lamp control device based on 5G positioning big data information provided by an embodiment of the present application;

Fig. 9 is a schematic structural diagram of a street lamp control device based on 5G positioning big data information provided by an embodiment of the present application.

detailed description

In order to make the purpose, technical solution and advantages of the present application clearer, specific embodiments of the present application will be further described in detail below in conjunction with the accompanying drawings. It should be understood that the specific embodiments described here are only used to explain the present application, but not to limit the present application. In addition, it should be noted that, for the convenience of description, only parts relevant to the present application are shown in the drawings but not all content. Before discussing the exemplary embodiments in more detail, it should be mentioned that some exemplary embodiments are described as processes or methods depicted as flowcharts. Although the flowcharts describe various operations (or steps) as sequential processing, many of the operations may be performed in parallel, concurrently, or simultaneously. In addition, the order of operations can be rearranged. The process may be terminated when its operations are complete, but may also have additional steps not included in the figure. The processing may correspond to a method, function, procedure, subroutine, subroutine, or the like.

The street lamp control method, device, device, and storage medium based on 5G positioning big data information provided by this application are designed to control the lighting range and speed limit information of road sections, preset information processing time, and transmission time interval when controlling street lamps. Detect 5G positioning information within the light-on range to detect whether there is a user within the light-on range at the end of the preset sending interval. Send a light-on command to the corresponding street lamp, and instruct the street lamp to turn on, so as to improve the accuracy of the timing of turning on the light, and improve the accuracy of street lamp control, thereby improving the energy-saving effect of street lamp control. In addition, when it is detected that there is no user within the light-on range and the street light is on, an instruction to turn off the light is sent at the end of the preset information processing time to turn off the street light, so as to avoid problems caused by no user turning on the light within the lighting range. Waste of resources to improve the energy-saving effect of street lamp control. Compared with the traditional way of controlling the opening and closing of street lights, it is usually based on unified adjustment for a fixed time period, full power lighting before the preset time point, and dimming or directly turning off the street lights after the preset time point. If the control is not precise enough, it will cause waste of lighting before the preset time point and insufficient lighting after the preset time point, and the energy saving effect is poor. Based on this, a street lamp control method based on 5G positioning big data information according to an embodiment of the present application is provided to solve the problem of poor intelligent effect of existing street lamp control.

Figure 1 shows a flow chart of a street lamp control method based on 5G positioning big data information provided in the embodiment of the present application. The street lamp control method based on 5G positioning big data information provided in this embodiment can be based on 5G positioning big data The street lamp control device based on 5G positioning big data information can be implemented by means of software and/or hardware, and the street lamp control device based on 5G positioning big data information can be composed of two or more physical entities , can also be a physical entity. Generally speaking, the street lamp control device based on 5G positioning big data information can be a background system for street lamp control, such as computer equipment.

The following description will be made by taking computer equipment as the main body executing the street lamp control method based on 5G positioning big data information as an example. Referring to Figure 1, the street lamp control method based on 5G positioning big data information specifically includes:

S101. Obtain street lamp information and road section speed limit information, where the street lamp information includes street lamp geographic location, street lamp ID, street lamp on/off state, and lighting range.

Obtain street light information, which includes street light location, street light ID, street light on/off status, street light lighting range, 5G base station corresponding to each street light, brightness adjustment scheme for each street light, etc. Wherein, the geographical location of the street light is the geographical location corresponding to each light pole, and the geographical location is latitude and longitude information and geographical distribution information, which can be obtained through the relevant street light management department. The background system stores the street light information in advance. The brightness adjustment scheme of each street lamp is stored in the background system of street lamp control, and the brightness adjustment scheme of each street lamp can be adjusted uniformly or individually. The status of the street light on and off is the current on and off status of the street light, and the current on and off status of the street light is the on and off status of the corresponding street lamp's last command, which is stored in the background system, and the corresponding street light status is updated when there is an adjustment of the on and off status of the street light

Wherein, the lighting range refers to the lighting circle range corresponding to each street lamp, and the lighting circle range is the lighting aperture range formed by the corresponding street lamp when the street lamp is turned on, and is used for illuminating vehicles or pedestrians.

Obtain the distribution of 5G mobile phones from the operator's background, and use the 5G base station positioning function to understand the user distribution of the 5G base station coverage area, adjust the data of each base station through the operator's background, and output the 5G user distribution map in real time. Among them, the 5G base station positioning function is that 5G has added a positioning function in the R16 version. It uses the MIMO multi-beam feature to define the signal round-trip time (RTT), signal time difference of arrival (TDOA), and angle of arrival (AoA) based on the cell. , Angle of Departure (AoD) and other indoor positioning technologies. It can achieve a positioning accuracy of 3 meters outdoors and 10 meters indoors, and can accurately determine whether the user is on the road illuminated by street lights or behind the street lights. When outputting the real-time distribution map of 5G users, other information of 5G users is erased, only the geographical distribution map of 5G users needs to be output, and the personal privacy of specific users is not involved.

In the street lamp test, it is integrated with a command receiver, a memory, a street lamp switch controller and a brightness adjuster (the brightness adjuster may not be equipped when there is no need for brightness level adjustment). Among them, the memory is used to store information such as the code of the street lamp, and the dimmer includes a timer. The dimmer is selected when the user needs to adjust the brightness of the street lamp according to the actual situation. If there is no need for brightness level adjustment, no dimmer is required. The integrated units on the street lamp side can be arranged together or separately for each street lamp according to the actual situation of street lamp layout.

Through the street light information, you can know the geographical location, lighting range and which base station sends the command information of each street light. By obtaining the street light information, the geographical location of the street light can be clarified, which provides an important geographical location reference for subsequent determination of whether to turn on the light. And through the street lamp information, the 5G base station information corresponding to each street lamp can be clarified, which provides clear base station information for the subsequent transmission of the command to turn on and off the lights, and improves the accuracy of command transmission.

S102. Determine a lighting range according to the lighting range of the street lamp information, the speed limit information of the road section, the preset information processing time, and the preset sending interval.

Based on the corresponding limit requirements for each road section, especially on the roads where cars are driving, corresponding speed limit requirements are set. During the sending time interval, the car will travel a certain distance. Vehicles within this distance may pass through the street lighting circle within the sending interval. If the street light is in the light-on state, it is necessary to determine the corresponding light-on range so that when the preset sending interval ends and a user is detected within the light-on range, the light-on command is sent at the end of the preset information processing time, so that the street light is turned on. Lights to ensure that users enter the lighting circle Street lights provide lighting for users, improve the accuracy of controlling the time of turning on the lights, and realize lighting for users while saving power resource consumption.

The light-on range is the light-on circle range. According to the lighting range in the street lamp information, the speed limit information of the road section, the preset information processing time and the preset sending time interval, the range of the lighting circle is determined. Wherein, the road section speed limit information is the speed limit of the road, and the road speed limit information of the road section where the corresponding street light is located can be obtained through the data of the traffic department. The preset information processing time is the time required for background processing information, and also becomes the preset background information processing time. The preset background information processing time is to consider each round of background processing 5G positioning big data information to determine the second distance, formulate each street lamp instruction and the time for the instruction to be transmitted to the street lamp side. The transmission time of the current communication system is basically at the millisecond level, which is mainly limited In terms of background processing capabilities, the overall requirement is within 3s. The preset sending interval is customized according to the energy-saving accuracy requirements. The shorter the preset sending interval, the smaller the lighting range and the higher the energy-saving accuracy, but the ability of the background system to process information must be considered. The preset sending time can be adaptively adjusted according to the actual situation during actual use.

When determining the range of the lighting circle, the first time can be obtained according to the addition of the preset information processing time and the preset sending time, and the first distance can be obtained according to the preset multiple of the product of the road section speed limit information and the first time, According to the superposition of the range of the lighting circle and the first distance, the range of the lighting circle is obtained. It can be expressed in a formula: the range of the lighting circle = the range of the lighting circle + the speed limit of the road section * (the preset information processing time + the preset sending interval) * the preset multiple, where the preset multiple is to take into account that the user may have In the case of overspeed, the specific value of the preset multiple can be set according to the actual situation. In this embodiment, the preset multiple is set to 110% for illustration, and the corresponding formula is expressed as: Lighting circle range=lighting circle range+road speed limit*(preset information processing time+preset sending interval) *110%. Fig. 2 is a schematic diagram of the lighting range and the lighting range of the street lamp provided by the embodiment of the present application. Referring to Fig. 2, the street lamp A on the road, when the street lamp A is turned on, the corresponding lighting circle layer range is the lighting circle layer 11, then According to the method for determining the range of the light-on circle layer, the corresponding light-on circle layer ranges can be determined as the light-on circle layer 21 and the light-on circle layer 22 . Generally, there are passing vehicles and pedestrians on the road, so there are corresponding light-on circle layers on the left and right sides of the street lamp, that is, the light-on circle layer 21 and the light-on circle layer 22 .

By determining the range of the lighting circle, the time for turning on the street lights is relatively advanced, so that when the users within the lighting circle pass through the lighting circle, the street lights are in the state of turning on the lights, which realizes lighting for users and will not cause delays in turning on Insufficient lighting caused by lamps.

S103. Determine the user's 5G positioning big data information according to the 5G terminal device, and when the preset sending interval ends, detect whether the user's 5G positioning information exists within the light-on range according to the user's 5G positioning big data information.

With the development of 5G technology and the popularization of 5G terminal equipment, based on the 5G base station positioning function, the position of each 5G terminal equipment can be accurately located, so that the real-time distribution map of 5G terminal equipment can be obtained, and the real-time distribution map of 5G terminal equipment can be combined Streetlight distribution map, you can know whether there are 5G terminal devices within the range of each street lighting circle and/or lighting circle. Among them, the 5G terminal device may be a 5G mobile phone. According to the positioning of the 5G mobile phone carried by the user, the user's real-time distribution map (5G positioning big data information) can be obtained. Combined with the street light distribution map, it is possible to know whether there are users within the lighting circle of each street light and/or within the light-on range.

According to the 5G terminal equipment such as the 5G mobile phone carried by the user, the user's 5G positioning information can be determined, and the user's real-time distribution map can be determined according to the 5G positioning information. Whether there is 5G positioning information within the range of the lighting circle, that is, whether there is a user within the corresponding lighting circle can be detected.

It takes time to process data based on the background, so after the end of each preset sending interval, a preset information processing time is required, and the 5G positioning big data information of the user at the end of each preset sending interval is compared to detect the light-on range Whether there is the user's 5G positioning information in it. At this detection time point, the user’s 5G positioning information is determined according to the 5G terminal equipment, and whether there is the user’s 5G positioning information within the light-on range is detected, so that there is sufficient time for background data processing after the 5G user information is detected, so that The instruction can be sent on time at the end of the preset information processing time.

Figure 3 is a schematic diagram of the light-off state provided by the embodiment of the present application. Referring to Figure 3, when the background starts to detect at the detection time point, it is detected that there is no 5G in the lighting circle layer, the light-on circle layer 21, and the light-on circle layer 22. Positioning information, that is, there is no user within the scope of the lighting circle layer, the light-on circle layer 21, and the light-on circle layer 22. If the on-off state of the street light is the light-on state, a light-off command is sent to the corresponding street light, indicating Turn off the street lamps to save electricity and improve the energy saving effect of the street lamp control system.

S104. If the user's 5G positioning information exists within the light-on range, and the street light is in the off-light state, send a light-on command to the corresponding street light at the end of the preset information processing time, so that the street light Turn on the light according to the received light-on instruction.

In order to process the data in the background, a preset information processing time is also required. At the time corresponding to the end time point of each preset sending interval, it is possible to detect whether the user’s 5G positioning information exists within the light-on range according to the user’s 5G positioning big data information. If detected If the 5G positioning information of the user exists within the range of the light-on circle, there is a user within the range of the light-on circle, and the on-off state of the street light stored in the background is the off-light state, and the light-on command is sent to the user through the background system. Corresponding street lamps, instruct the street lamps to turn on the lights. At the end of each preset sending interval, users in the light-on circle area are detected, and whether to send the light-on command is determined according to the detection result. When there is a user in the light-on circle layer and the street lights are turned off, it will be sent at the end of the preset information processing time Turn on the light command to control the turning on of street lights to ensure the lighting needs of users when passing through the lighting circle. By adjusting the preset sending interval, the range of the lighting circle can be adjusted, which improves the flexibility of street lamp control, thereby improving the energy saving effect.

Exemplarily, the preset information processing time is the time required for the preset background processing information. Assuming that the preset information processing time is 2 seconds and the preset sending interval is 13 seconds, the corresponding preset sending interval end times are 11:59:58, 12:00:13 and 12:00:28, and the background will At 11:59:58, 12:00:13 and 12:00:28, it is detected whether there is the user's 5G positioning information within the range of turning on the lights. After that, the background starts to process information and generate corresponding instructions (turn on the lights or turn off light), send corresponding instructions to the street light tester at 12:00:00, 12:00:15 and 12:00:30 at the end of the preset information processing time.

Fig. 4 is a schematic diagram of the light-on state provided by the embodiment of the present application. Referring to Fig. 4, when the background starts to detect, it is detected that there is 5G positioning information in the light-on circle layer 21 at this time. When the lights are off, a corresponding turn-on command is sent to street lamp A when the preset information processing time ends. In the street lamp test equipment, the street lamp test has a command receiver, a memory, a street light switch and a controller. The light-on command is received through the command receiver, and the controller controls the street light switch to turn on according to the received light-on command to turn on the street light. user lighting.

In an embodiment, in order to further save electric energy, different brightness levels can be set, and different brightness levels of the street lamps can be controlled according to the distance between the corresponding user 5G positioning information and the street lamps. The mapping relationship between the user's 5G positioning information and the distance and brightness level of street lights is preset. If it is detected that the user's 5G positioning information exists within the range of the light-on circle, the second distance between the 5G positioning information and the geographic location of the corresponding street light is obtained, and according to the mapping relationship between the second distance and the preset distance and brightness level , determine the brightness level corresponding to the second distance, form brightness level information, add the brightness level information to the light-on instruction, send the light-on instruction to the corresponding street lamp, and instruct the street lamp to turn on the brightness to reach the corresponding brightness level. At preset time intervals, the brightness of the street light automatically increases by one level until it reaches the maximum brightness level. The preset time interval is a ratio of the sum of the preset sending interval and the preset information processing time to the brightness level minus one.

It should be noted that, if the brightness level information attached to the light-on command is the maximum brightness level, it is not necessary to adjust the brightness at every preset time interval.

In one embodiment, the mapping relationship between the user's 5G positioning information, the distance of the street lamp, and the brightness level is preset, and different brightness levels correspond to different brightness circle layers. Fig. 5 is a schematic diagram of circles corresponding to the brightness levels provided by the embodiment of the present application. The circle ranges corresponding to different brightness levels are set according to the distance from the street lamp, and 4 are set in the corresponding light-on circle 21 and light-on circle 22. Brightness circle layers corresponding to different levels, wherein brightness level 1 corresponds to brightness circle layer 1, brightness level 2 corresponds to brightness circle layer 2, brightness 3 corresponds to brightness circle layer 3, and brightness level 4 corresponds to brightness circle layer 4. Assuming that there is 5G positioning information of the user within the range of the light-on circle, and according to the distance between the 5G positioning information and the corresponding street lamp A, it is determined that the corresponding 5G positioning information is located in the brightness circle layer 1, and then the corresponding light-on brightness level is determined to be level 1 , then send a light-on command including brightness level information of level 1 to the corresponding street light A, but the street light A is turned on and the brightness is level 1, every preset time interval, the street light brightness will automatically increase by one level, and wait until the user arrives at the lighting In the circle layer, the street lights have been brightened to the maximum brightness level of 4 to improve the user's sense of use and achieve energy-saving effects.

It should be noted that the four levels set in the above embodiment are only for illustration, the number of brightness circles and the number of brightness levels can be set according to the actual situation, divided within the scope of the lighting circle and the lighting circle.

In an embodiment, a mapping relationship between the number of users and the brightness level is preset. If the 5G positioning information of the user is detected within the range of the lighting circle, the number of users within the lighting circle is obtained, and the corresponding brightness level is determined according to the number of users and the preset mapping relationship between the number of users and the brightness level Information, generate a light-on instruction according to the brightness level information, and send the light-on instruction to the corresponding street lamp, instruct the street lamp to turn on the light, and make the light-on brightness reach the corresponding brightness level. At preset time intervals, the brightness of the street light automatically increases by one level until it reaches the maximum brightness level. The preset time interval is a ratio of the sum of the preset sending interval and the preset information processing time to the brightness level minus one.

It should be noted that the brightness adjustment scheme presets that the user should turn on the light within the range of the light-on circle, or it can also be set to turn on the light when the number of users exceeds the threshold, for example, 5 users or more than 10 users The light will be turned on after a while, and the specific number of users to turn on the light can be set according to the actual situation, which is not limited in this embodiment.

It should be noted that the light-on instruction includes streetlight information, and the light-on instruction is sent to the corresponding base station according to the corresponding base station information in the streetlight information, so that the corresponding base station will turn on the light according to the streetlight code (streetlight ID) in the streetlight information. The command is forwarded to the corresponding street light.

The equipment for street lamp testing includes command receiver, memory, street lamp switch, controller, brightness adjuster and timer. The brightness adjustment is completed by the street lamp switch and brightness adjuster on the side of the street lamp. If the light-on instruction received by the instruction receiver on the street lamp side is to turn on the light and the light-on level is not the highest level, the timer and the brightness adjuster will change the brightness level every "(preset sending interval + preset information processing time) /(brightness level - 1)" enhances by 1 level until the brightness of the lighting circle layer is the same as the highest level brightness level.

It should be noted that after reaching the highest brightness level, the brightness level will not be automatically lowered over time, and the lowering or turning off of the light will only be performed when a new command is received.

S105. If there is no 5G positioning information of the user within the light-on range, and the street light is in the on-off state, send a light-off command to the corresponding street light when the preset information processing time ends, so that all The street lamp is controlled to turn off the light according to the light off instruction.

At the beginning of the next round of detection time, detect the 5G positioning information within the corresponding light-on circle range. If it is detected that there is no user’s 5G positioning information within the light-on circle range, and the corresponding street light is on and off. , when the preset information processing time ends, a light-off command is sent to the corresponding street lamp, so that the street lamp controls the light-off according to the light-off command after receiving the light-off command. When it is detected that there is no user's 5G positioning information within the range of the light-on circle, it is proved that there is no user within the range of the light-on circle. When the preset information processing time ends, the light-off command is sent, and the street light side receives the close-off command. , control the street lights to turn off to save electricity and improve the energy-saving effect of street light control.

For the street lamp control method described in step S101-step 105, there may be further different specific implementation methods for different situations. For example, if the brightness adjustment mechanism is not introduced, there are only two options such as switch and the introduction of the brightness adjustment mechanism, the specific control process based on the basic design mode in steps S101-step 105 can be realized through steps S201-S206 and steps S301-S307 respectively .

When the brightness adjustment mechanism is not introduced and there are only options such as switches, the specific process includes: S201. The background system obtains the distribution of 5G users through the 5G positioning function. S202. Compare the distribution of 5G users with the range of the street lighting circle and the circle map, calculate the on/off status of all street lights this time, compare it with the corresponding street lamp status in the previous round, and output the on/off status that needs to be turned on/off Street light command. The circle map is the distribution map of the street lighting circle and the lighting circle. S203. The background system transmits commands to each 5G base station and sends an adjustment command, wherein the adjustment command includes a light-on command or a light-off command. The adjustment instruction includes the code (street lamp ID) corresponding to the street lamp to be adjusted. S204. The street lamp side receives the adjustment instruction sent by the 5G base station, and compares it with the street lamp code in the memory. If there is no street lamp code in the instruction, no adjustment is required, and if there is the street lamp code, turn on/off the lamp. S205. Wait for a time interval, wherein the time interval is a corresponding instruction sending interval. S206. Perform steps S201-S205 again.

When introducing the brightness adjustment mechanism, the specific process includes: S301. The background system obtains the distribution of 5G users. S302. Comparing the distribution of 5G users and the lighting range of street lights with the circle map, calculate the on/off lights and brightness level status of all street lights this time, compare with the corresponding street light status of the previous round, and output the brightness adjustment. Street light command. S303. Communicate the command to each 5G base station, and send the adjustment command. The adjustment command includes a light-on command, a brightness level adjustment command or a light-off command, wherein the light-on command includes corresponding light-on brightness level information. The adjustment instruction includes the code (street lamp ID) corresponding to the street lamp to be adjusted. S304. The street lamp side receives the adjustment instruction sent by the 5G base station, and compares it with the street lamp code in the memory. If there is no street lamp code in the instruction, no adjustment is required. If there is the street lamp code, adjust according to the instruction. If the adjustment command is a light-on command, after the street lamp is turned on to the corresponding brightness level according to the corresponding brightness level, the brightness adjuster will send the signal every "(preset sending interval + preset information processing time)/(brightness level-1) "Enhance one level of brightness until it reaches the brightness corresponding to the highest brightness level. S305. If the instruction is to turn off the lights, turn off the street lights. S306. Wait for a time interval, wherein the time interval is a corresponding instruction sending interval. S307. Perform steps S301-S306 again.

It should be noted that if the street light switch is set so that multiple street lights are arranged in one place, the equipment on the street light side can be placed here, in which the instruction receiver, memory, street light switch and controller can be integrated and set to Cost savings. If the street light switches of each street light are on their own street lights, the street light equipment can be installed on their respective street lights. According to the actual situation of the street lamp installation, the equipment on the street lamp side shall be centralized or separately set.

It should be noted that, in addition to the above-mentioned street lamp control scheme, it can also be combined with the "zebra-style" (one light on and one off) energy-saving regulation and control method. Only when the "zebra style" is implemented, the background system will uniformly turn on the lights (singular or plural) the lighting range of street lamps is doubled, and the street lamps with off lights (singular or plural numbers corresponding to lights on) are set to be silent. The subsequent control process is the same as the above-mentioned street lamp control method, and will not be repeated here.

It should be noted that the lighting scheme can also be adjusted to normal brightness and low brightness scheme, that is, the lighting scheme is changed to normal brightness (corresponding to turning on the light) and low brightness (corresponding to turning off the light), which can avoid the road lights caused by street lights being turned off. It is pitch black, thereby improving the user's lighting experience and improving energy saving effect.

It should be noted that, to monitor the status of street lamps, a status uploading component can be added to the street lamp side.

In one embodiment, a specific embodiment that does not introduce a brightness adjustment mechanism on a certain road is provided.

Table 1 is the corresponding specific data setting, Table 1 is as follows:

Table 1 Condition setting table

According to the setting conditions in Table 1, it can be calculated that the lighting circle of the road is "illumination range+speed limit*sending interval*110%"=20+60*1000/3600*15*110%=295 (meter ). Figure 6 is a schematic diagram of the corresponding street lamp turn-on circle and position in Table 1 provided by the embodiment of the present application. Referring to Figure 6, according to the conditions set in Table 1 and the calculated range of the turn-on circle, it can be obtained as shown in Figure 6 Schematic diagram of the street lights turning on the circle layer and position. There are street lights a, b, c, and d in the figure, and the positions of street lights a, b, c, and d and the lighting circle are shown in Figure 6. When there are users in positions 0 to 12, the states of a, b, c, and d of the street lights are as follows in Table 2:

Table 2 User location and street light status comparison table

According to the above table 2, for example, at 2:00:00 in the evening, there is a 5G user in position 0, and there are no 5G users in positions 1-8 and position 10, then the street lights a/b/c/d at 2:00:00 Both are off; at 2:00:15, when the 5G user arrives at position 3, the background checks and learns that the street lights a/b/c need to be turned on, and then the background sends xx11-108 and xx11-109 to the 5G base station xx11 to turn on the lights and give 5G base station xx12 sends an instruction to xx12-001 to turn on the lights, 5G base station xx11 and 5G base station xx12 send instructions, and street lamp a/b/c receives the instruction to turn on the lights. At 2:00:30, when the user arrives at street light c (position 10), the street light a/b/c/d obtained from the comparison should all be in the on state. Compared with the state of the previous round, it can be seen that the state of street light a/b/c is on The light does not need to be adjusted, and the street light d is in the off state and needs to be adjusted to turn on the light, then the background will give the 5G base station xx12 the command xx12-002 to turn on the light, the 5G base station xx12 sends the command, and the street light d receives the command to turn on the light; 2:00 :45, the user reaches position 7, and it can be seen from the comparison that the street lamp a/b needs to be turned off. According to the above, the street lamp performs the operation of turning off the light. At 2:01:00, the user arrives at location 9, and the street lights c/d turn off.

For example, at 23:00, the situation is as shown in Table 3:

time has the user's location street light a street light b street light c street light d instruction 23:00:00 0,1 open close close close 23:00:15 4 open open open open b/c/d turn on the lights 23:00:30 8 close close close open a/b/c turn off lights 23:00:45 close close close close d turn off the lights 23:01:00 close close close close no instruction 23:01:15 close close close close no command 23:01:30 close close close close no command 23:01:45 close close close close no command 23:02:00 close close close close no instruction 23:02:15 close close close close no command 23:02:30 close close close close no command 23:02:45 2,9 open open close close a/b turn on the light 23:03:00 0,10 open open open open c/d turn on the light 23:03:15 0,6 close open open open a turn off the lights 23:03:30 1,9 open close close close a turn on the light, b/c/d turn off the light 23:03:45 0, 10 open open open open b/c/d turn on the lights 23:04:00 1,7 open close open open b turn off the lights

Table 3 Correspondence table of user position, street lamp state and instruction in a certain period of time In one embodiment, a specific embodiment of introducing a brightness adjustment mechanism on a certain road is provided. Table 4 is the range table of the corresponding brightness circles. According to the division of four brightness circles, the illumination range of each brightness circle is as follows:

Table 4 Brightness circle layer range table

Figure 7 is a schematic diagram of the location of street lamps corresponding to Table 4 provided by the embodiment of the present application. With reference to Figure 7, street lamps are set, which are respectively street lamps a/b/c/d. As shown in Figure 7, it can be known that street lamps a/b/c/ For the position corresponding to d, if there is no user within the range of 0 meters to 650 meters, the street lights a/b/c/d are all turned off. If there is a user within the range of 0 meters to 650 meters, the When the lights are on, the corresponding relationship between the specific user location and the street light status is shown in Table 5 below:

Table 5 Correspondence between user location and street light status

According to Table 5, it can be obtained from 23:00:00 to 23:04:00 in a certain night, the relationship between users and street lights in this road section is as shown in Table 6:

Table 6 Correspondence between user location, street light status and instructions in a certain period of time

Table 7 is the corresponding noun explanation table, and Table 7 is as follows:

In one embodiment, by running 5G positioning technology, the number of 5G mobile phones in the lighting area of each street lamp can be known in real time, so that the switch and brightness strategy of each street lamp can be finely controlled. Compared with the existing street lamp energy-saving scheme, this embodiment The solution provided is more precise in terms of energy saving. While reducing invalid lighting, it can also ensure the coverage of lighting when people and vehicles pass by.

In one embodiment, the 5G user distribution map is compared with the street lamp circle layer to obtain the on/off (brightness) status of the street lamp at a certain moment, which solves the problem of inaccuracy in the current energy-saving scheme of street lamps, and reduces invalid lighting. , which can ensure the lighting when pedestrians/vehicles pass by the street lights.

As mentioned above, by obtaining street light information and road section speed limit information, according to the lighting range in the street light information, road section speed limit information, preset information processing time and preset sending interval, determine the range of turning on the lights, and determine the user's 5G positioning according to the 5G terminal equipment Big data information, and at the end of the preset transmission interval, according to the user's 5G positioning big data information, it is detected whether there is the user's 5G positioning information within the light-on range, if there is the user's 5G positioning information within the light-on range, and the street lights If the light status is turned off, a light-on command is sent to the corresponding street light at the end of the preset information processing time, instructing the street light to turn on the light; If the state of turning on and off the light is the state of turning on the light, then at the end of the preset information processing time, a light-off instruction is sent to the corresponding street lamp, so that the street lamp is controlled to turn off the light according to the light-off instruction. Using the above-mentioned technical means, the light-on range can be determined through the lighting range and speed limit information of the road section, the preset information processing time, and the preset sending time interval, so that when a user is detected in the light-on range in each round, the light-on Instructions to ensure that the street lights are in the normal lighting state when the user reaches the street light lighting range. The adjustment frequency can be adjusted according to the needs, and the minimum can reach a few seconds level. The adjustment is flexible and sensitive, thereby improving the accuracy of street light control and improving the energy saving effect of street light control. In addition, when it is detected that there is no user within the lighting range, an instruction to turn off the lights is sent to turn off the street lights, avoiding the waste of resources caused by no users turning on the lights within the lighting range, thereby improving the energy saving effect of street light control. The cycle of switching on and off lights is the sending time interval, generally 3s to 30s. The cycle is short, and the state of street lights can be adjusted in a short time, which improves the accuracy of the timing of turning on the lights, thereby improving the accuracy of street lights control, and further improving street lights. Controlled energy saving effect.

On the basis of the above embodiments, FIG. 8 is a schematic structural diagram of a street lamp control device based on 5G positioning big data information provided by the embodiment of the present application. Referring to FIG. 8 , the street lamp control device based on 5G positioning big data information provided by this embodiment specifically includes: an information acquisition unit 31 , a lighting range determination unit 32 , a detection unit 33 and an instruction sending unit 34 .

Wherein, the information obtaining unit 31 is used to obtain street lamp information and road section speed limit information, and the street lamp information includes street lamp geographic location, street lamp ID, street lamp on/off status and lighting range;

The light-on range determination unit 32 is used to determine the light-on range according to the lighting range of the street light information, the speed limit information of the road section, the preset information processing time and the preset sending interval;

The detection unit 33 is configured to determine the user's 5G positioning big data information according to the 5G terminal equipment, and at the end of the preset transmission interval, detect whether there is a user's 5G positioning within the light-on range according to the user's 5G positioning big data information information;

The command sending unit 34 is used to send a light-on command to the corresponding street lamp when the preset information processing time ends if there is 5G positioning information of the user in the light-on range, and the street lamp is in the off-light state. so that the street lamp is controlled to turn on the light according to the received light-on instruction;

If there is no 5G positioning information of the user within the light-on range, and the street light is in the on-off state, a light-off command is sent to the corresponding street light at the end of the preset information processing time, so that the street light Turning off the lights is controlled according to the lights off instruction.

Further, the light-on range determination unit 32 is also used to add the preset information processing time to the preset sending interval to obtain the first time;

Obtaining the first distance according to a preset multiple of the product of the speed limit information of the road section and the first time;

The light-on range is obtained according to the superposition of the lighting range and the first distance.

Further, the light-on instruction includes brightness level information;

The instruction sending unit 34 is further configured to obtain a second distance between the 5G positioning information and the geographic location of the street lamp if there is 5G positioning information of the user within the range of turning on the lights;

Determine the brightness level information according to the second distance, if the brightness level information is not the highest level or the street lamp is currently turned on and off, then generate a light-on instruction according to the brightness level information;

Send the light-on command to the corresponding street lamp according to the street lamp ID.

Further, the instruction sending unit 34 is further configured to determine the brightness level corresponding to the second distance according to the second distance and the preset mapping relationship between the distance and the brightness level, and form brightness level information.

Further, the device further includes a light-on unit, the light-on unit is used to control the street lamp to turn on the light according to the received light-on instruction, so that the brightness of the light on reaches the corresponding brightness level;

The brightness of the street lamp is automatically increased by one level at every preset time interval until reaching the maximum brightness level. The preset time interval includes a ratio of the sum of the preset sending interval and the preset information processing time to the brightness level minus one.

Further, the street lamp information also includes base station information, and the light-on instruction includes street lamp information;

The instruction sending unit 34 is further configured to send the light-on instruction to the corresponding base station according to the base station information in the street lamp information, so that the base station forwards the light-on instruction to the corresponding base station according to the street lamp ID in the street lamp information. corresponding street lights.

Further, the light-on instruction includes brightness level information;

The instruction sending unit 34 is further configured to acquire the number of users within the light-on range if there is 5G positioning information of the user within the light-on range;

Determine corresponding brightness level information according to the number of users and a preset mapping relationship between the number of users and the brightness level;

Generate a light-on instruction according to the brightness level information, and send the light-on instruction to a corresponding street lamp.

As mentioned above, by obtaining street light information and road section speed limit information, according to the lighting range in the street light information, road section speed limit information, preset information processing time and preset sending interval, determine the range of turning on the lights, and determine the user's 5G positioning according to the 5G terminal equipment Big data information, and at the end of the preset transmission interval, according to the user's 5G positioning big data information, it is detected whether there is the user's 5G positioning information within the light-on range, if there is the user's 5G positioning information within the light-on range, and the street lights If the light status is turned off, a light-on command is sent to the corresponding street light at the end of the preset information processing time, instructing the street light to turn on the light; If the state of turning on and off the light is the state of turning on the light, then at the end of the preset information processing time, a light-off instruction is sent to the corresponding street lamp, so that the street lamp is controlled to turn off the light according to the light-off instruction. Using the above-mentioned technical means, the light-on range can be determined through the lighting range and speed limit information of the road section, the preset information processing time, and the preset sending time interval, so that when a user is detected in the light-on range in each round, the light-on Instructions to ensure that the street lights are in the normal lighting state when the user reaches the street light lighting range. The adjustment frequency can be adjusted according to the needs, and the minimum can reach a few seconds level. The adjustment is flexible and sensitive, thereby improving the accuracy of street light control and improving the energy saving effect of street light control. In addition, when it is detected that there is no user within the lighting range, an instruction to turn off the lights is sent to turn off the street lights, avoiding the waste of resources caused by no users turning on the lights within the lighting range, thereby improving the energy saving effect of street light control.

The street lamp control device based on 5G positioning big data information provided in the embodiment of the present application can be used to execute the street lamp control method based on 5G positioning big data information provided in the above embodiment, and has corresponding functions and beneficial effects.

The embodiment of the present application provides a street lamp control device based on 5G positioning big data information. Referring to FIG. And output device 45. The number of processors in the street lamp control device based on 5G positioning big data information may be one or more, and the number of memories in the street lamp control device based on 5G positioning big data information may be one or more. The processor, memory, communication module, input device and output device of the street lamp control device based on 5G positioning big data information can be connected through a bus or in other ways.

The memory 42, as a computer-readable storage medium, can be used to store software programs, computer-executable programs and modules, such as program instructions/modules corresponding to the street lamp control method based on 5G positioning big data information described in any embodiment of the present application ( For example, the information acquisition unit, the lighting range determination unit, the detection unit and the instruction sending unit in the street lamp control device based on 5G positioning big data information). The memory may mainly include a program storage area and a data storage area, wherein the program storage area may store an operating system and at least one application required by a function; the data storage area may store data created according to the use of the device, and the like. In addition, the memory may include high-speed random access memory, and may also include non-volatile memory, such as at least one magnetic disk storage device, flash memory device, or other non-volatile solid-state storage devices. In some examples, the memory may further include memory located remotely from the processor, which remote memory may be connected to the device via a network. Examples of the aforementioned networks include, but are not limited to, the Internet, intranets, local area networks, mobile communication networks, and combinations thereof.

The communication module 43 is used for data transmission.

The processor 41 executes various functional applications and data processing of the device by running the software programs, instructions and modules stored in the memory, that is, realizes the above-mentioned street lamp control method based on 5G positioning big data information.

The input device 44 can be used for receiving inputted numerical or character information, and generating key signal input related to user setting and function control of the device. The output device 45 may include a display device such as a display screen.

The street lamp control device based on 5G positioning big data information provided above can be used to execute the street lamp control method based on 5G positioning big data information provided in the above embodiment, and has corresponding functions and beneficial effects.

The embodiment of the present application also provides a storage medium storing computer-executable instructions. When executed by a computer processor, the computer-executable instructions are used to execute a street lamp control method based on 5G positioning big data information. The 5G positioning-based The street lamp control method based on big data information includes: obtaining street lamp information and road section speed limit information, the street lamp information including street lamp geographic location, street lamp ID, street lamp on/off status and lighting range; according to the lighting range of the street lamp information, the The speed limit information of the road section, the preset information processing time and the preset sending interval determine the range of turning on the lights; determine the user's 5G positioning big data information according to the 5G terminal equipment, and when the preset sending interval ends, according to the user's 5G positioning big data information The data information detects whether there is the user's 5G positioning information within the light-on range; if there is the user's 5G positioning information within the light-on range, and the street light is turned on and off, the preset information processing time ends Send a light-on instruction to the corresponding street lamp at any time, so that the street lamp controls the light-on according to the received light-on instruction; if there is no user's 5G positioning information within the light-on range, and the street light on-off state is In the light-on state, when the preset information processing time ends, a light-off instruction is sent to the corresponding street lamp, so that the street lamp is controlled to turn off the light according to the light-off instruction.

storage medium - any of various types of memory devices or storage devices. The term "storage medium" is intended to include: installation media such as CD-ROMs, floppy disks or tape drives; computer system memory or random access memory such as DRAM, DDR RAM, SRAM, EDO RAM, Rambus RAM, etc. ; non-volatile memory, such as flash memory, magnetic media (eg hard disk or optical storage); registers or other similar types of memory elements, etc. The storage medium may also include other types of memory or combinations thereof. Also, the storage medium may be located in a first computer system in which the program is executed, or may be located in a different second computer system connected to the first computer system through a network such as the Internet. The second computer system may provide program instructions to the first computer for execution. The term "storage medium" may include two or more storage media that reside in different locations, for example in different computer systems connected by a network. The storage medium may store program instructions (eg embodied as computer programs) executable by one or more processors.

Of course, the storage medium for storing computer-executable instructions provided by the embodiments of the present application is not limited to the above-mentioned street lamp control method based on 5G positioning big data information, and any embodiment of the present application can also be executed. Relevant operations in the provided street lamp control method based on 5G positioning big data information.

The street lamp control device based on 5G positioning big data information provided in the above embodiments, the storage medium, and the street lamp control device based on 5G positioning big data information can execute the street lamp control method based on 5G positioning big data information provided in any embodiment of the present application. For technical details not exhaustively described in the above embodiments, please refer to the street lamp control method based on 5G positioning big data information provided in any embodiment of the present application.

The above are only preferred embodiments of the present application and the applied technical principles. The present application is not limited to the specific embodiments described here, and various obvious changes, readjustments and substitutions that can be made by those skilled in the art will not depart from the protection scope of the present application. Therefore, although the present application has been described in detail through the above embodiments, the present application is not limited to the above embodiments, and can also include more other equivalent embodiments without departing from the concept of the present application, and the present application The scope is determined by the scope of the claims.

Claims (10)

1. A street lamp control method based on 5G positioning big data information, characterized in that, comprising: Obtain street lamp information and road section speed limit information, the street lamp information includes street lamp geographic location, street lamp ID, street lamp on/off status and lighting range; Determine the lighting range according to the lighting range of the street lamp information, the speed limit information of the road section, the preset information processing time and the preset sending interval; Determine the user's 5G positioning big data information according to the 5G terminal equipment, and at the end of the preset transmission interval, detect whether there is the user's 5G positioning information within the light-on range according to the user's 5G positioning big data information; If there is 5G positioning information of the user in the light-on range, and the street light is in the off-light state, then when the preset information processing time ends, a light-on command is sent to the corresponding street light, so that the street light can receive The received command to turn on the light is controlled to turn on the light; If there is no 5G positioning information of the user within the light-on range, and the street light is in the on-off state, a light-off command is sent to the corresponding street light at the end of the preset information processing time, so that the street light Turning off the lights is controlled according to the lights off instruction. 2. The method according to claim 1, wherein the determination of the lighting range according to the lighting range of the street lamp information, the speed limit information of the road section, the preset information processing time and the preset sending interval includes : The first time is obtained by adding the preset information processing time to the preset sending interval; Obtaining the first distance according to a preset multiple of the product of the speed limit information of the road section and the first time; The light-on range is obtained according to the superposition of the lighting range and the first distance. 3. The method according to claim 1, wherein the light-on instruction includes brightness level information; If the 5G positioning information of the user exists in the light-on range, and the street light is in the off-light state, when the preset information processing time ends, a light-on instruction is sent to the corresponding street light, including: If there is 5G positioning information of the user within the light-on range, then obtain the second distance between the 5G positioning information and the geographic location of the street lamp; Determine the brightness level information according to the second distance, if the brightness level information is not the highest level or the street lamp is currently turned on and off, then generate a light-on instruction according to the brightness level information; Send the light-on command to the corresponding street lamp according to the street lamp ID. 4. The method according to claim 3, wherein the determining brightness level information according to the second distance comprises: According to the second distance and a preset mapping relationship between the distance and the brightness level, determine the brightness level corresponding to the second distance to form brightness level information. 5. The method according to claim 3, characterized in that, after sending the turn-on command to the corresponding street lamp according to the street lamp ID, the method includes: The street lights control the lights according to the received light-on instructions, so that the brightness of the lights reaches the corresponding brightness level; The brightness of the street lamp is automatically increased by one level at every preset time interval until reaching the maximum brightness level. The preset time interval includes a ratio of the sum of the preset sending interval and the preset information processing time to the brightness level minus one. 6. The method according to claim 1, wherein the street lamp information further includes base station information, and the light-on instruction includes street lamp information; The sending the light-on command to the corresponding street lamp includes: According to the base station information in the street lamp information, the light-on instruction is sent to the corresponding base station, so that the base station forwards the light-on instruction to the corresponding street lamp according to the street lamp ID in the street lamp information. 7. The method according to claim 1, wherein the instruction to turn on the light includes brightness level information; If there is 5G positioning information of the user within the range of turning on the light, then sending a light-on instruction to the corresponding street lamp, including: If there is 5G positioning information of the user within the range of turning on the lights, then obtain the number of users within the range of turning on the lights; Determine corresponding brightness level information according to the number of users and a preset mapping relationship between the number of users and the brightness level; Generate a light-on instruction according to the brightness level information, and send the light-on instruction to a corresponding street lamp. 8. A street lamp control device based on 5G positioning big data information, characterized in that it comprises: An information acquisition unit, configured to acquire street lamp information and road section speed limit information, the street lamp information including street lamp geographic location, street lamp ID, street lamp on/off status and lighting range; A light-on range determination unit, configured to determine the light-on range according to the lighting range of the street light information, the speed limit information of the road section, the preset information processing time and the preset sending interval; The detection unit is used to determine the user's 5G positioning big data information according to the 5G terminal equipment, and at the end of the preset sending interval, detect whether the user's 5G positioning information exists within the light-on range according to the user's 5G positioning big data information ; The command sending unit is used to send a light-on command to the corresponding street lamp when the preset information processing time ends if there is 5G positioning information of the user in the light-on range, and the street lamp is in the off-light state, so that making the street lamp turn on according to the received instruction to turn on the light; If there is no 5G positioning information of the user within the light-on range, and the street light is in the on-off state, a light-off command is sent to the corresponding street light at the end of the preset information processing time, so that the street light Turning off the lights is controlled according to the lights off instruction. 9. A street lamp control device based on 5G positioning big data information, characterized in that it comprises: memory and one or more processors; The memory is used to store one or more programs; When the one or more programs are executed by the one or more processors, the one or more processors are made to implement the method according to any one of claims 1-7. 10. A storage medium storing computer-executable instructions, wherein the computer-executable instructions are used to execute the method according to any one of claims 1-7 when executed by a processor.

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