Energy-saving street lamp control system and method thereof

Abstract

The invention discloses an energy-saving street lamp control system and a method thereof, belonging to the technical field of street lamp control systems, comprising a street lamp management system, a street lamp communication control detection component, a wireless speed measurement camera, a database, a maintenance center and a rescue center; the street lamp communication control detection component is provided with a plurality of groups and is evenly spaced along a road, and a wireless speed measurement camera is installed along the road after each certain number of street lamp communication control detection components; the street lamp communication control detection component comprises a street lamp body and a communication control detection component; each group of communication control detection components and each wireless speed measurement camera has a unique identification code, and the values ​​of the unique identification codes of adjacent communication control detection components are continuous; through the above manner, the invention realizes energy-saving control of street lamps, and at the same time realizes the judgment and processing of abnormal causes of street lamps.

Description

Technical Field

[0001] The present invention relates to the technical field of street lamp control systems, and in particular to an energy-saving street lamp control system and a method thereof. Background Art

[0002] The street light control system is a technical system that manages and controls the street lighting in cities or towns. Currently, it is often difficult to detect and maintain street light damage in a timely manner;

[0003] Among many existing technologies, this patent application CN104202881B discloses a street lamp control system, including a server, a base station controller, a terminal controller and a street lamp; the server is wirelessly connected to multiple base station controllers; each base station controller is wirelessly connected to multiple terminal controllers; each street lamp is connected to a terminal controller; the terminal controller includes a detection module for detecting the ambient light intensity, collecting road surface video data when the light intensity is lower than a preset light intensity value, and if it is determined that a preset target image appears in the road surface video data, the brightness of the street lamp is adjusted according to the current brightness of the street lamp and the preset threshold, and a brightness adjustment instruction is sent to the base station controller;

[0004] However, this patent application is unable to determine and handle the cause of the tilt failure of the street lamp.

[0005] Based on this, the present invention designs an energy-saving street lamp control system and method thereof to solve the above problems. Summary of the invention

[0006] In view of the above-mentioned shortcomings of the prior art, the present invention provides an energy-saving street lamp control system and method thereof.

[0007] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0008] An energy-saving street light control system, including a street light management system, a street light communication control detection component, a wireless speed measurement camera, a database, a maintenance center and a rescue center;

[0009] The street lamp communication control detection components are provided in multiple groups and are evenly spaced along the road, and a wireless speed measurement camera is installed along the road after each certain number of street lamp communication control detection components;

[0010] The street lamp communication control detection component comprises a street lamp body and a communication control detection component;

[0011] Each group of communication control detection components and each wireless speed measurement camera has a unique identification code, and the values ​​of the unique identification codes of adjacent communication control detection components are continuous;

[0012] The unique identification codes of two adjacent wireless speed cameras are bound to the unique identification codes of multiple communication control detection components located between the two wireless speed cameras;

[0013] The wireless speed measurement camera is used to collect speed data and image data of the vehicle, and send the detection data to the street light management system;

[0014] The communication control detection component is connected to the street lamp body, the communication control detection component is connected to the street lamp management system, and the street lamp management system is connected to the wireless speed measurement camera, the database, the maintenance center and the rescue center;

[0015] The communication control detection component is used to control the operation of the street lamp body, and is also used to collect and identify whether the light module state of the street lamp body and the tilt state of the street lamp body are abnormal. When it is identified as abnormal, the communication control detection component generates an abnormal signal recording the abnormal state data of the street lamp body, and sends the abnormal signal to the street lamp management system. At the same time, the communication control detection component controls the street lamp body to be powered off;

[0016] The abnormal state data includes abnormal lighting and abnormal tilt;

[0017] The database stores an identification table of the database recording the unique identification code of each group of communication control detection components, and the identification table of the database is provided with a status filling area and position information of the street lamp body corresponding to the unique identification code of the communication control detection component for filling in abnormal status data;

[0018] The database also stores detection data of the wireless speed measurement camera, and the detection data of the wireless speed measurement camera is queried by inputting a unique identification code of the communication control detection component bound thereto;

[0019] The database is also used to eliminate abnormal status data in the corresponding status filling area when the street lamp body returns to normal;

[0020] The street lamp management system is used to analyze the abnormal state data of the street lamp body recorded by sending abnormal signals:

[0021] When the abnormal state data is abnormal lighting, the street light management system accesses the database, searches the identification table of the database for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the abnormal lighting in the corresponding state filling area;

[0022] When the abnormal state data is tilt abnormality, the street lamp management system accesses the database, searches the identification table of the database for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the tilt abnormality in the corresponding abnormal state data filling area;

[0023] When the abnormal state data is tilt abnormality and light abnormality, the street lamp management system accesses the database, searches the identification table of the database for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the tilt abnormality and light abnormality in the corresponding abnormal state data filling area;

[0024] The street light management system simultaneously generates maintenance instructions that record location information and abnormal status data, and sends the maintenance instructions to the maintenance center;

[0025] When a tilt anomaly appears in the abnormal state data, the street light management system accesses the database and queries the unique identification code of the communication control detection component that sends the abnormal signal, and retrieves the detection data of two adjacent wireless speed cameras bound to the unique identification code. The street light management system collects and analyzes the incident detection data of the two wireless speed cameras in the time period before and after the abnormal signal sending time point;

[0026] The street lamp management system determines whether the cause of the tilt of the street lamp body is a traffic accident or a non-traffic accident based on the incident detection data;

[0027] When the street lamp management system determines that the tilt of the street lamp body is caused by a traffic accident, it generates a rescue instruction that records the position information of the street lamp body with abnormal tilt, and sends the rescue instruction to the rescue center;

[0028] The street light management system is also used to determine whether the communication control detection component executes the energy-saving instruction;

[0029] When the street lamp management system determines that the communication control detection component executes the energy-saving instruction, the street lamp management system sends the energy-saving instruction to the communication control detection component, and the communication control detection component controls the operation of the street lamp body according to the energy-saving instruction;

[0030] The maintenance center is used for, when receiving a maintenance instruction, maintenance personnel to perform maintenance according to the location information and abnormal status data in the maintenance instruction;

[0031] The rescue center is used to notify rescue personnel to carry out rescue when the street lamp management system determines that the cause of the tilt is a traffic accident.

[0032] Furthermore, there are two types of energy-saving instructions, namely energy-saving instruction 1 and energy-saving instruction 2;

[0033] Energy-saving instruction 1 is a square wave control signal which starts at a high level for 30 minutes and then switches to a low level with a cycle of 60 minutes;

[0034] Energy-saving instruction 2 is a square wave control signal which starts at a low level for 30 minutes, then switches to a high level and has a cycle of 60 minutes.

[0035] Furthermore, the communication control detection component includes a central processing unit, a wireless communication module, a lighting intelligent controller, a light sensor, a tilt sensor and a power module;

[0036] The central processor is electrically connected to the wireless communication module, the lighting intelligent controller, the light sensor, the inclination sensor and the power module, the power module is electrically connected to the lighting intelligent controller, the lighting intelligent controller is electrically connected to the street lamp body, and the inclination sensor is fixedly installed on the upper end of the street lamp body;

[0037] The light sensor is used to detect natural light intensity data and send the light intensity data to the central processing unit;

[0038] The tilt sensor is used to detect the tilt data of the street lamp body and send the tilt data to the central processor;

[0039] The power module is used to supply power to the central processing unit and the lighting intelligent controller;

[0040] The wireless communication module is used for wireless communication between the central processor and the street light management system. The wireless communication module receives the energy-saving instruction sent by the street light management system and sends the energy-saving instruction to the central processor, which sends it to the lighting intelligent controller;

[0041] The central processing unit is used to control the operation of the lighting intelligent controller, using the following steps:

[0042] Step A1, the light sensor detects the light intensity data of natural light and sends it to the central processor;

[0043] Step A2, the central processing unit determines whether the light intensity data is less than or equal to 30lx;

[0044] If not, proceed to step A5;

[0045] If yes, proceed to step A3;

[0046] Step A3: whether the central processing unit receives an energy-saving instruction;

[0047] If yes, go to step A4;

[0048] If not, go to step A6;

[0049] Step A4, the central processor sends an energy-saving instruction to the lighting intelligent controller, and the lighting intelligent controller controls the lighting module of the street lamp body to execute the energy-saving instruction, and returns to step A1;

[0050] Step A5, the central processor sends a shutdown command to the lighting intelligent controller, and the lighting intelligent controller controls the lighting module of the street lamp body to shut down, and returns to step A1;

[0051] Step A6, the central processor sends a start instruction to the lighting intelligent controller, and the lighting intelligent controller controls the lighting module of the street lamp body to turn on, and returns to step A1;

[0052] The central processing unit is also used to determine whether the tilt data is greater than 10 degrees;

[0053] If the tilt data is greater than 10 degrees, the central processor generates an abnormal signal recording the tilt abnormality, which is sent to the wireless communication module, which is sent to the street light management system, and the central processor sends a power-off command to the power module;

[0054] The lighting intelligent controller is used to control the operation of the street lamp body according to energy-saving instructions, opening instructions and closing instructions;

[0055] The lighting intelligent controller is used to detect whether the lighting module of the street lamp body is in normal state. When the lighting intelligent controller detects that the street lamp body is abnormal, the lighting intelligent controller sends a lighting abnormality instruction to the central processor. After receiving the lighting abnormality instruction, the central processor generates an abnormality signal recording the lighting abnormality, and sends the abnormality signal to the wireless communication module, which sends it to the street lamp management system. At the same time, the central processor sends a power-off instruction to the power module.

[0056] The power supply module is used to supply power to the central processing unit and the lighting intelligent controller. After receiving the power-off instruction, the power supply module stops supplying power to the lighting intelligent controller.

[0057] Furthermore, each of the wireless communication modules has a unique identification code, and the values ​​of the unique identification codes of adjacent wireless communication modules are continuous, and the unique identification codes of two adjacent wireless speed cameras are bound to the unique identification codes of the four wireless communication modules located between the two wireless speed cameras;

[0058] The database stores an identification table of the database recording each group of unique identification codes of the wireless communication modules, and the identification table of the database is provided with a status filling area and position information of the street lamp body corresponding to the unique identification code of the wireless communication module for filling in abnormal status data;

[0059] The database also stores detection data of the wireless speed measurement camera, and the detection data of the wireless speed measurement camera is queried by inputting a unique identification code of the wireless communication module bound thereto.

[0060] Furthermore, the street light management system includes a base station, a street light management platform, an abnormality determination system and an energy-saving control system, the base station is wirelessly connected to the wireless communication module, the base station is wirelessly connected to the street light management platform, the street light management platform is wirelessly connected to the abnormality determination system, the energy-saving control system, the database, the maintenance center and the rescue center, and the wireless speed measurement camera is wirelessly connected to the base station;

[0061] The base station is used for data transmission between the street light management platform and the wireless communication module. The wireless communication module sends an abnormal signal to the base station, the base station sends it to the street light management platform, the street light management platform sends the abnormal signal to the abnormality determination system, the wireless speed camera sends the detection data to the base station, and then the base station sends it to the street light management platform, and the street light management platform sends the detection data to the database;

[0062] The abnormality determination system is used to analyze the abnormal state data of the street lamp body recorded by the abnormal signal, and adopts the following steps:

[0063] Step B1, whether the abnormality determination system receives an abnormality signal;

[0064] Step B2, if not, the abnormality determination system does not operate and returns to step B1;

[0065] Step B3: If yes, the abnormality determination system identifies the abnormal signal and the abnormal state data recorded therein;

[0066] Step B4, when the abnormal state data of the abnormal signal received by the abnormality determination system is abnormal lighting, step B5 is executed;

[0067] Step B5, the abnormality determination system accesses the database through the street light management platform, searches the database for the unique identification code of the wireless communication module that sends the abnormal signal in the identification table, writes the light abnormality in the corresponding status filling area, and generates a maintenance instruction recording the location information of the wireless communication module and the light abnormality, and sends the maintenance instruction to the maintenance center;

[0068] Step B, when the abnormal state data of the abnormal signal received by the abnormality determination system is tilt abnormality, step B7 is executed;

[0069] Step B7, the abnormality determination system accesses the database through the street lamp management platform, and queries the unique identification code of the wireless communication module that sends the abnormal signal and writes the tilt abnormality in the corresponding abnormal state data filling area, and generates a maintenance instruction recording the position information of the wireless communication module and the tilt abnormality, and sends the maintenance instruction to the maintenance center, and queries the detection data of two adjacent wireless speed measurement cameras bound to the unique identification code of the wireless communication module that sends the abnormal signal, and collects and analyzes the incident detection data of the two wireless speed measurement cameras within one minute before and after the abnormal signal sending time point to determine whether the cause of the tilt of the street lamp body is a traffic accident or a non-traffic accident;

[0070] Step B8, when the abnormality determination system determines that the cause of the tilt of the street lamp body is a traffic accident, the abnormality determination system generates a rescue instruction that records the position information of the street lamp body with abnormal tilt, and sends the rescue instruction to the street lamp management platform, which sends it to the rescue center;

[0071] The abnormality determination system determines whether the cause of the tilt of the lamp body in step B7 is a traffic accident or a non-traffic accident:

[0072] Step C1, the abnormality determination system identifies whether the two sets of incident detection data detect a vehicle; if not, execute step C4; if yes, execute step C2;

[0073] Step C2, identifying whether the same vehicle is detected in both sets of vehicle detection data; if not, executing step C5;

[0074] If yes, execute step C3;

[0075] Step C3, comparing whether the speed difference of the same vehicle in the two sets of vehicle detection data exceeds 20 km / h; if not, executing step C4;

[0076] If yes, execute step C5;

[0077] Step C4, determining that the cause of the tilt of the street lamp body is not a traffic accident;

[0078] Step C5, determining that the cause of the tilt of the street lamp body is a traffic accident;

[0079] The energy-saving control system is used to control whether the street lamp body corresponding to the wireless communication module executes the energy-saving instruction, and adopts the following steps:

[0080] Step D1, the energy-saving control system obtains the current time;

[0081] Step D2, determining whether the current time is within the set energy-saving time period;

[0082] If not, the energy-saving instruction is not executed and the process returns to step D1;

[0083] If yes, proceed to step D3;

[0084] Step D3, the energy-saving control system accesses the database and queries whether the status filling area corresponding to the unique identification code of each wireless communication module in the identification table of the database is written with abnormal status data;

[0085] If yes, the wireless communication module does not execute the energy-saving instruction and returns to step D1;

[0086] If not, proceed to step D4;

[0087] Step D4, determining whether abnormal status data is written in the status filling area corresponding to the unique identification code of the wireless communication module adjacent to the wireless communication module;

[0088] If yes, the energy-saving instruction is not executed and the process returns to step D1;

[0089] If not, proceed to step D5;

[0090] Step D5, the energy-saving control system detects whether the last digit of the unique identification code of the wireless communication module is an odd number or an even number;

[0091] If it is an even number, the energy-saving control system sends energy-saving instruction 2 to the wireless communication module;

[0092] If it is an odd number, the energy-saving control system sends an energy-saving instruction 1 to the wireless communication module;

[0093] Step D6, the energy-saving control system sends an energy-saving instruction to the street light management platform, the street light management platform sends the energy-saving instruction to the base station, the base station sends it to the wireless communication module, the wireless communication module sends it to the central processing unit, the central processing unit sends it to the lighting intelligent controller, and the lighting intelligent controller controls the operation of the street light body according to the energy-saving instruction.

[0094] Furthermore, the unique identification code is an IP address;

[0095] The IP address adopts IPV4 code or IPV6 code.

[0096] In order to better achieve the purpose of the present invention, the present invention also provides a control method for an energy-saving street lamp control system, comprising the following steps:

[0097] The lighting components control steps of the street lamp body:

[0098] Step A1, the light sensor detects the light intensity data of natural light and sends it to the central processor;

[0099] Step A2, the central processing unit determines whether the light intensity data is less than or equal to 30lx;

[0100] If not, proceed to step A5;

[0101] If yes, proceed to step A3;

[0102] Step A3: whether the central processing unit receives an energy-saving instruction;

[0103] If yes, go to step A4;

[0104] If not, go to step A6;

[0105] Step A4, the central processor sends an energy-saving instruction to the lighting intelligent controller, and the lighting intelligent controller controls the lighting module of the street lamp body to execute the energy-saving instruction, and returns to step A1;

[0106] Step A5, the central processor sends a shutdown command to the lighting intelligent controller, and the lighting intelligent controller controls the lighting module of the street lamp body to shut down, and returns to step A1;

[0107] Step A6, the central processing unit sends an on instruction to the lighting intelligent controller, and the lighting intelligent controller controls the lighting module of the street lamp body to turn on, and returns to step A1.

[0108] Operation steps of the abnormality determination system:

[0109] Step B1, whether the abnormality determination system receives an abnormality signal;

[0110] Step B2, if not, the abnormality determination system does not operate and returns to step B1;

[0111] Step B3: If yes, the abnormality determination system identifies the abnormal signal and the abnormal state data recorded therein;

[0112] Step B4, when the abnormal state data of the abnormal signal received by the abnormality determination system is abnormal lighting, execute step B5;

[0113] Step B5, the abnormality determination system accesses the database through the street light management platform, searches the database for the unique identification code of the wireless communication module that sends the abnormal signal in the identification table, writes the light abnormality in the corresponding status filling area, and generates a maintenance instruction recording the location information of the wireless communication module and the light abnormality, and sends the maintenance instruction to the maintenance center;

[0114] Step B6, when the abnormal state data of the abnormal signal received by the abnormality determination system is tilt abnormality, execute step B7;

[0115] Step B7, the abnormality determination system accesses the identification table of the database through the street lamp management platform, queries the unique identification code of the wireless communication module that sends the abnormal signal, and writes the tilt abnormality in the corresponding abnormal state data filling area, and generates a maintenance instruction recording the position information of the wireless communication module and the tilt abnormality, and sends the maintenance instruction to the maintenance center, and queries the detection data of two adjacent wireless speed measurement cameras bound to the unique identification code of the wireless communication module that sends the abnormal signal, and collects and analyzes the incident detection data of the two wireless speed measurement cameras within one minute before and after the abnormal signal sending time point to determine whether the cause of the tilt of the street lamp body is a traffic accident or a non-traffic accident;

[0116] Step B8, when the abnormality determination system determines that the cause of the tilt of the street lamp body is a traffic accident, the abnormality determination system generates a rescue instruction that records the position information of the street lamp body with abnormal tilt, and sends the rescue instruction to the street lamp management platform, which sends it to the rescue center.

[0117] The abnormality determination system determines in step B that the cause of the tilt of the street lamp body is a traffic accident or a non-traffic accident:

[0118] Step C1, the abnormality determination system identifies whether the two sets of incident detection data detect a vehicle; if not, execute step C4; if yes, execute step C2;

[0119] Step C2, identifying whether the same vehicle is detected in both sets of vehicle detection data; if not, executing step C5;

[0120] If yes, execute step C3;

[0121] Step C3, comparing whether the speed difference of the same vehicle in the two sets of vehicle detection data exceeds 20 km / h; if not, executing step C4;

[0122] If yes, execute step C5;

[0123] Step C4, determining that the cause of the tilt of the street lamp body is not a traffic accident;

[0124] Step C5, determining that the cause of the tilt of the street lamp body is a traffic accident.

[0125] The operation steps of energy-saving control system:

[0126] Step D1, the energy-saving control system obtains the current time;

[0127] Step D2, determining whether the current time is within the set energy-saving time period;

[0128] If not, the energy-saving instruction is not executed and the process returns to step D1;

[0129] If yes, proceed to step D3;

[0130] Step D3, the energy-saving control system accesses the database and queries whether the status filling area corresponding to the unique identification code of each wireless communication module in the identification table of the database is written with abnormal status data;

[0131] If yes, the wireless communication module does not execute the energy-saving instruction and returns to step D1;

[0132] If not, proceed to step D4;

[0133] Step D4, determining whether abnormal status data is written in the status filling area corresponding to the unique identification code of the wireless communication module adjacent to the wireless communication module;

[0134] If yes, the energy-saving instruction is not executed and the process returns to step D1;

[0135] If not, proceed to step D5;

[0136] Step D5, the energy-saving control system detects whether the last digit of the unique identification code of the wireless communication module is an odd number or an even number;

[0137] If it is an even number, the energy-saving control system sends energy-saving instruction 2 to the wireless communication module;

[0138] If it is an odd number, the energy-saving control system sends an energy-saving instruction 1 to the wireless communication module;

[0139] Step D6, the energy-saving control system sends an energy-saving instruction to the street light management platform, the street light management platform sends the energy-saving instruction to the base station, the base station sends it to the wireless communication module, the wireless communication module sends it to the central processing unit, the central processing unit sends it to the lighting intelligent controller, and the lighting intelligent controller controls the operation of the street light body according to the energy-saving instruction.

[0140] The present invention has the following technical effects:

[0141] When the present invention is used, the abnormality of the street lamp body is detected through the communication control detection component, and the abnormality is judged through the street lamp management system. It solves the problem that when the lighting module of the street lamp body is abnormal and the tilt is abnormal, the position of the street lamp body is timely located and reported for maintenance. At the same time, it is judged whether the abnormal tilt is caused by a traffic accident or a non-traffic accident, so that when the abnormal tilt of the street lamp body is caused by a traffic accident, the accident location is timely located and the rescue center is notified to implement rescue.

[0142] The street lamp management system also determines whether the street lamp itself is abnormal and controls the corresponding communication control detection component to execute energy-saving instructions, thereby avoiding the impact of energy saving on the lighting of the road section where the street lamp body is abnormal. BRIEF DESCRIPTION OF THE DRAWINGS

[0143] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the prior art descriptions. Obviously, the drawings described below are only some embodiments of the present invention, and for ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0144] Figure 1 A block diagram of an energy-saving street lamp control system of the present invention;

[0145] Figure 2 It is a layout diagram of the street lamp body, wireless speed measurement camera and wireless communication module of the present invention;

[0146] Figure 3 is a schematic diagram of energy-saving instruction 1 of the present invention;

[0147] Figure 4 It is a schematic diagram of the energy-saving instruction 2 of the present invention;

[0148] Figure 5 The process of the control method of an energy-saving street lamp control system of the present invention is as follows: Figure 1 ;

[0149] Figure 6 The process of the control method of an energy-saving street lamp control system of the present invention is as follows: Figure 2 ;

[0150] Figure 7 The process of the control method of an energy-saving street lamp control system of the present invention is as follows: Figure 3 .

[0151] The numbers in the figure represent: 1. Central processing unit 2. Wireless communication module 3. Intelligent lighting controller 4. Street lamp body 5. Light sensor 6. Tilt sensor 7. Power module 8. Wireless speed camera 9. Base station 10. Street lamp management platform 11. Abnormal judgment system 12. Energy-saving control system 13. Database 14. Maintenance center 15. Rescue center. DETAILED DESCRIPTION

[0152] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0153] The present invention will be further described below in conjunction with the embodiments. Example

[0154] Please refer to the instruction manual Figure 1-Figure 7 , an energy-saving street light control system, including a street light management system, a street light communication control detection component, a wireless speed camera 8, a database 13, a maintenance center 14 and a rescue center 15;

[0155] The street lamp communication control detection components are provided in multiple groups and are evenly spaced along the road, and a wireless speed measurement camera 8 is installed along the road after each certain number of street lamp communication control detection components;

[0156] The street lamp communication control detection component comprises a street lamp body 4 and a communication control detection component;

[0157] Each group of communication control detection components and each wireless speed measurement camera 8 has a unique identification code, and the values ​​of the unique identification codes of adjacent communication control detection components are continuous;

[0158] The unique identification codes of two adjacent wireless speed cameras 8 are bound to the unique identification codes of multiple communication control detection components located between the two wireless speed cameras 8;

[0159] The wireless speed measurement camera 8 is used to collect the speed data and image data of the vehicle, and send the detection data to the street light management system;

[0160] The communication control detection component is connected to the street lamp body 4, the communication control detection component is connected to the street lamp management system, and the street lamp management system is connected to the wireless speed measurement camera 8, the database 13, the maintenance center 14 and the rescue center 15;

[0161] The communication control detection component is used to control the operation of the street lamp body 4. It is also used to collect and identify whether the light module state of the street lamp body 4 and the tilt state of the street lamp body 4 are abnormal. When it is identified as abnormal, the communication control detection component generates an abnormal signal recording the abnormal state data of the street lamp body 4, and sends the abnormal signal to the street lamp management system. At the same time, the communication control detection component controls the street lamp body 4 to cut off the power;

[0162] Abnormal status data includes abnormal lighting and abnormal tilt;

[0163] The database 13 stores an identification table of the database 13 recording the unique identification code of each group of communication control detection components, and the identification table of the database 13 is provided with a status filling area and position information of the street lamp body 4 for filling in abnormal status data corresponding to the unique identification code of the communication control detection component;

[0164] The database 13 also stores the detection data of the wireless speed measurement camera 8, and the detection data of the wireless speed measurement camera 8 is queried by inputting the unique identification code of the communication control detection component bound thereto;

[0165] The database 13 is also used to eliminate the abnormal state data in the corresponding state filling area when the street lamp body 4 returns to normal;

[0166] The street lamp management system is used to analyze the abnormal state data of the street lamp body 4 recorded by sending abnormal signals:

[0167] When the abnormal state data is abnormal lighting, the street lamp management system accesses the database 13, searches the identification table of the database 13 for the unique identification code of the communication control detection component that sends the abnormal signal, and writes abnormal lighting in the corresponding state filling area;

[0168] When the abnormal state data is tilt abnormality, the street lamp management system accesses the database 13, searches the identification table of the database 13 for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the tilt abnormality in the corresponding abnormal state data filling area;

[0169] When the abnormal state data is tilt abnormality and light abnormality, the street lamp management system accesses the database 13, searches the identification table of the database 13 for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the tilt abnormality and light abnormality in the corresponding abnormal state data filling area;

[0170] The street lamp management system simultaneously generates a maintenance instruction recording the location information and abnormal status data, and sends the maintenance instruction to the maintenance center 14;

[0171] When a tilt abnormality appears in the abnormal state data, the street light management system accesses the database 13 and queries the unique identification code of the communication control detection component that sends the abnormal signal, and retrieves the detection data of two adjacent wireless speed measurement cameras 8 bound to the unique identification code. The street light management system collects and analyzes the incident detection data of the two wireless speed measurement cameras 8 in the time period before and after the abnormal signal sending time point;

[0172] The street lamp management system determines whether the cause of the tilt of the street lamp body 4 is a traffic accident or a non-traffic accident based on the incident detection data;

[0173] When the street lamp management system determines that the tilt of the street lamp body 4 is caused by a traffic accident, it generates a rescue instruction that records the position information of the abnormally tilted street lamp body 4, and sends the rescue instruction to the rescue center 15;

[0174] The street light management system is also used to determine whether the communication control detection component executes the energy-saving instruction;

[0175] When the street lamp management system determines that the communication control detection component executes the energy-saving instruction, the street lamp management system sends the energy-saving instruction to the communication control detection component, and the communication control detection component controls the operation of the street lamp body 4 according to the energy-saving instruction;

[0176] The maintenance center 14 is used for, when receiving a maintenance instruction, maintenance personnel to perform maintenance according to the location information and abnormal status data in the maintenance instruction;

[0177] The rescue center 15 is used to notify rescue personnel to carry out rescue when the street lamp management system determines that the cause of the tilt is a traffic accident.

[0178] When the present invention is used, the abnormality of the street lamp body 4 is detected through the communication control detection component, and the abnormality is judged through the street lamp management system. It solves the problem that when the lighting module of the street lamp body 4 is abnormal and the tilt is abnormal, the position of the street lamp body 4 is timely located and reported for maintenance. At the same time, it is judged whether the abnormal tilt is caused by a traffic accident or a non-traffic accident, so that when the abnormal tilt of the street lamp body 4 is caused by a traffic accident, the accident location is timely located and the rescue center 15 is notified to implement rescue.

[0179] The street lamp management system also controls the corresponding communication control detection component to execute the energy-saving instruction by judging whether the street lamp body 4 is abnormal, thereby avoiding the lighting of the road section where the street lamp body 4 is abnormal being affected by energy saving.

[0180] The numerical value of the unique identification code is represented continuously: each identification code is unique and increases by 1 continuously, for example, the following four consecutive unique identification codes: 0001, 0002, 0003, 0004. Example

[0181] like Figure 1-Figure 7 As shown, as a preferred embodiment of the present invention, there are two types of energy-saving instructions, namely energy-saving instruction 1 and energy-saving instruction 2;

[0182] Energy-saving instruction 1 is a square wave control signal which starts at a high level for 30 minutes and then switches to a low level with a cycle of 60 minutes;

[0183] Energy-saving instruction 2 is a square wave control signal which starts at a low level for 30 minutes, then switches to a high level and has a cycle of 60 minutes.

[0184] When the present invention is used, the high level of the square wave control signal corresponds to the lighting of the light module of the street lamp body 4, and the low level corresponds to the extinguishing of the light module of the street lamp body 4.

[0185] The communication control and detection component includes a central processor 1, a wireless communication module 2, a lighting intelligent controller 3, a light sensor 5, a tilt sensor 6 and a power module 7;

[0186] The central processor 1 is electrically connected to the wireless communication module 2, the lighting intelligent controller 3, the light sensor 5, the inclination sensor 6 and the power module 7. The power module 7 is electrically connected to the lighting intelligent controller 3. The lighting intelligent controller 3 is electrically connected to the street lamp body 4. The inclination sensor 6 is fixedly installed on the upper end of the street lamp body 4.

[0187] The light sensor 5 is used to detect natural light intensity data and send the light intensity data to the central processor 1;

[0188] The tilt sensor 6 is used to detect the tilt data of the street lamp body 4 and send the tilt data to the central processor 1;

[0189] The power module 7 is used to supply power to the central processor 1 and the lighting intelligent controller 3;

[0190] The wireless communication module 2 is used for wireless communication between the central processor 1 and the street light management system. The wireless communication module 2 receives the energy-saving instruction sent by the street light management system and sends the energy-saving instruction to the central processor 1, and the central processor 1 sends it to the lighting intelligent controller 3;

[0191] The central processor 1 is used to control the operation of the lighting intelligent controller 3, using the following steps:

[0192] Step A1, the light sensor 5 detects the light intensity data of natural light and sends it to the central processor 1;

[0193] Step A2, the CPU 1 determines whether the light intensity data is less than or equal to 30 lx;

[0194] If not, proceed to step A5;

[0195] If yes, proceed to step A3;

[0196] Step A3: whether the central processor 1 receives an energy-saving instruction;

[0197] If yes, go to step A4;

[0198] If not, go to step A6;

[0199] Step A4, the central processor 1 sends an energy-saving instruction to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the lighting module of the street lamp body 4 to execute the energy-saving instruction, and returns to step A1;

[0200] Step A5, the central processor 1 sends a shutdown instruction to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the lighting module of the street lamp body 4 to shut down, and returns to step A1;

[0201] Step A6, the central processor 1 sends a start instruction to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the lighting module of the street lamp body 4 to turn on, and returns to step A1;

[0202] The central processor 1 is also used to determine whether the tilt data is greater than 10 degrees;

[0203] If the tilt data is greater than 10 degrees, the CPU 1 generates an abnormal signal recording the abnormal tilt, and sends the abnormal signal to the wireless communication module 2, which sends it to the street light management system. At the same time, the CPU 1 sends a power-off command to the power module 7;

[0204] The lighting intelligent controller 3 is used to control the operation of the street lamp body 4 according to energy-saving instructions, opening instructions and closing instructions;

[0205] The lighting intelligent controller 3 is used to detect whether the lighting module state of the street lamp body 4 is normal. When the lighting intelligent controller 3 detects that the street lamp body 4 is abnormal, the lighting intelligent controller 3 sends a lighting abnormality instruction to the central processor 1. After receiving the lighting abnormality instruction, the central processor 1 generates an abnormality signal recording the lighting abnormality, and sends the abnormality signal to the wireless communication module 2. The wireless communication module 2 sends it to the street lamp management system. At the same time, the central processor 1 sends a power-off instruction to the power supply module 7.

[0206] The power module 7 is used to supply power to the central processing unit 1 and the lighting intelligent controller 3. After receiving the power-off instruction, the power module 7 stops supplying power to the lighting intelligent controller 3.

[0207] Each wireless communication module 2 has a unique identification code, and the values ​​of the unique identification codes of adjacent wireless communication modules 2 are continuous, and the unique identification codes of two adjacent wireless speed measurement cameras 8 are bound to the unique identification codes of multiple wireless communication modules 2 located between the two wireless speed measurement cameras 8;

[0208] Each wireless communication module 2 has a unique identification code, and the values ​​of the unique identification codes of adjacent wireless communication modules 2 are continuous, and the unique identification codes of two adjacent wireless speed measurement cameras 8 are bound to the unique identification codes of the four wireless communication modules 2 located between the two wireless speed measurement cameras 8;

[0209] The database 13 stores an identification table of the database 13 recording the unique identification code of each group of wireless communication modules 2, and the identification table of the database 13 is provided with a status filling area and position information of the street lamp body 4 for filling in abnormal status data corresponding to the unique identification code of the wireless communication module 2;

[0210] The database 13 also stores the detection data of the wireless speed measurement camera 8 , and the detection data of the wireless speed measurement camera 8 can be queried by inputting the unique identification code of the wireless communication module 2 bound thereto.

[0211] When the present invention is used, since abnormal tilt of the street lamp or abnormal lighting may cause leakage risk, the central processor 1 generates an abnormal signal at the same time, and the central processor 1 sends a power-off signal to the lighting intelligent controller 3, thereby cutting off the power supply to the street lamp body 4 to avoid leakage;

[0212] When the present invention is used, since an abnormal street lamp will be powered off, the lamp that is powered off will affect the lighting when the energy-saving instruction is executed. Therefore, when the present invention executes the energy-saving command, the energy-saving command is not executed for the abnormal street lamp body 4, and the energy-saving command is also not executed for the street lamp bodies 4 adjacent to the abnormal street lamp body 4. The street lamp bodies 4 adjacent to these abnormal street lamp bodies 4 always remain lit to ensure the lighting of the section of the abnormal street lamp body 4.

[0213] The street light management system includes a base station 9, a street light management platform 10, an abnormality determination system 11 and an energy-saving control system 12. The base station 9 is wirelessly connected to the wireless communication module 2, the base station 9 is wirelessly connected to the street light management platform 10, the street light management platform 10 is wirelessly connected to the abnormality determination system 11, the energy-saving control system 12, the database 13, the maintenance center 14 and the rescue center 15, and the wireless speed measurement camera 8 is wirelessly connected to the base station 9;

[0214] The base station 9 is used for data transmission between the street light management platform 10 and the wireless communication module 2. The wireless communication module 2 sends an abnormal signal to the base station 9, the base station 9 sends it to the street light management platform 10, the street light management platform 10 sends the abnormal signal to the abnormality determination system 11, the wireless speed camera 8 sends the detection data to the base station 9, and then the base station 9 sends it to the street light management platform 10, and the street light management platform 10 sends the detection data to the database 13;

[0215] The abnormality determination system 11 is used to analyze the abnormal state data of the street lamp body 4 recorded by the abnormal signal, and adopts the following steps:

[0216] Step B1, whether the abnormality determination system 11 receives an abnormality signal;

[0217] Step B2, if not, the abnormality determination system 11 does not operate and returns to step B1;

[0218] Step B3: If yes, the abnormality determination system 11 identifies the abnormal signal and the abnormal state data recorded therein;

[0219] Step B4, when the abnormal state data of the abnormal signal received by the abnormality determination system 11 is that the light is abnormal, step B5 is executed;

[0220] Step B5, the abnormality determination system 11 accesses the database 13 through the street light management platform 10, searches the unique identification code of the wireless communication module 2 that sends the abnormal signal in the identification table of the database 13, writes the light abnormality in the corresponding status filling area, and generates a maintenance instruction recording the location information of the wireless communication module 2 and the light abnormality, and sends the maintenance instruction to the maintenance center 14;

[0221] Step B6, when the abnormal state data of the abnormal signal received by the abnormality determination system 11 is tilt abnormality, step B7 is executed;

[0222] Step B7, the abnormality determination system 11 accesses the database 13, and the abnormality determination system 11 accesses the identification table of the database 13 through the street lamp management platform 10, and queries the unique identification code of the wireless communication module 2 that sends the abnormal signal and writes the tilt abnormality in the corresponding abnormal state data filling area, and at the same time generates a maintenance instruction recording the position information and the tilt abnormality of the wireless communication module 2, and sends the maintenance instruction to the maintenance center 14, and at the same time queries the detection data of two adjacent wireless speed measurement cameras 8 bound to the unique identification code of the wireless communication module 2 that sends the abnormal signal, and collects and analyzes the incident detection data of the two wireless speed measurement cameras 8 within one minute before and after the abnormal signal sending time point to determine whether the cause of the tilt of the street lamp body 4 is a traffic accident or a non-traffic accident;

[0223] Step B8, when the abnormality determination system 11 determines that the tilt of the street lamp body 4 is caused by a traffic accident, the abnormality determination system 11 generates a rescue instruction recording the position information of the street lamp body 4 with abnormal tilt, and sends the rescue instruction to the street lamp management platform 10, which sends it to the rescue center 15;

[0224] The abnormality determination system 11 determines whether the cause of the tilt of the lamp body 4 in step B7 is a traffic accident or a non-traffic accident:

[0225] Step C1, the abnormality determination system 11 identifies whether the two sets of incident detection data detect a vehicle; if not, execute step C4; if yes, execute step C2;

[0226] Step C2, identifying whether the same vehicle is detected in both sets of vehicle detection data; if not, executing step C5;

[0227] If yes, execute step C3;

[0228] Step C3, comparing whether the speed difference of the same vehicle in the two sets of vehicle detection data exceeds 20 km / h; if not, executing step C4;

[0229] If yes, execute step C5;

[0230] Step C4, determining that the cause of the tilt of the street lamp body 4 is not a traffic accident;

[0231] Step C5, determining that the cause of the tilt of the street lamp body 4 is a traffic accident;

[0232] When the present invention is used, the abnormality determination system 11 determines whether the abnormal tilt of the street lamp body 4 is caused by a traffic accident or a non-traffic accident. When it is determined to be caused by a traffic accident, the rescue center 15 can be quickly contacted for rescue and the location of the accident can be located.

[0233] When the present invention is used, the incident detection data of two adjacent wireless speed measurement cameras 8 on the road section where the street lamp body 4 tilts within one minute before and after the abnormal signal sending time point are retrieved; whether the tilt of the street lamp body 4 is caused by a vehicle collision is determined by whether there is a vehicle passing during this time period and whether the speed of the vehicle changes abnormally when passing. Here, it is applied that the vehicle will stop or the speed will be significantly reduced when a collision occurs, so the speed change and detection status of the same vehicle in two sets of incident detection data are detected to judge the accident.

[0234] The energy-saving control system 12 is used to determine whether the wireless communication module 2 executes the energy-saving instruction, and adopts the following steps:

[0235] Step D1, the energy-saving control system 12 obtains the current time;

[0236] Step D2, determining whether the current time is within the set energy-saving time period;

[0237] If not, the energy-saving instruction is not executed and the process returns to step D1;

[0238] If yes, proceed to step D3;

[0239] Step D3, the energy-saving control system 12 accesses the database 13 and queries whether the state filling area corresponding to the unique identification code of each wireless communication module 2 in the identification table of the database 13 is written with abnormal state data;

[0240] If yes, the wireless communication module 2 does not execute the energy-saving instruction and returns to step D1;

[0241] If not, proceed to step D4;

[0242] Step D4, determining whether abnormal status data is written in the status filling area corresponding to the unique identification code of the wireless communication module 2 adjacent to the wireless communication module 2;

[0243] If yes, the energy-saving instruction is not executed and the process returns to step D1;

[0244] If not, proceed to step D5;

[0245] Step D5, the energy-saving control system 12 detects whether the last digit of the unique identification code of the wireless communication module is an odd number or an even number;

[0246] If it is an even number, the energy-saving control system 12 sends energy-saving instruction 2 to the wireless communication module 2;

[0247] If it is an odd number, the energy-saving control system 12 sends an energy-saving instruction 1 to the wireless communication module 2;

[0248] Step D6, the energy-saving control system 12 sends an energy-saving instruction to the street light management platform 10, the street light management platform 10 sends the energy-saving instruction to the base station 9, the base station 9 sends it to the wireless communication module 2, the wireless communication module 2 sends it to the central processor 1, the central processor 1 sends it to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the operation of the street light body 4 according to the energy-saving instruction.

[0249] When the present invention is used, when the lighting intelligent controller 3 corresponding to the wireless communication module 2 whose last digit of the unique identification code is an odd number recognizes a periodic signal, it periodically controls the lighting module of the street lamp body 4 to turn on and off; when the lighting intelligent controller 3 corresponding to the wireless communication module 2 whose last digit of the unique identification code is an even number recognizes a periodic signal, it periodically controls the lighting module of the street lamp body 4 to turn on and off, thereby realizing different states of adjacent street lamp bodies 4, thereby achieving the periodic on and off change of the lighting module of the street lamp body 4 in the energy-saving time period, thereby realizing energy saving;

[0250] Through step D3 and step D4, it is judged whether the wireless communication module 2 executes the energy-saving instruction, so as to solve the problem that the illumination of the road section will be deteriorated when the adjacent street lamp body 4 triggers the energy-saving instruction due to the abnormal street lamp body 4 cutting off the power supply. Example

[0251] like Figure 1-Figure 7 As shown, as a preferred embodiment of the present invention, preferably, the unique identification code is an IP address;

[0252] The IP address uses IPV4 code or IPV6 code; Example

[0253] like Figure 1-Figure 7 As shown, as a preferred embodiment of the present invention, the present invention also provides a control method for an energy-saving street lamp control system, comprising the following steps:

[0254] Lighting component control step A of street lamp body 4:

[0255] Step A1, the light sensor 5 detects the light intensity data of natural light and sends it to the central processor 1;

[0256] Step A2: The CPU 1 determines whether the light intensity data is less than or equal to 30 lx (lux);

[0257] If not, proceed to step A5;

[0258] If yes, proceed to step A3;

[0259] Step A3: whether the central processor 1 receives an energy-saving instruction;

[0260] If yes, go to step A4;

[0261] If not, go to step A6;

[0262] Step A4, the central processor 1 sends an energy-saving instruction to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the lighting module of the street lamp body 4 to execute the energy-saving instruction, and returns to step A1;

[0263] Step A5, the central processor 1 sends a shutdown instruction to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the lighting module of the street lamp body 4 to shut down, and returns to step A1;

[0264] Step A6, the central processor 1 sends an opening instruction to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the lighting module of the street lamp body 4 to turn on, and returns to step A1.

[0265] Operation step B of the abnormality determination system 11:

[0266] Step B1, whether the abnormality determination system 11 receives an abnormality signal;

[0267] Step B2, if not, the abnormality determination system 11 does not operate and returns to step B1;

[0268] Step B3: If yes, the abnormality determination system 11 identifies the abnormal signal and the abnormal state data recorded therein;

[0269] Step B4, when the abnormal state data of the abnormal signal received by the abnormality determination system 11 is abnormal lighting;

[0270] Step B5, the abnormality determination system 11 accesses the database 13 through the street light management platform 10, searches the unique identification code of the wireless communication module 2 that sends the abnormal signal in the identification table of the database 13, writes the light abnormality in the corresponding status filling area, and generates a maintenance instruction recording the location information of the wireless communication module 2 and the light abnormality, and sends the maintenance instruction to the maintenance center 14;

[0271] Step B6, when the abnormal state data of the abnormal signal received by the abnormality determination system 11 is tilt abnormality;

[0272] Step B7, the abnormality determination system 11 accesses the identification table of the database 13 through the street lamp management platform 10, and queries the unique identification code of the wireless communication module 2 that sends the abnormal signal and writes the tilt abnormality in the corresponding abnormal state data filling area, and at the same time generates a maintenance instruction recording the position information and tilt abnormality of the wireless communication module 2, and sends the maintenance instruction to the maintenance center 14, and at the same time queries the detection data of two adjacent wireless speed measurement cameras 8 bound to the unique identification code of the wireless communication module 2 that sends the abnormal signal, and collects and analyzes the incident detection data of the two wireless speed measurement cameras 8 within one minute before and after the abnormal signal sending time point to determine whether the cause of the tilt of the street lamp body 4 is a traffic accident or a non-traffic accident;

[0273] Step B8, when the abnormality judgment system 11 determines that the cause of the tilt of the street lamp body 4 is a traffic accident, the abnormality judgment system 11 generates a rescue instruction that records the position information of the street lamp body 4 with the abnormal tilt, and sends the rescue instruction to the street lamp management platform 10, and the street lamp management platform 10 sends it to the rescue center 15.

[0274] Step C in which the abnormality determination system 11 determines whether the cause of the tilt of the street lamp body 4 is a traffic accident or a non-traffic accident:

[0275] Step C1, the abnormality determination system 11 identifies whether the two sets of incident detection data detect a vehicle; if not, execute step C4; if yes, execute step C2;

[0276] Step C2, identifying whether the same vehicle is detected in both sets of vehicle detection data; if not, executing step C5;

[0277] If yes, execute step C3;

[0278] Step C3, comparing whether the speed difference of the same vehicle in the two sets of vehicle detection data exceeds 20 km / h; if not, executing step C4;

[0279] If yes, execute step C5;

[0280] Step C4, determining that the cause of the tilt of the street lamp body 4 is not a traffic accident;

[0281] Step C5, determining that the cause of the tilt of the street lamp body 4 is a traffic accident;

[0282] Operation step D of the energy-saving control system 12:

[0283] Step D1, the energy-saving control system 12 obtains the current time;

[0284] Step D2, determining whether the current time is within the set energy-saving time period;

[0285] If not, the energy-saving instruction is not executed and the process returns to step D1;

[0286] If yes, proceed to step D3;

[0287] Step D3, the energy-saving control system 12 accesses the database 13 and queries whether the state filling area corresponding to the unique identification code of each wireless communication module 2 in the identification table of the database 13 is written with abnormal state data;

[0288] If yes, the wireless communication module 2 does not execute the energy-saving instruction and returns to step D1;

[0289] If not, proceed to step D4;

[0290] Step D4, determining whether abnormal status data is written in the status filling area corresponding to the unique identification code of the wireless communication module 2 adjacent to the wireless communication module 2;

[0291] If yes, the energy-saving instruction is not executed and the process returns to step D1;

[0292] If not, proceed to step D5;

[0293] Step D5, the energy-saving control system 12 detects whether the last digit of the unique identification code of the wireless communication module is an odd number or an even number;

[0294] If it is an even number, the energy-saving control system 12 sends energy-saving instruction 2 to the wireless communication module 2;

[0295] If it is an odd number, the energy-saving control system 12 sends an energy-saving instruction 1 to the wireless communication module 2;

[0296] Step D6, the energy-saving control system 12 sends an energy-saving instruction to the street light management platform 10, the street light management platform 10 sends the energy-saving instruction to the base station 9, the base station 9 sends it to the wireless communication module 2, the wireless communication module 2 sends it to the central processor 1, the central processor 1 sends it to the lighting intelligent controller 3, and the lighting intelligent controller 3 controls the operation of the street light body 4 according to the energy-saving instruction.

[0297] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. Such modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. An energy-saving street light control system, characterized in that: It includes a street light management system, a street light communication control and detection component, a wireless speed camera (8), a database (13), a maintenance center (14) and a rescue center (15); The street light communication control detection components are provided in a plurality of groups and are evenly spaced along the road, and a wireless speed measurement camera (8) is installed along the road after each certain number of street light communication control detection components; The street lamp communication control detection component comprises a street lamp body (4) and a communication control detection component; Each group of the communication control detection components and each wireless speed measurement camera (8) has a unique identification code, and the values ​​of the unique identification codes of adjacent communication control detection components are continuous; The unique identification codes of two adjacent wireless speed cameras (8) are bound to the unique identification codes of a plurality of communication control detection components located between the two wireless speed cameras (8); The wireless speed measurement camera (8) is used to collect vehicle detection data and send the detection data to the street light management system; The communication control detection component is connected to the street lamp body (4), the communication control detection component is connected to the street lamp management system, and the street lamp management system is connected to the wireless speed measurement camera (8), the database (13), the maintenance center (14) and the rescue center (15); The communication control detection component is used to control the operation of the street lamp body (4), and is also used to collect and identify whether the light module state of the street lamp body (4) and the tilt state of the street lamp body (4) are abnormal. When an abnormality is identified, the communication control detection component generates an abnormal signal recording the abnormal state data of the street lamp body (4), and sends the abnormal signal to the street lamp management system. At the same time, the communication control detection component controls the street lamp body (4) to cut off power; The abnormal state data includes abnormal lighting and abnormal tilt; The database (13) stores an identification table of the database (13) recording the unique identification code of each group of communication control detection components, and the identification table of the database (13) is provided with a status filling area and position information of the street lamp body (4) corresponding to the unique identification code of the communication control detection component for filling in abnormal status data; The database (13) also stores detection data of the wireless speed measurement camera (8), and the detection data of the wireless speed measurement camera (8) is queried by inputting a unique identification code of a communication control detection component bound thereto; The database (13) is also used to eliminate abnormal status data in the corresponding status filling area when the street lamp body (4) returns to normal; The street lamp management system is used to analyze the abnormal state data of the street lamp body (4) recorded by sending the abnormal signal: When the abnormal state data is abnormal lighting, the street light management system accesses the database (13), searches the identification table of the database (13) for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the abnormal lighting in the corresponding state filling area; When the abnormal state data is tilt abnormality, the street lamp management system accesses the database (13), searches the identification table of the database (13) for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the tilt abnormality in the corresponding abnormal state data filling area; When the abnormal state data is tilt abnormality and lighting abnormality, the street lamp management system accesses the database (13), searches the identification table of the database (13) for the unique identification code of the communication control detection component that sends the abnormal signal, and writes the tilt abnormality and lighting abnormality in the corresponding abnormal state data filling area; The street lamp management system simultaneously generates a maintenance instruction recording the location information and abnormal status data, and sends the maintenance instruction to the maintenance center (14); When a tilt abnormality appears in the abnormal state data, the street light management system accesses the database (13) and queries the unique identification code of the communication control detection component that sends the abnormal signal, and retrieves the detection data of two adjacent wireless speed measurement cameras (8) bound to the unique identification code. The street light management system collects and analyzes the incident detection data of the two wireless speed measurement cameras (8) in the time period before and after the abnormal signal sending time point; The street lamp management system determines, based on the incident detection data, whether the cause of the tilt of the street lamp body (4) is a traffic accident or a non-traffic accident; When the street lamp management system determines that the tilt of the street lamp body (4) is caused by a traffic accident, it generates a rescue instruction that records the position information of the abnormally tilted street lamp body (4), and sends the rescue instruction to the rescue center (15); The street light management system is also used to determine whether the communication control detection component executes the energy-saving instruction; When the street lamp management system determines that the communication control detection component executes the energy-saving instruction, the street lamp management system sends the energy-saving instruction to the communication control detection component, and the communication control detection component controls the operation of the street lamp body (4) according to the energy-saving instruction; The maintenance center (14) is used for, when receiving a maintenance instruction, maintenance personnel to perform maintenance according to the location information and abnormal state data in the maintenance instruction; The rescue center (15) is used to notify rescue personnel to carry out rescue when the street lamp management system determines that the cause of the tilt is a traffic accident; The communication control detection component comprises a central processing unit (1), a wireless communication module (2), a lighting intelligent controller (3), a light sensor (5), a tilt sensor (6) and a power supply module (7); The central processing unit (1) is electrically connected to the wireless communication module (2), the lighting intelligent controller (3), the light sensor (5), the inclination sensor (6) and the power module (7); the power module (7) is electrically connected to the lighting intelligent controller (3); the lighting intelligent controller (3) is electrically connected to the street lamp body (4); and the inclination sensor (6) is fixedly mounted on the upper end of the street lamp body (4); The light sensor (5) is used to detect natural light intensity data and send the light intensity data to the central processor (1); The tilt sensor (6) is used to detect tilt data of the street lamp body (4) and send the tilt data to the central processor (1); The power supply module (7) is used to supply power to the central processing unit (1) and the intelligent lighting controller (3); The wireless communication module (2) is used for wireless communication between the central processing unit (1) and the street light management system. The wireless communication module (2) receives energy-saving instructions sent by the street light management system and sends the energy-saving instructions to the central processing unit (1). The central processing unit (1) sends the instructions to the intelligent lighting controller (3). The central processing unit (1) is used to control the operation of the lighting intelligent controller (3) by adopting the following steps: Step A1, the light sensor (5) detects the light intensity data of natural light and sends it to the central processor (1); Step A2, the central processing unit (1) determines whether the light intensity data is less than or equal to 30 lx; If not, proceed to step A5; If yes, proceed to step A3; Step A3, whether the central processor (1) receives an energy-saving instruction; If yes, go to step A4; If not, go to step A6; Step A4, the central processing unit (1) sends an energy-saving instruction to the lighting intelligent controller (3), and the lighting intelligent controller (3) controls the lighting module of the street lamp body (4) to execute the energy-saving instruction, and then returns to step A1; Step A5, the central processing unit (1) sends a shutdown instruction to the lighting intelligent controller (3), and the lighting intelligent controller (3) controls the lighting module of the street lamp body (4) to shut down, and the process returns to step A1; Step A6, the central processing unit (1) sends a start instruction to the lighting intelligent controller (3), and the lighting intelligent controller (3) controls the lighting module of the street lamp body (4) to turn on, and then returns to step A1; The central processor (1) is also used to determine whether the tilt data is greater than 10 degrees; If the tilt data is greater than 10 degrees, the central processor (1) generates an abnormal signal recording the tilt abnormality, and sends the abnormal signal to the wireless communication module (2), which sends the abnormal signal to the street light management system. At the same time, the central processor (1) sends a power-off instruction to the power module (7); The intelligent lighting controller (3) is used to control the operation of the street lamp body (4) according to energy-saving instructions, on instructions and off instructions; The lighting intelligent controller (3) is used to detect whether the lighting module state of the street lamp body (4) is normal. When the lighting intelligent controller (3) detects that the street lamp body (4) is abnormal, the lighting intelligent controller (3) sends a lighting abnormality instruction to the central processor (1). After receiving the lighting abnormality instruction, the central processor (1) generates an abnormality signal recording the lighting abnormality, and sends the abnormality signal to the wireless communication module (2). The wireless communication module (2) sends the signal to the street lamp management system. At the same time, the central processor (1) sends a power-off instruction to the power supply module (7); The power module (7) is used to supply power to the central processing unit (1) and the intelligent lighting controller (3); after receiving a power-off instruction, the power module (7) stops supplying power to the intelligent lighting controller (3); The street light management system comprises a base station (9), a street light management platform (10), an abnormality determination system (11) and an energy-saving control system (12); the base station (9) is wirelessly connected to the wireless communication module (2); the base station (9) is wirelessly connected to the street light management platform (10); the street light management platform (10) is wirelessly connected to the abnormality determination system (11), the energy-saving control system (12), the database (13), the maintenance center (14) and the rescue center (15); and the wireless speed measurement camera (8) is wirelessly connected to the base station (9); The base station (9) is used for data transmission between the street light management platform (10) and the wireless communication module (2); the wireless communication module (2) sends an abnormal signal to the base station (9); the base station (9) sends the abnormal signal to the street light management platform (10); the street light management platform (10) sends the abnormal signal to the abnormality determination system (11); the wireless speed measurement camera (8) sends the detection data to the base station (9); the base station (9) sends the detection data to the street light management platform (10); and the street light management platform (10) sends the detection data to the database (13); The abnormality determination system (11) is used to analyze the abnormal state data of the street lamp body (4) recorded by the abnormal signal, and adopts the following steps: Step B1, whether the abnormality determination system (11) receives an abnormality signal; Step B2, if not, the abnormality determination system (11) does not operate and returns to step B1; Step B3: If yes, the abnormality determination system (11) identifies the abnormal signal and the abnormal state data recorded therein; Step B4, when the abnormal state data of the abnormal signal received by the abnormality determination system (11) is abnormal lighting, step B5 is executed; Step B5, the abnormality determination system (11) accesses the database (13) through the street light management platform (10), searches the identification table of the database (13) for the unique identification code of the wireless communication module (2) that sends the abnormal signal, writes the light abnormality in the corresponding status filling area, and generates a maintenance instruction recording the location information of the wireless communication module (2) and the light abnormality, and sends the maintenance instruction to the maintenance center (14); Step B6, when the abnormal state data of the abnormal signal received by the abnormality determination system (11) is tilt abnormality, step B7 is executed; Step B7, the abnormality determination system (11) accesses the database (13), and the abnormality determination system (11) accesses the identification table of the database (13) through the street lamp management platform (10), and queries the unique identification code of the wireless communication module (2) that sends the abnormal signal and writes the tilt abnormality in the corresponding abnormal state data filling area, and at the same time generates a maintenance instruction recording the position information of the wireless communication module (2) and the tilt abnormality, and sends the maintenance instruction to the maintenance center (14), and at the same time queries the detection data of two adjacent wireless speed measurement cameras (8) bound to the unique identification code of the wireless communication module (2) that sends the abnormal signal, and collects and analyzes the incident detection data of the two wireless speed measurement cameras (8) within one minute before and after the abnormal signal sending time point to determine whether the cause of the tilt of the street lamp body (4) is a traffic accident or a non-traffic accident; Step B8, when the abnormality determination system (11) determines that the cause of the tilt of the street lamp body (4) is a traffic accident, the abnormality determination system (11) generates a rescue instruction that records the position information of the street lamp body (4) with abnormal tilt, and sends the rescue instruction to the street lamp management platform (10), which then sends it to the rescue center (15); The abnormality determination system (11) determines whether the cause of the tilt of the lamp body (4) in step B7 is a traffic accident or a non-traffic accident: Step C1, the abnormality determination system (11) identifies whether the two sets of incident detection data detect a vehicle; if not, execute step C4; if yes, execute step C2; Step C2, identifying whether the same vehicle is detected in both sets of vehicle detection data; if not, executing step C5; If yes, execute step C3; Step C3, comparing whether the speed difference of the same vehicle in the two sets of vehicle detection data exceeds 20 km / h; if not, executing step C4; If yes, execute step C5; Step C4, determining that the cause of the tilt of the street lamp body (4) is not a traffic accident; Step C5, determining that the cause of the tilt of the street lamp body (4) is a traffic accident; The energy-saving control system (12) is used to control whether the street lamp body (4) corresponding to the wireless communication module (2) executes the energy-saving instruction, and adopts the following steps: Step D1, the energy-saving control system (12) obtains the current time; Step D2, determining whether the current time is within the set energy-saving time period; If not, the energy-saving instruction is not executed and the process returns to step D1; If yes, proceed to step D3; Step D3, the energy-saving control system (12) accesses the database (13) and queries whether the status filling area corresponding to the unique identification code of each wireless communication module (2) in the identification table of the database (13) is written with abnormal status data; If yes, the wireless communication module (2) does not execute the energy-saving instruction and returns to step D1; If not, proceed to step D4; Step D4, determining whether abnormal status data is written into the status filling area corresponding to the unique identification code of the wireless communication module (2) adjacent to the wireless communication module (2); If yes, the energy-saving instruction is not executed and the process returns to step D1; If not, proceed to step D5; Step D5, the energy-saving control system (12) detects whether the last digit of the unique identification code of the wireless communication module is an odd number or an even number; If it is an even number, the energy-saving control system (12) sends energy-saving instruction 2 to the wireless communication module (2); If it is an odd number, the energy-saving control system (12) sends an energy-saving instruction 1 to the wireless communication module (2); Step D6, the energy-saving control system (12) sends an energy-saving instruction to the street light management platform (10), the street light management platform (10) sends the energy-saving instruction to the base station (9), the base station (9) sends it to the wireless communication module (2), the wireless communication module (2) sends it to the central processing unit (1), the central processing unit (1) sends it to the lighting intelligent controller (3), and the lighting intelligent controller (3) controls the operation of the street light body (4) according to the energy-saving instruction.

2. The energy-saving street light control system according to claim 1, characterized in that: There are two types of energy-saving instructions, namely energy-saving instruction 1 and energy-saving instruction 2; Energy-saving instruction 1 is a square wave control signal which starts at a high level for 30 minutes and then switches to a low level with a cycle of 60 minutes; Energy-saving instruction 2 is a square wave control signal which starts at a low level for 30 minutes, then switches to a high level and has a cycle of 60 minutes.

3. The energy-saving street light control system according to claim 2 is characterized in that: Each of the wireless communication modules (2) has a unique identification code, and the values ​​of the unique identification codes of adjacent wireless communication modules (2) are continuous, and the unique identification codes of two adjacent wireless speed measurement cameras (8) are bound to the unique identification codes of the four wireless communication modules (2) located between the two wireless speed measurement cameras (8); The database (13) stores an identification table of the database (13) recording the unique identification code of each group of wireless communication modules (2), and the identification table of the database (13) is provided with a status filling area and position information of the street lamp body (4) corresponding to the unique identification code of the wireless communication module (2) for filling in abnormal status data; The database (13) also stores detection data of the wireless speed measurement camera (8), and the detection data of the wireless speed measurement camera (8) is queried by inputting a unique identification code of the wireless communication module (2) bound thereto.

4. The energy-saving street light control system according to claim 3, characterized in that: The unique identification code is an IP address; The IP address adopts IPV4 code or IPV6 code.

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