CN110536514A - Street lamp control system and its control method, device, storage medium and processor - Google Patents

Abstract

The invention discloses a street lamp control system and its control method, device, storage medium and processor. The method includes: acquiring a first detection state of a single-lamp controller of the first street lamp; and determining that the first detection state is abnormal when the first detection state does not match the target environment state of the target area where the first street lamp is located Detecting the state, and determining the target adjustment parameter of the single lamp controller of the first street lamp based on the target environment state; sending the target adjustment parameter to the single lamp controller of the first street lamp, wherein the target adjustment parameter is used to adjust the single lamp The controller makes adjustments to adjust the first detection state from an abnormal detection state to a normal detection state. Through the present invention, the technical effect of achieving the street lamp control system to judge the environmental state adaptively and improving the lighting efficiency is achieved.

Description

Street lamp control system and its control method, device, storage medium and processor

technical field

The present invention relates to the field of lighting control, in particular to a street lamp control system and its control method, device, storage medium and processor.

Background technique

At present, in the street lamp control system, the on/off operation of the single lamp controller of each street lamp, the adjustment of the illuminance percentage, the adjustment of the color temperature and other amplitude adjustment operations are mainly realized by the joint control of the server and the single lamp controller. It greatly facilitates the operation of managers.

However, when the illuminance sensor of the single lamp controller of one or more street lamps is interfered by any interference source or causes a failure, for example, the illuminance value caused by the occlusion by leaves and other occluders, and the continuous illumination of the high beam of the vehicle at night When the illuminance value of the illuminance sensor changes frequently, or the illuminance value of the illuminance sensor is seriously distorted, the one or more single lamp controllers will not report the fault information to the server due to the normal working mode not affected by the line fault, resulting in one or more Multiple single light controllers are always on, or the brightness (illuminance) percentage does not match, or the light is off. Therefore, the existing single-lamp control system has the defect of lack of self-adaptive judgment of the state of the surrounding environment, resulting in waste of energy or failure to meet lighting requirements, resulting in low lighting efficiency.

Aiming at the technical problem of low lighting efficiency caused by the lack of self-adaptive judgment of the environment state in the street lamp control system in the prior art, no effective solution has been proposed yet.

Contents of the invention

The main purpose of the present invention is to provide a street lamp control system and its control method, device, storage medium and processor, so as to at least solve the technical problem of low lighting efficiency caused by the lack of adaptive judgment of environmental conditions in the street lamp control system.

In order to achieve the above object, according to one aspect of the present invention, an interface display method of an operation panel is provided. The method may include: acquiring a first detection state of the single-lamp controller of the first street lamp; and determining that the first detection state is Abnormal detection status, and determine the target adjustment parameter of the single lamp controller of the first street lamp based on the target environment state; send the target adjustment parameter to the single lamp controller of the first street lamp, wherein, the target adjustment parameter is used to adjust The light controller adjusts to adjust the first detection state from an abnormal detection state to a normal detection state.

Optionally, before determining that the first detection state is the abnormality detection state, the method further includes: acquiring a first environmental state corresponding to the first detection state; the difference between the first environmental state and the target environmental state is greater than the target In the case of the threshold, it is determined that the first detection state does not match the target environment state.

Optionally, the method further includes: obtaining the second detection states of the single-lamp controllers of multiple second street lamps to obtain multiple second detection states, wherein the multiple second street lamps are in the target area, and the multiple second street lamps are in the target area. The detection state is the same detection state and is different from the first detection state; the first target environment state of the target area is determined through a plurality of second detection states, wherein the target environment state includes the first target environment state.

Optionally, the method further includes: acquiring a second target environment state of the target area detected by the first street lamp, wherein the target environment state includes the second target environment state.

Optionally, determining the target adjustment parameter of the single-lamp controller of the first street lamp based on the target environment state includes: acquiring a first light intensity value corresponding to the first detection state; The difference between them determines the target adjustment parameters.

Optionally, acquiring the first detection status of the single-lamp controller of the first street lamp includes: querying the first detection status of the single-lamp controller of the first street lamp through registration information of the first street lamp.

Optionally, after determining that the first detection state is the abnormality detection state, the method further includes: sending a first target instruction, wherein the first target instruction is used to prohibit the illuminance sensor of the first street lamp from performing detection on the detection state of the first street lamp. Adjustment.

Optionally, the method further includes: adding a first identification to the first street lamp, wherein the first identification is used to indicate that the single-lamp controller of the first street lamp is in an abnormal detection state.

Optionally, after sending the target adjustment parameter to the single lamp controller of the first street lamp, the method further includes: when it is detected that the first detection state is adjusted from the abnormal detection state to the normal detection state, sending a second target instruction , wherein the second target instruction is used to allow the illuminance sensor of the first street lamp to adjust the detection state of the first street lamp.

Optionally, a second identifier is added to the first street lamp, wherein the second identifier is used to indicate that the single lamp controller of the first street lamp is in a normal detection state.

Optionally, the abnormality detection state is the disturbed or faulty state of the photosensitive element of the single lamp controller of the first street lamp; the normal detection state is the undisturbed state or the normal working state of the photosensitive element of the single lamp controller of the first street lamp.

Optionally, when it is determined that the first detection state is an abnormality detection state, the method further includes: sending out prompt information, wherein the prompt information is used to indicate that the first detection state is an abnormality detection state.

In order to achieve the above object, according to another aspect of the present invention, a control method of a street lamp control system is also provided. The method includes: acquiring a first detection state of a single-lamp controller of the first street lamp; and determining that the first detection state is abnormal when the first detection state does not match the target environment state of the target area where the first street lamp is located Detect the state, and obtain the target adjustment parameter of the single-lamp controller of the first street lamp; adjust the single-lamp controller through the target adjustment parameter, so as to adjust the first detection state from the abnormal detection state to the normal detection state.

Optionally, the method further includes: detecting the environment of the target area to obtain a second target environment state of the target area, wherein the target environment state includes the second target environment state.

Optionally, when the second detection state of the second street lamp is a normal detection state, acquire the second detection state of the single lamp controller of the second street lamp, wherein the second street lamp is in the target area; The environmental state corresponding to the state is determined as the third target environmental state of the target area, wherein the target environmental state includes the third target environmental state.

Optionally, the abnormality detection state is the disturbance state or failure state of the illuminance sensor of the single lamp controller of the first street lamp; the normal detection state is the undisturbed state or normal working state of the illuminance sensor of the single lamp controller of the first street lamp.

In order to achieve the above purpose, according to another aspect of the present invention, a street lamp control system is also provided. The system may include: a server and a first street lamp, wherein, the server is used to obtain the target adjustment parameters of the single lamp controller of the first street lamp; the first street lamp is connected to the server and is used to set the first street lamp The anomaly detection status of is adjusted to normal detection status.

Optionally, the system further includes: a collector, connected to the first street lamp, used to obtain the first detection state of the single lamp controller of the first street lamp; wherein, the server is used to determine the first detection state obtained by the collector Whether it is anomaly detection status.

Optionally, the collector is set in the server.

Optionally, the server is connected to a plurality of second street lights, and is configured to determine the first target environment state of the target area where the first street lights are located.

Optionally, the first street lamp includes: a photosensitive element, connected to the light source of the first street lamp, used to control the light source to turn on or off according to the sensed illuminance value; a sensor, connected to the photosensitive element, used to pass the detected The second target environment state of the target area where the first street lamp is located controls the photosensitive element.

Optionally, the sensor includes at least one of the following: an acoustic port, used to detect obstacles in the photosensitive element through sound waves; a water immersion sensing element, used to detect ground water levels; a meteorological sensor, used to detect meteorological data in the target area; temperature and humidity The sensing element is used to detect the humidity and temperature of the target area; the optical sensing element is used to detect the image of the target area; the pressure sensor is used to detect the air pressure.

Optionally, the photosensitive element is provided with a substrate, and the substrate moves as the illumination of the target area changes.

Optionally, the first street lamp further includes: a positioning device, connected to the server, and configured to transmit the positioning data of the target area where the first street lamp is located to the server.

Optionally, the first streetlight is connected to a third streetlight in the target area where the first streetlight is located, and is configured to determine a third target environment state of the target area based on a detection state of the third streetlight.

Optionally, the server includes: an information prompter, configured to issue prompt information that the first detection state is an abnormal detection state.

In order to achieve the above purpose, according to another aspect of the present invention, a control device for a street lamp control system is also provided. The device may include: a first acquiring unit, configured to acquire the first detection state of the single-lamp controller of the first street lamp; When the environmental state does not match, determine that the first detection state is an abnormal detection state, and determine the target adjustment parameters of the single-lamp controller of the first street lamp based on the target environmental state; The controller sends a target adjustment parameter, wherein the target adjustment parameter is used to adjust the single lamp controller of the first street lamp, so as to adjust the first detection state from the abnormal detection state to the normal detection state.

In order to achieve the above object, according to another aspect of the present invention, another control device for a street lamp control system is provided. The device may include: a second acquiring unit, configured to acquire the first detection state of the single-lamp controller of the first street lamp; When the environmental state does not match, determine that the first detection state is an abnormal detection state, and obtain the target adjustment parameter of the single-lamp controller of the first street lamp; the adjustment unit is used to adjust the single-lamp controller through the target adjustment parameter, In order to adjust the first detection state from the abnormal detection state to the normal detection state.

In order to achieve the above object, according to another aspect of the present invention, a storage medium is also provided. The storage medium includes a stored program, wherein when the program is running, the device where the storage medium is located is controlled to execute the control method of the street lamp control system according to the embodiment of the present invention.

In order to achieve the above purpose, according to another aspect of the present invention, a processor is also provided. The processor is used to run a program, wherein the method of the embodiment of the present invention is executed when the program is running.

In this embodiment, by acquiring the first detection state of the single lamp controller of the first street lamp; in the case that the first detection state does not match the target environment state of the target area where the first street lamp is located, the first detection state is determined The state is abnormal detection state, and determine the target adjustment parameter of the single lamp controller of the first street lamp based on the target environment state; send the target adjustment parameter to the single lamp controller of the first street lamp, wherein, the target adjustment parameter is used to adjust the The single lamp controller is adjusted to adjust the first detection state from an abnormal detection state to a normal detection state. That is to say, when the single-lamp controller is in the abnormal detection state (disturbed or faulty state), the parameters used to adjust the single-lamp controller in the abnormal detection state are determined according to the state of the surrounding environment, so that it is different from the normal single-lamp controller. The state of the lamp controller is consistent, which solves the technical problem of low lighting efficiency caused by the lack of adaptive judgment of the environmental state of the street lamp control system, and achieves the technical effect of the street lamp control system adaptively judging the environmental state and improving the lighting efficiency.

Description of drawings

The accompanying drawings constituting a part of this application are used to provide further understanding of the present invention, and the schematic embodiments and descriptions of the present invention are used to explain the present invention, and do not constitute an improper limitation of the present invention. In the attached picture:

FIG. 1 is a schematic diagram of a street lamp control system according to an embodiment of the present invention;

Fig. 2 is a flowchart of a control method of a street lamp control system according to an embodiment of the present invention;

Fig. 3 is a flowchart of another control method of a street lamp control system according to an embodiment of the present invention;

Fig. 4 is a schematic diagram of installing multiple street lamps and their light sources in different areas according to an embodiment of the present invention;

FIG. 5 is a schematic diagram of a corresponding relationship between a data acquisition module and various regions according to an embodiment of the present invention;

Fig. 6 is a schematic diagram of a street lamp according to an embodiment of the present invention;

Fig. 7 is a flowchart of a method for adaptive street lamp compensation control according to an embodiment of the present invention;

Fig. 8 is a flow chart of another method for adaptive street lamp compensation control according to an embodiment of the present invention;

FIG. 9 is a schematic diagram of a street lamp control circuit according to an embodiment of the present invention;

10 is a schematic diagram of another control circuit according to an embodiment of the present invention;

11 is a schematic diagram of a partial circuit of a dimming control module and a photosensitive element according to an embodiment of the present invention;

FIG. 12 is a schematic diagram of a control device of a street lamp control system according to an embodiment of the present invention; and

Fig. 13 is a schematic diagram of a control device of a street lamp control system according to an embodiment of the present invention.

Detailed ways

It should be noted that, in the case of no conflict, the embodiments in the present application and the features in the embodiments can be combined with each other. The present invention will be described in detail below with reference to the accompanying drawings and examples.

In order to enable those skilled in the art to better understand the solution of the present application, the technical solution in the embodiment of the application will be clearly and completely described below in conjunction with the accompanying drawings in the embodiment of the application. Obviously, the described embodiment is only It is an embodiment of a part of the application, but not all of the embodiments. Based on the embodiments in this application, all other embodiments obtained by persons of ordinary skill in the art without making creative efforts shall fall within the scope of protection of this application.

It should be noted that the terms "first" and "second" in the description and claims of the present application and the above drawings are used to distinguish similar objects, but not necessarily used to describe a specific sequence or sequence. It should be understood that the data so used may be interchanged under appropriate circumstances for the embodiments of the application described herein. Furthermore, the terms "comprising" and "having", as well as any variations thereof, are intended to cover a non-exclusive inclusion, eg, a process, method, system, product or device comprising a sequence of steps or elements is not necessarily limited to the expressly listed instead, may include other steps or elements not explicitly listed or inherent to the process, method, product or apparatus.

Example 1

The invention provides a street lamp control system.

Fig. 1 is a schematic diagram of a street lamp control system according to an embodiment of the present invention. As shown in FIG. 1 , the street lamp control system 10 may include: a server 11 and a first street lamp 12 .

The server 11 is configured to acquire target adjustment parameters of the single-lamp controller of the first street lamp 12 .

In this embodiment, the server 11 may be a local server, one or more, for obtaining the target adjustment parameter of the first street lamp 12, and the target adjustment parameter may be used for adjusting the first street lamp 12. Dimming parameters for light compensation.

Optionally, the server 11 in this embodiment obtains the first detection state of the single-lamp controller of the first street lamp 12, and the first detection state is the current state of the single-lamp controller when performing detection, which is different from the current state of the single-lamp controller. It is related to the local environment. It can be whether the single-light controller is in the state of being interfered by external interference sources during detection. For example, the detection status of the single-light controller being blocked by an obstruction, and the illuminance value caused by the continuous illumination of the high beam of the vehicle at night The frequently changing detection state may also be a fault state, for example, the illuminance value of the illuminance sensor is severely distorted, etc., there is no limitation here. Optionally, when the single-lamp controller of the first street lamp is interfered by an external source, the illuminance value of the street light source detected by the single-lamp controller will change greatly. Because the single-lamp controller has an adaptive adjustment function, the single-lamp controller The operating state of the lamp controller will also change, and then the single lamp controller will report the current illuminance value, the changed lamp state, and the identification of the single lamp controller to the server 11 through wireless transmission.

Optionally, the server 11 of this embodiment can divide the single lamp controllers of multiple street lamps into an area according to the preset logic through the geographical positioning information, for example, the signal range that can be covered by the geographic electronic fence and the wireless/wired network , wiring terminal nodes, etc. to determine the area where the single-lamp controllers of multiple street lamps are located, so that a single-lamp control system network can be formed, in which multiple street lamps and their light sources can be installed in different areas, and multiple street lamps can be installed according to It is installed in a preset and fixed manner, and sometimes it can be arranged continuously. For example, multiple street lights are installed equidistantly according to the road guidance method set by the electronic geo-fence. Optionally, the single-lamp controller of the street lamp in this embodiment obtains the location of the area where the single-lamp controller of the street lamp is located through device coding.

The first street lamp 12 of this embodiment is in the target area set according to the above method. The target environment state of the target area is the overall state of the natural environment of the target area, which may include the illuminance of the natural environment, and can be detected by the surrounding state. The illuminance value of a normal single lamp controller is determined. Whether the server 11 judges whether the first detection state matches the target environment state of the target area where the first street lamp 12 is located refers to whether the environment state corresponding to the first detection state matches the target environment state, for example, the first street lamp 12 The single-light controller is blocked by an occluder, and the local ambient light is weak, and the target environment state of the target area is daytime, and the light is sufficient, then the environment state corresponding to the first detection state does not match the target environment state, then The first detected state does not match the target environment state.

When the server 11 detects that the first detection state does not match the target environment state, it determines that the first detection state is an abnormal detection state, and the abnormal detection state may be a disturbed state of the photosensitive element of the single lamp controller of the first street lamp 12 or fault condition.

In order to avoid the discrepancy between the detection result of the single lamp controller and the actual environmental state of the target area, causing the single lamp controller to be in an abnormal control state such as turning on the light or the brightness percentage does not match or turning off the light, the server 11 of this embodiment is based on the target environment The state determines the target adjustment parameter of the single lamp controller of the first street lamp 12. The target adjustment parameter may be a dimming parameter used to determine the dimming compensation logic of the single lamp controller, and may include The detected state of the single-lamp controller of one or more street lamps adjacent to the controller, the generated first dimming parameter and the second dimming parameter determined by the sensor of the first street lamp 12 can make the control of the single-lamp controller The state matches the actual target environment state.

The first street lamp 12 is connected to the server 11, and is used to adjust the abnormal detection state of the first street lamp 12 to a normal detection state through target adjustment parameters.

The first street lamp 12 of this embodiment communicates with the server 11 through the mode of wireless communication, and this wireless communication can be Wi-Fi (such as, 802.11 protocol), high-frequency transceiver, infrared IR, GSM, GSM+EDGE, One or more of Lo-Ra or any other wireless communication protocol, or any combination of them.

The first street lamp 12 obtains the target adjustment parameter sent by the server 11 through wireless communication, and may obtain the compensation control instruction carrying the target adjustment parameter sent by the server. After the single-lamp controller of the first street lamp 12 obtains the target adjustment parameter, the single-lamp controller 12 can adjust based on the target adjustment parameter, and can adjust its electrical state to be consistent with that of the single-lamp controller in the surrounding normal detection state. The electrical states of the lamps are consistent, wherein the normal detection state is the undisturbed state or the normal working state of the photosensitive element of the single lamp controller of the first street lamp 12, so as to avoid the energy loss caused by the street lamp being too bright due to interference or failure. Waste, or the road lighting environment caused by too dark lamps cannot meet the expected goals, and the single lamp controller can be repaired in time when it is disturbed or faulty, thereby improving the lighting efficiency of street lamps.

It should be noted that the above-mentioned first street lamp 12 in this embodiment can be any street lamp in the street lamp control system, and its number can be one or multiple, without any limitation here.

In this embodiment, the target adjustment parameter of the single lamp controller of the first street lamp 12 is obtained through the server 11, and the first street lamp 12 is connected to the server 11, and the abnormal detection state of the first street lamp 12 is adjusted to a normal detection state through the target adjustment parameter . That is to say, when the single-lamp controller is in the abnormal detection state (disturbed or faulty state), the parameters used to adjust the single-lamp controller in the abnormal detection state are determined according to the state of the surrounding environment, so that it is different from the normal single-lamp controller. The state of the lamp controller is consistent, which solves the technical problem of low lighting efficiency caused by the lack of adaptive judgment of the environmental state of the street lamp control system, and achieves the technical effect of the street lamp control system adaptively judging the environmental state and improving the lighting efficiency.

Optionally, the system further includes: a collector, connected to the first street lamp, used to obtain the first detection state of the single lamp controller of the first street lamp; wherein, the server is used to determine the first detection state obtained by the collector Whether it is anomaly detection state.

The system of this embodiment also includes a collector, which is also a data collection module, used to obtain and save the first detection state, optionally, used to obtain and store the light source required by the single lamp controller of the first street lamp The illuminance value and the operating status of each light source. Optionally, one collector in this embodiment may correspond to an area divided according to a preset logic, and the one area may include single lamp controllers of one or more street lamps.

Optionally, the data acquisition module of this embodiment includes a signal processor, which may be a digital signal processor for real-time processing of digital signals converted from analog signals by the input/output circuit of the single lamp controller. After digital signal processing is complete, the digital signal can also be converted back to an analog signal.

Optionally, the single-lamp controller of the first street lamp in this embodiment may establish a communication connection with the collector, and the collector may acquire the registration request sent by the single-lamp controller of the first street lamp. Optionally, the registration request includes the geographic location information of the single-light controller of the first street lamp and the device code corresponding to the single-light controller and/or the network address that needs to be obtained, and then, the collector sends the The registration request is further uploaded to one or more servers, and the server creates a registration list for the single lamp controller of the first street lamp. Among them, the location of the area where the single-lamp controller is obtained is obtained through the equipment code of the single-lamp controller of the first street lamp, and then the registered location information is used to inquire about the single-lamp controller and one or more other The illuminance value detected by the single lamp controller and the operating status of the light source. For example, after turning on the power of each street lamp, the single lamp controller can feedback the running status and transmit the characteristic parameters of the light source controlled by each single lamp controller after several debugging commands issued by the server. Power, dimming range (such as color temperature, tint, etc.), and/or other sensor parameters may be included. When the server generates the above registration information, a data list can be formed in the storage device, which contains all possible characteristic parameter bits obtained through the registration, and for some street lamp light sources, some characteristic parameters is null. In this way, when some dimmable light sources need to be replaced, some newly added characteristic parameters can be correspondingly filled. For example, if there is still an unregistered single-light controller in some areas, the data acquisition module is configured to establish communication with the single-light controller to obtain its specific parameters, and create a database for the single-light controller through the local server. Sign up for the list.

After the above registration is completed, the data collection module of this embodiment can also be configured to calculate the actual illuminance value of the light source and the operating state of the light source in the area where the single light controller of the first street light is located. If the illuminance value of the single-lamp controller is seriously inconsistent with the actual illuminance value, the server will send the actual lamp status and disable the self-adaptive function to the single-lamp controller, so that the lamp status of the single-lamp controller is consistent with that of other surrounding single-lamp controllers. The lamp status of the controller is consistent, and the function of the single lamp controller to adjust the lamp status through the change of the illuminance sensor is turned off, and then the server temporarily marks the single lamp controller as a disturbed or faulty state. If the illuminance value detected by the single-lamp controller returns to normal, the server will issue an adaptive adjustment function to enable the single-lamp controller to automatically change through the change of the illuminance value detected by its own photosensitive element, and remove the The operating state of the single lamp controller is temporarily marked as disturbed or faulty.

The built-in single lamp controllers of multiple street lamps in this embodiment can form an operating network through collectors adjacent to each other. This operating network can be defined as forming a lighting area, and the lighting area can also be illuminated by these street lamps. to define the maximum range. Optionally, multiple data collection modules establish a communication connection with a local server, so as to realize sending of collected data and receiving of data collection requests.

Optionally, the data collection module of this embodiment can also obtain the coordinates of the geographical location of the target area, so as to obtain the meteorological data of the geographical area from the local or the server.

Optionally, the collector is set in the server.

In this embodiment, one or more collectors may be set in a server, that is, the server may perform unified management on one or more collection servers.

Optionally, the server is connected to a plurality of second street lights, and is configured to determine the first target environment state of the target area where the first street lights are located.

In this embodiment, the multiple second street lamps may be in the target area with the first street lamp, and the server determines the first target environment state of the target area through the detection status of the single lamp controllers of the multiple second street lamps. The plurality of second street lamps and the first street lamps in this embodiment can be installed in the target area in a preset and fixed manner, or sometimes can be installed in a continuous arrangement, for example, the first street lamp and a plurality of second street lamps It is equidistantly installed according to the road guidance mode set by an electronic geo-fence, and the structure and function of multiple second street lights can be the same as that of the first street lights.

The server obtains the second detection status of the single-lamp controller of each second street lamp, and obtains multiple second detection statuses, and the multiple second detection statuses may be the same detection status, for example, indicated by multiple second detection statuses Optionally, as long as the difference between the illuminance indicated by the multiple second detection states is within a certain threshold range, the multiple second detection states can be considered to be the same, if the first street light The first detection state of the single lamp controller is different from the second detection state of the single lamp controllers of multiple second street lamps, then the first target environment state of the target area is determined through the multiple second detection states, that is, if the first The first detection state of the single-lamp controller of a road lamp is different from the second detection state of the single-lamp controllers of most other surrounding street lamps, which means that the detection state of the single-lamp controller of the first street lamp is an abnormal detection state, The first target environment state of the target area may be determined through multiple second detection states, for example, the same illuminance value indicated by the multiple second detection states is determined as the illuminance value of the current target area. In this embodiment, the target adjustment parameter determined based on the first target environment state may be a first dimming parameter for adjusting the single-lamp controller of the first street lamp.

Optionally, the first street lamp includes: a photosensitive element, connected to the light source of the first street lamp, used to control the light source to turn on or off according to the sensed illuminance value; a sensor, connected to the photosensitive element, used to pass the detected The second target environment state of the target area where the first street lamp is located controls the photosensitive element.

In this embodiment, several light sources and sensor modules are mounted on the main frame housing of the first street lamp. Wherein, the sensing module may include a photosensitive element for sensing light intensity and its control circuit, as well as a combined sensor. The sensing module can be installed on the main body bracket shell of the first street lamp, and several light sources can also be installed on the body bracket shell.

The photosensitive element in this embodiment is used to sense the illuminance value, and is a single sensing unit suitable for ambient illuminance sensing and scene atmosphere sensing, and the control circuit can be packaged in the inner cavity of the main body bracket shell or a suitable load-bearing space, For example, the main frame housing may include a waterproof sealing structure located on the top wall or the top side wall of the first street lamp, for installing the photosensitive element and the control circuit around it. Sometimes in order to efficiently collect ambient light, the photosensitive element may be arranged in a cover plate or an extension of the cover plate inclined at a predetermined angle with respect to the top edge, or the structure may be fixed in a cover formed by such a cover plate and/or extension. substrate to form a sealed sensing module component. The integrated circuit of the photosensitive element is a single chip or chipset suitable for processing and/or filtering the sensed photoelectric signal, which may be a dedicated control circuit ASIC. The light source is turned on or off, for example, the photosensitive element does not output photocurrent and the light source is turned on, and the photosensitive element outputs photocurrent while the light source is turned off; optionally, when multiple electrical functions are required (for example, the combination of ambient light sensing and ultrasonic sensing) In the case of a single sensing unit, it can be executed and output by a single sensing unit, and the sensing signal is processed by a single control circuit, thereby avoiding the need for a single sensing module to trigger a single lamp controller separately when performing sensing, so that it can be combined with The sensing method triggers a certain function of the single lamp controller. Optionally, the first street lamp collects electrical energy through a photoelectric replacement photosensitive element (for example, a photovoltaic element), so as to provide limited power supply to the light source of the first street lamp at night.

The sensor in this embodiment is connected to the photosensitive element, and is used to control the photosensitive element through the detected second target environment state of the target area. In this embodiment, the sensor can detect the second target environment state of the target area, based on the second The target adjustment parameter determined by the target environment state can be the second dimming parameter used to adjust the single lamp controller of the first street lamp, and the second dimming parameter can be combined with the above-mentioned first adjustment parameter to jointly determine the The logic for adjustments made by the single lamp controller.

Optionally, the sensor includes at least one of the following: an acoustic port, used to detect obstacles in the photosensitive element through sound waves; a water immersion sensing element, used to detect ground water levels; a meteorological sensor, used to detect meteorological data in the target area; temperature and humidity The sensing element is used to detect the humidity and temperature of the target area; the optical sensing element is used to detect the image of the target area; the pressure sensor is used to detect the air pressure.

The sensor in this embodiment includes an acoustic port, and the housing of the main body bracket of the first street lamp can also extend from the top wall to the position of the light post of the main body bracket of the street lamp, and an acoustic port of a suitable size is opened. Optionally, the acoustic port of this embodiment is configured to allow sound from the environment surrounding the housing to be delivered to an acoustic transducer within the housing for sound pickup. Optionally, the acoustic port of this embodiment can be used as an output port (eg, a speaker) to output sound from the acoustic port to the road surface or surrounding environment. Optionally, the acoustic port of this embodiment is arranged in the housing on the side of the light pole of the first street lamp, and may also be installed in a housing near the bottom side of the light pole of the first street lamp. Optionally, the acoustic port of this embodiment may have components for outputting sound waves to the surrounding environment and receiving sound waves, which allows sound waves (including ultrasonic waves) to be output through the acoustic port and reflected back to the acoustic port by obstacles.

In this embodiment, the acoustic port can use an ultrasonic sensing element to detect obstacles that may appear near the position of the photosensitive element. Optionally, the acoustic port in this embodiment further includes a speaker with a display interface or a microphone device for collecting an ambient sound field arranged on the side wall of the light pole of the first street lamp. In addition, ultrasonic sensing elements can also be used for signal acquisition of meteorological sensors. In addition to the above-mentioned types of sensors, the target adjustment parameters can also be determined by the second target environment state determined by other types of sensors, wherein other types of sensors can be temperature and humidity sensing elements, optical sensing elements (for example, video cameras ) and pressure sensors, etc., for example, when using a video camera to monitor images in the vicinity of the first street lamp in real time, the brightness of the field of view can be used to trigger whether to enable the light source of the first street lamp to improve the shooting effect.

Optionally, the sensor of this embodiment also includes a water immersion sensing element, which can be installed or coupled to the bottom side of the main body of the first street lamp by other integrated means to allow its detection of the ground water level in the target area. for sensing. For example, the water immersion sensing element may be arranged at a predetermined height from the ground or coupled to the aforementioned sensor. Optionally, the water immersion sensing element in this embodiment may also include an sensing element disposed in the bottom cavity formed by the ground support member of the light pole of the first street lamp, and a sensing element disposed on the top edge of the main body bracket of the first street lamp integrated circuits. Here, a hollow structure can be formed in the light pole of the first street lamp, wherein the above-mentioned acoustic port and other forms of sensors similar to the sensing elements for water level sensing can share the hollow structure, and the lamp of the first street lamp Additional sensors can be arranged on the top and/or sides of the rod so that this hollow structure can be fully utilized. Optionally, in order to facilitate inspection and replacement of these sensors, the sensors and their control circuits can be installed in the electrical box near the ground part of the main support of the first street lamp.

Optionally, the above-mentioned hollow structure in this embodiment can be divided into a first chamber for installing a control circuit and a second chamber for arranging other sensing modules with lower protection requirements. For example, the first chamber can be used as a chamber with reference pressure, temperature and humidity, etc. Optionally, it is basically highly sealed (or has only small leaks or vents) relative to the surrounding environment . The second chamber may act as a chamber that is open to the surrounding environment via, for example, an acoustic port, a water immersion sensing element, and in some embodiments may be electrically isolated or sealed relative to the first chamber.

The sensor in this embodiment also includes a meteorological sensor, which is used to detect the meteorological data of the target area, and the meteorological data may be systematically classified meteorological data, or may be obtained from a server. In this embodiment, the second target environment state is determined based on the meteorological data, and the target adjustment parameters determined through the second target environment state can be used for precise control of the light source.

The sensor in this embodiment may also include a temperature and humidity sensing element for detecting the humidity and temperature of the target area.

The sensor in this embodiment may also include an optical sensing element, which may be a camera, for detecting images of the target area. For example, when a video camera is used to monitor the image of the target area in real time, whether to enable the light source can be triggered by the brightness and darkness of the field of view to improve the shooting effect.

The sensor of this embodiment may also include a pressure sensor for detecting air pressure. The pressure sensor of the embodiment is used to respond to the input of the air flow and/or pressure, for example, the air pressure change sensed by the pressure sensing element when the ambient air flow flows into the hollow structure, and can also be used to respond to the change of the air flow to trigger and This airflow input proportional current change can then be used by the control circuit to sense, for example, ambient wind. Sometimes this sensing is also based on pressure differentials or temperature changes created by the collision of hot and cold air. For example, in some implementations, due to strong winds, there may be branches or obstacles that block the photosensitive element, and the parameters sensed by the pressure sensor can be used to prevent the photosensitive element from outputting photocurrent due to occlusion and turn on the light source. logic condition.

Optionally, the first street lamp in this embodiment also has a positioning module, and the positioning module is used to transmit the positioning data to the single lamp controller, so that the transmission to the data collection module corresponding to the target area containing the first street lamp can reflect the The coordinates of the geographical area where the target area is located are used to obtain the meteorological data of the geographical area from the local or remote server, so as to determine the environmental state of the second target. Wherein, the target adjustment parameter determined based on the second target environment state can be used to precisely control the light source. Optionally, in this embodiment, the target adjustment parameters generated based on the second target environment state of the target area can also perform data synchronization with multiple single lamp controllers in the other area.

Optionally, the substrate of this embodiment may include a surface structure for harvesting light energy so that a variable capacitance is formed in the surface structure. Optionally, this embodiment can change the position of the above-mentioned active structure by adjusting the target parameters determined based on the second target environment state. Optionally, in response to the air flow and/or pressure input, for example, the air pressure change sensed by the pressure sensing element when the ambient air flow flows into the hollow structure of the first street lamp, or the air flow change trigger is proportional to the air flow input The change in current can then be used to control the circuit to sense environmental conditions such as ambient wind. Optionally, this sensing can also be realized based on the pressure difference or temperature change generated by the collision of cold and hot air. The parameters sensed by the sensing element are used as logic conditions for suppressing the triggering of the photosensitive element not outputting photocurrent due to occlusion and turning on the light source.

Optionally, the first street lamp in this embodiment is provided with a substrate of a photosensitive element, which can be used to detect whether to transmit a sensing signal to the control circuit based on changes in ambient light. In order to collect electricity, the base plate can be arranged as a movable structure relative to the top of the main body support, for example, the upper or lower position of the movable structure is electromechanically connected to the main body support through supporting and rotating members, and the base plate of the first street lamp is as far as possible The irradiation angle is toward sunlight, so that when used as a photoelectric replacement function, the light energy collection efficiency of the photosensitive element of the single lamp controller of the first street lamp can be improved.

Optionally, the first street lamp in this embodiment may also include a control circuit for processing the photocurrent signal output by the photosensitive element or a plurality of voltage signals of different levels, for example, an application-specific control circuit (ASIC) fixedly installed in the casing a chip, the ASIC chip can be mounted to the bottom side of the housing of the first street lamp and electrically connected to the photosensitive element, the ASIC chip can be used for signal conditioning and/or processing of the ambient light signal and the pressure-induced signal output by the photosensitive element, The single lamp controller for sensing whether the first street lamp should be triggered normally outputs an electrical control command.

The photosensitive element of this embodiment may be further configured to respond to and recognize lower magnitude changes and/or higher magnitude changes associated with changes in ambient light in the target area. For example, the photosensitive element may be responsive to changes in illuminance greater than, say, 200 up to 700 or more lux, or the photosensitive element may respond to changes outside the range of illuminance at night to measure. Wherein, the photosensitive element of the first street lamp can be different from the photosensitive element of other second street lamps, and the photosensitivity of the photosensitive element blocked by the obstacle is higher than that of the photosensitive element not blocked by the obstacle. Illumination levels on sensors shaded by trees are stronger than on sensors directly exposed to sunlight, so sensors shaded by trees for a long period of time have higher photosensitivity, making them less sensitive to ambient light input (such as low illumination) Respond sensitively, but do not respond to light input of higher luminance, for example, do not respond to flickering changes in lighting fixtures. Here, the photosensitive elements of different street lamps can act in response to different predetermined illuminance changes. Therefore, the corresponding current/voltage signals output by different parts can be rectified and filtered by ASIC chips or processed in other circuits, so as to target different lighting conditions. The single lamp controller outputs or measures different illuminance level detection electrical signals.

Optionally, in this embodiment, the photosensitive element of the first street lamp outputs the sensing signal to the ASIC chip through a power wire or a suitable power bus, and the photosensitive element outputs the sensing signal to another power wire through another power wire. The ASIC chip, and each of these sensed signals may in turn be filtered by the ASIC chip to provide a measured output of ambient light within a given time. Alternatively, sensing signals corresponding to the entire illuminance range may be regularly (eg, daily) output to the ASIC chip, and the ASIC chip may process these sensing signals to determine the ambient light (eg, low-light environment) and the simultaneous Acoustic signal pickup (for example, ultrasonic feedback signal).

Optionally, in this embodiment, under a local uniform lighting environment, the photosensitive element of the first street lamp can obtain the illuminance reference from the photosensitive elements of other street lamps, instead of obtaining the illuminance reference remotely through the local server. Optionally, the photosensitive element of this embodiment may include a piezoelectric trigger for detecting thermal energy radiation of ambient light.

Optionally, the photosensitive element is provided with a substrate, and the substrate moves as the illumination of the target area changes.

Due to the change of ambient light, the substrate of the photosensitive element needs to move mechanically, so as to detect or measure the heat energy collection efficiency of ambient light. Optionally, the photosensitive element of the first street lamp may move according to the orientation of the road vertical and horizontal network.

This embodiment can be used to detect whether to transmit the sensing signal to the control circuit based on the change of ambient light intensity. In order to collect electricity, the base plate can be arranged as a movable structure relative to the top of the main body support, for example, the upper or lower position of the movable structure is electromechanically connected to the main body support through supporting and rotating members, and the base plate of the first street lamp is as far as possible The irradiation angle is toward sunlight, so that when used as a photoelectric replacement function, the light energy collection efficiency of the photosensitive element of the single lamp controller of the first street lamp can be improved.

Optionally, the first street lamp further includes: a positioning device, connected to the server, and configured to transmit the positioning data of the target area where the first street lamp is located to the server.

The first street lamp in this embodiment also has a positioning device, and the positioning device is used to transmit positioning data to the single lamp controller, so that the transmission to the data acquisition module corresponding to the target area containing the first street lamp can reflect the location of the target area. The coordinates of the geographical area, so as to obtain the meteorological data of the geographical area from the local or remote server, so as to determine the second target environment state. Wherein, the target adjustment parameter determined based on the second target environment state can be used to precisely control the light source. Optionally, this embodiment may also perform data synchronization with multiple single lamp controllers in other areas through the target adjustment parameters generated based on the second target environment state of the target area.

Optionally, the first streetlight is connected to a third streetlight in the target area where the first streetlight is located, and is configured to determine a third target environment state of the target area based on a detection state of the third streetlight.

In this embodiment, if the second street lamp is a street lamp in the target area and close to the first street lamp, and the second street lamp and the first street lamp can be in a local uniform lighting environment, then the single street lamp of the second street lamp can be The second detection state of the light controller is used as a reference, and the second detection state is determined as the third target environment state, for example, the illuminance value of the second street light is determined as the illuminance value corresponding to the target environment state, without the need to remotely to obtain.

Optionally, the server includes: an information prompter, configured to issue prompt information that the first detection state is an abnormal detection state.

In this embodiment, when the server determines that the first detection state is an abnormal detection state, it may also issue a prompt message through the information prompter. If the first detection state of the single-lamp controller of the first street lamp returns to the normal detection state from the abnormal detection state, and the abnormal detection state appears again soon, that is, when it frequently jumps back and forth between the normal detection state and the abnormal detection state, Then the server sends out a prompt message, which can be used to remind the management personnel that the abnormal detection status of the single lamp controller frequently occurs, and can also prompt the reason and suggestion for the abnormal detection status. For example, the light sensor may be frequently illuminated by the headlights of the car As a result, it is recommended that maintenance personnel replace the installation position of the light sensor.

Optionally, in this embodiment, if the single lamp controller of the first street lamp is in the normal detection state at night and in the abnormal detection state during the day, the server will send a prompt message, which can prompt the reason and suggestion for the abnormal detection state, such as , which is used to remind the management personnel that the single-light controller is blocked by an obstruction, and it is recommended that the maintenance personnel eliminate the source of interference.

Optionally, if the single-lamp controller of the first street lamp is in the abnormal detection state for more than one day, the server can send a prompt message, which can be used to remind the management personnel that the illuminance sensor of the single-lamp controller of the first street lamp is faulty, and suggest maintenance personnel Replace light sensor.

Optionally, the system of this embodiment further includes a storage device. The storage device may include local and remote storage methods. The local storage method may be, for example, a hard disk drive, flash memory, cache, ROM and/or RAM. Additionally, storage may be local and/or remote storage. For example, a storage device may include an integrated storage medium, a removable storage medium, and the like. The remote storage method may be an open storage space on other remote servers, cloud servers, wireless storage media or any combination thereof. Additionally, the storage means may be used to store weather data (eg systematically categorized weather data), user data for each or some streetlight registrations and any other relevant data.

In this embodiment, the first street lamp further includes a power supply module, which can be used to supply power to the light source and other components (eg, sensor, single lamp controller) of the first street lamp. Optionally, the power supply module of this embodiment can be coupled to a power grid, such as a 220VAC power line. In some embodiments, the power supply module may include one or more batteries for powering network routing devices built into the poles of street lights and/or other types of external devices associated with charging facilities. As another example, the power supply module may also be configured to generate electricity from using solar photovoltaic substrates.

Optionally, the power supply module of this embodiment can be divided into two channels: one AC/DC power level of 12V and the other DC/DC power level of 3.3V. Among them, the 12V output terminal can be used as the 3.3V input terminal, one end of the AC/DC input terminal is connected to the above-mentioned data acquisition module, the other end is connected to the neutral line N of the power grid, and the DC/DC output terminal is connected to the control circuit including the ASIC chip, giving the control circuit powered by.

Optionally, the control circuit of this embodiment further includes a switch relay control module, one end of the relay switch function pin is connected to the above-mentioned data acquisition module, the other end is connected to the neutral wire N of the grid, and the control terminal is connected to the ASIC chip. In some embodiments, the control circuit may also include a dimming module for modulating the brightness and/or color temperature, color and other factors of the light source. One end of the dimming module is coupled to the dimming control lead of the first street lamp, such as , one end of the dimming module is coupled to Dimming+/Dimming- of the single lamp controller, and the other end is coupled to the ASIC chip.

In addition, the above-mentioned control circuit of this embodiment is also coupled to a wireless communication module, which is operable to initiate a wireless communication request, connect to the communication network established by the network routing device, and/or report to one or more local servers in the communication network Or data exchange equipment to transmit communication data. For example, the communication circuit may support one or more of Wi-Fi (eg, 802.11 protocol), high frequency transceiver, infrared IR, GSM, GSM+EDGE, Lo-Ra or any other communication protocol and/or any of them combination. The wireless communication module communicates with the ASIC chip, and communicates and transmits dimming data through the UART interface.

In this embodiment, the server obtains the target adjustment parameters of the single-lamp controller of the first street lamp, connects the first street lamp to the server, and adjusts the abnormal detection state of the first street lamp to a normal detection state through the target adjustment parameters. That is to say, when the single-lamp controller is in the abnormal detection state (disturbed or faulty state), the parameters used to adjust the single-lamp controller in the abnormal detection state are determined according to the state of the surrounding environment, so that it is different from the normal single-lamp controller. The state of the lamp controller is consistent, which solves the technical problem of low lighting efficiency caused by the lack of adaptive judgment of the environmental state of the street lamp control system, and achieves the technical effect of the street lamp control system adaptively judging the environmental state and improving the lighting efficiency.

Example 2

The invention provides a control method of a street lamp control system. It should be noted that the control method of the street lamp control system in this embodiment can be executed by the control system of the street lamp control system in the embodiment of the present invention.

Fig. 2 is a flowchart of a control method of a street lamp control system according to an embodiment of the present invention. As shown in Figure 2, the method may include the following steps:

Step S202, acquiring the first detection state of the single lamp controller of the first street lamp.

In the technical solution provided by the above step S202 of the present invention, the first street lamp is provided with a single lamp controller, which is coupled to the light source of the first street lamp, can be used to detect the illuminance value of the light source, and can have self-adaptive adjustment Function. The first detection state is the current state of the single lamp controller when it is detecting, which is related to its local environment. The detection state of the light controller being blocked by an obstruction, the detection state of frequent changes in the illuminance value caused by the continuous illumination of the high beam of the vehicle at night, or the fault state, for example, the illuminance value of the illuminance sensor is seriously distorted, etc., which are not mentioned here Do not make any restrictions.

In this embodiment, when the single-lamp controller of the first street lamp is interfered by an external interference source, the illuminance value of the light source detected by the single-lamp controller will also change greatly, because the single-lamp controller has an adaptive adjustment function , the first detection state of the single-lamp controller will also change, and the local server can obtain the current illuminance value reported by the single-lamp controller through wireless communication, the changed lamp status, and the information of the single-lamp controller. Among them, the wireless The communication can be one or more of Wi-Fi (for example, 802.11 protocol), high frequency transceiver, infrared IR, GSM, GSM+EDGE, Lo-Ra or any other wireless communication protocol, or any combination thereof.

Optionally, the local server in this embodiment may obtain and store the first detection state through the data collection module, and the first detection state may include the illuminance value of the light source to be controlled by the single lamp controller of the first street lamp and the illuminance value of each light source. Operating status.

It should be noted that the number of the first street lamp in this embodiment may be one or multiple, which is not limited here.

Step S204, when the first detection state does not match the target environment state of the target area where the first street lamp is located, determine that the first detection state is an abnormal detection state, and determine the single-lamp control of the first street lamp based on the target environment state target tuning parameters of the sensor.

In the technical solution provided by the above step S204 of the present invention, after the local server acquires the first detection state of the single lamp controller of the first street lamp, it judges whether the first detection state is related to the target environment state of the target area where the first street lamp is located. Matching, if it is determined that the first detection state does not match the target environment state, then determine that the first detection state is an abnormal detection state, and determine the target adjustment parameter of the single lamp controller of the first street lamp based on the target environment state.

In this embodiment, the local server can divide the single lamp controllers of multiple street lamps into an area according to the preset logic through the geographic location information, for example, by geographic electronic fence, signal range that can be covered by wireless/wired network, wiring The terminal nodes of multiple street lamps can be used to determine the area where the single lamp controllers of multiple street lamps are located, so that a single lamp control system network can be formed. Among them, multiple street lamps and their light sources can be installed in different areas, and multiple street lamps can be installed according to the preset It can be installed in a fixed way, and sometimes it can be arranged continuously. For example, multiple street lights are installed equidistantly according to the road guidance method set by the electronic geo-fence. Optionally, the single-lamp controller of the street lamp in this embodiment obtains the location of the area where the single-lamp controller of the street lamp is located through device coding.

The first street lamp in this embodiment is in the target area set according to the above method, and the target environment state of the target area is the overall state of the natural environment of the target area, which may include the illuminance of the natural environment, and can be detected by the surrounding state. Determine the illuminance value of the single lamp controller. Judging whether the first detection state matches the target environment state of the target area where the first street lamp is located refers to whether the environment state corresponding to the first detection state matches the target environment state, for example, the single lamp control of the first street lamp If the sensor is blocked by an occluder, the local ambient light where it is located is weak, and the target environment state of the target area is daytime, with sufficient light, then the environment state corresponding to the first detection state does not match the target environment state, then the first detection state Does not match target environment state.

In the case that the first detection state does not match the target environment state, it is determined that the first detection state is an abnormal detection state, and the abnormal detection state may be a disturbed state or a faulty state of the photosensitive element of the single lamp controller of the first street lamp, wherein , the photosensitive element is used to sense the light intensity value.

In order to avoid the discrepancy between the detection result of the single lamp controller and the actual environmental state of the target area, causing the single lamp controller to be in an abnormal control state such as turning on the light or the brightness percentage does not match or turning off the light, this embodiment determines the first one based on the target environment state. The target adjustment parameter of the single-lamp controller of a road light, the target adjustment parameter can be a dimming parameter used to determine the dimming compensation logic of the single-lamp controller, which can make the control state of the single-lamp controller and the actual target environment state is matched.

Step S206, sending a target adjustment parameter to the single-lamp controller of the first street lamp, wherein the target adjustment parameter is used to adjust the single-lamp controller of the first street lamp, so as to adjust the first detection state from an abnormal detection state to a normal detection state state.

In the technical solution provided in step S206 of the present invention, after the local server determines the target adjustment parameter of the single-lamp controller of the first street lamp based on the target environment state, the target adjustment parameter can be sent to the single-lamp controller of the first street lamp.

In this embodiment, the local server sends the target adjustment parameter to the single lamp controller of the first street lamp through wireless communication, and may send a compensation control instruction carrying the target adjustment parameter. After the single-lamp controller of the first street lamp obtains the target adjustment parameter, the single-lamp controller can adjust based on the target adjustment parameter, and can adjust its electrical state to be the same as that of the surrounding single-lamp controller lamps in the normal detection state. The electrical state is consistent, wherein the normal detection state is the undisturbed state or normal working state of the photosensitive element of the single lamp controller of the first street lamp, so as to avoid the energy waste caused by the lamp being too bright due to interference or failure of the street lamp, or The road lighting environment caused by too dark lights cannot meet the expected goals, and the single-light controller can be repaired in time when it is disturbed or faulty, thereby improving the lighting efficiency of street lights.

In this embodiment, when the detection state of the single lamp controller of the first street lamp changes, for example, when the detected illuminance value changes, the local server sends a status command for controlling the single lamp controller, so that The detection state of the single-lamp controller is always consistent with the operating states of the single-lamp controllers of other surrounding street lamps. When the detection status of the single-lamp controller changes again, the single-lamp controller can report the current detection status to the local server, and the local server can calculate the corresponding illuminance value through the detection status of the single-lamp controller. The detection state of the single lamp controller of other surrounding street lamps calculates the corresponding illuminance value, and compares the two illuminance values to determine the target adjustment parameter for compensation output.

As an optional implementation manner, before step S204, before determining that the first detection state is an abnormal detection state, the method further includes: acquiring a first environment state corresponding to the first detection state; Where the difference between the states is greater than the target threshold, it is determined that the first detected state does not match the target environment state.

In this embodiment, after obtaining the first detection state of the single lamp controller of the first street lamp, the first environmental state corresponding to the first detection state can be obtained, for example, the first detection state is the single lamp of the first street lamp If the controller is blocked by an occluder, the illuminance value detected by it is the first illuminance value, and the illuminance value in the target environment state is the target illuminance value, and the difference between the above-mentioned first illuminance value and the second illuminance value can be obtained Value, judge whether the difference is greater than the target threshold, the target threshold is used to determine whether the first detection state and the target environment state match the critical threshold, if the difference between the first environment state and the target environment state is greater than the target threshold, it can be determined that the first detected state does not match the target environment state.

As an optional implementation manner, the method further includes: acquiring second detection states of single-lamp controllers of multiple second street lamps to obtain multiple second detection states, wherein the multiple second street lamps are in the target area , the plurality of second detection states are the same detection state and different from the first detection state; the first target environment state of the target area is determined through the plurality of second detection states, wherein the target environment state includes the first target environment state.

In this embodiment, before determining whether the first detection state is an abnormality detection state, it is necessary to determine the target environment state. In this embodiment, the target environment state can be determined by detecting states of the single lamp controllers of multiple second street lamps in the same target area as the first street lamp. The plurality of second street lamps and the first street lamps in this embodiment can be installed in the target area in a preset and fixed manner, or sometimes can be installed in a continuous arrangement, for example, the first street lamp and a plurality of second street lamps It is equidistantly installed according to the road guidance mode set by an electronic geo-fence, and the structure and function of multiple second street lights can be the same as that of the first street lights.

Acquiring the second detection state of the single lamp controller of each second street lamp to obtain multiple second detection states, the multiple second detection states may be the same detection state, for example, indicated by the multiple second detection states Optionally, as long as the difference between the illuminance indicated by multiple second detection states is within a certain threshold range, multiple second detection states can be considered to be the same, if the single The first detection state of the lamp controller is different from the second detection state of the single lamp controller of the plurality of second street lamps, then the first target environment state of the target area is determined through the plurality of second detection states, that is, if the first The first detection state of the single-lamp controller of the street lamp is different from the second detection state of the single-lamp controllers of most other surrounding street lamps, which means that the detection state of the single-lamp controller of the first street lamp is an abnormal detection state, which can be The first target environment state of the target area is determined through multiple second detection states, for example, the same illuminance value indicated by the multiple second detection states is determined as the illuminance value of the current target area. In this embodiment, the target adjustment parameter determined based on the first target environment state may be a first dimming parameter for adjusting the single-lamp controller of the first street lamp.

As an optional implementation manner, the method further includes: acquiring a second target environment state of the target area detected by the first street lamp, wherein the target environment state includes the second target environment state.

In this embodiment, the first street lamp can also be used to detect the environmental state of the target area, and the second target environmental state can be detected by the sensing module arranged on the first street lamp. In this embodiment, the target adjustment parameter determined based on the second target environment state may be the second dimming parameter used to adjust the single-lamp controller of the first street lamp, and the second dimming parameter may be combined with the above-mentioned first adjustment parameter. Determine the logic for adjusting the single light controller for the first street light.

Optionally, the first street lamp in this embodiment can determine the second target environment state of the target area through a water immersion sensor, an acoustic port, a weather sensor, a pressure sensing element, and the like.

The method for determining the target adjustment parameter in the target environment state of this embodiment will be introduced below.

As an optional implementation, in step S204, determining the target adjustment parameters of the single lamp controller of the first street lamp based on the target environment state includes: obtaining the first light intensity value corresponding to the first detection state; The difference between the target illuminance values corresponding to the environment state determines the target adjustment parameter.

In this embodiment, the first illuminance value corresponding to the first detection state can be obtained, and the first illuminance value can be the detected illuminance value of the surrounding local environment when the single lamp controller of the first street lamp is blocked or malfunctions. . Obtain the difference between the first illuminance value and the target illuminance value corresponding to the target environment state, determine the difference as the target adjustment parameter, and then use the target adjustment parameter to adjust the electrical state of the single lamp controller of the first street lamp to It is consistent with the electrical status of other surrounding single lamp controllers under normal detection status.

As an optional implementation manner, acquiring the first detection status of the single-lamp controller of the first street lamp includes: querying the first detection status of the single-lamp controller of the first street lamp through registration information of the first street lamp.

In this embodiment, the location of the target area where the single-lamp controller is located can be obtained through the equipment code of the single-lamp controller of the first street lamp, and then the single-lamp controller and the The illuminance value and the operating status of the light source detected by other one or more single lamp controllers around it.

Optionally, in this embodiment, after the first street lamp is powered on, the single-lamp controller of the first street lamp can feedback the running status after several debugging commands issued by the local server, and transmit the single-lamp controller for the first street lamp. The characteristic parameter of the light source controlled by the controller, the characteristic parameter may include power, dimming range and other sensor parameters, wherein the dimming range may be color temperature, color, etc.

In this embodiment, the registration information of the first street lamp is generated on the local server, and a data list may be generated in the storage device. Possible characteristic parameters, among which, for some light sources of street lamps, some of the characteristic parameters can be null. In this way, when some dimmable light sources need to be replaced, some newly added characteristic parameters can be filled in correspondingly. For example, if there are still unregistered single lamp controllers of other street lamps in the target area, the data acquisition module can be It is configured to establish communication with the single lamp controller to obtain its specific parameters, and create a registration list for the single lamp control through the local server.

Optionally, the single lamp controller of the first street lamp in this embodiment may send a registration request to the data collection module. The registration request includes the geographic location information of the single-light controller and the device code corresponding to the single-light controller and/or the network address that needs to be obtained, and then, the data acquisition module further uploads the registration request to a or multiple local servers to form a registration list for the first street light.

As an optional implementation manner, after determining that the first detection state is the abnormality detection state, the method further includes: sending a first target instruction, wherein the first target instruction is used to prohibit the illumination sensor of the first street lamp from The detection state of the street light is adjusted.

In this embodiment, after determining that the first detection state is an abnormal detection state, the first target instruction is sent to the first street lamp, and the first target instruction can carry the actual state of the first street lamp, and turn off the single lamp of the first street lamp The self-adaptive function of the controller prohibits the illuminance sensor of the first street lamp from adjusting the detection state of the first street lamp, that is, closes the function of the single lamp controller to adjust the lamp state through the change of the illuminance sensor, so that the single lamp control The light state of the controller is consistent with the light state of the single light controller of other street lights around.

As an optional implementation manner, the method further includes: adding a first identification to the first street lamp, wherein the first identification is used to indicate that the single-lamp controller of the first street lamp is in an abnormal detection state.

In this embodiment, after determining that the first detection state is the abnormal detection state, the local server may temporarily add a first mark to the first street lamp, indicating that the single lamp controller of the first street lamp is in the abnormal detection state, for example, the A single lamp controller is temporarily flagged as a disturbed or faulty state.

As an optional implementation manner, after step S206, after sending the target adjustment parameter to the single lamp controller of the first street lamp, the method further includes: after detecting that the first detection state is adjusted from the abnormal detection state to the normal detection state, In this case, a second target instruction is sent, wherein the second target instruction is used to allow the illuminance sensor of the first street lamp to adjust the detection state of the first street lamp.

In this embodiment, after the target adjustment parameter is sent to the single-lamp controller of the first street lamp, the single-lamp controller of the first street lamp is adjusted based on the target adjustment parameter. When it is adjusted to a normal detection state, for example, the illuminance value detected by the single lamp controller of the first street lamp returns to normal, then a second target command is sent to the first street lamp, and the second target command is used to allow the first street lamp The illuminance sensor of the illuminance sensor adjusts the detection state of the first street lamp, that is, the second target instruction is an instruction for instructing the single-lamp controller to turn on the self-adaptive adjustment function, so that the single-lamp controller resumes passing through its own illuminance sensor ( Photosensitive element) to detect changes in the illuminance value and automatically change.

As an optional implementation manner, a second identifier is added to the first street lamp, wherein the second identifier is used to indicate that the single lamp controller of the first street lamp is in a normal detection state.

In this embodiment, when the first detection state is adjusted from the abnormal detection state to the normal detection state, the local server adds a second identification to the first street lamp, and adding the second identification may include adding an identification different from the first identification, Removing the first identifier may also include removing the first identifier, for example, removing a flag temporarily marking the single lamp controller as being in a disturbed state or a fault state.

As an optional implementation manner, in step S204, when it is determined that the first detection state is an abnormality detection state, the method further includes: sending out prompt information, wherein the prompt information is used to indicate that the first detection state is an abnormality detection state.

In this embodiment, when it is determined that the first detection state is an abnormal detection state, a prompt message may also be issued. If the first detection state of the single-lamp controller of the first street lamp returns to the normal detection state from the abnormal detection state, and the abnormal detection state appears again soon, that is, when it frequently jumps back and forth between the normal detection state and the abnormal detection state, Then the local server sends a prompt message, which can be used to prompt the management personnel that the abnormal detection status of the single lamp controller frequently occurs, and also can prompt the reason and suggestion for the abnormal detection status. For example, it may be that the illuminance sensor is frequently detected by the headlight Due to exposure, it is recommended that maintenance personnel replace the installation position of the light sensor.

Optionally, in this embodiment, if the single lamp controller of the first street lamp is in the normal detection state at night and in the abnormal detection state during the day, the local server sends a prompt message, which can prompt the reason and suggestion for the abnormal detection state, For example, it is used to remind the management personnel that the single-light controller is blocked by an obstruction, and it is recommended that the maintenance personnel eliminate the source of interference.

Optionally, if the single-lamp controller of the first street lamp is in the abnormal detection state for more than one day, the local server can send a prompt message, which can be used to remind the management personnel that the illuminance sensor of the single-lamp controller of the first street lamp is faulty, and maintenance is recommended A person replaces the light sensor.

It should be noted that the above-mentioned first street lamp in this embodiment may be any street lamp in the street lamp control system, and the number thereof may be one or multiple, without any limitation here.

The embodiment of the present invention also provides another control method of the street lamp control system. The control method of the street lamp control system of this embodiment will be described below from the street lamp side.

Fig. 3 is a flowchart of another control method of a street lamp control system according to an embodiment of the present invention. As shown in Figure 3, the method may include the following steps:

Step S302, acquiring the first detection status of the single lamp controller of the first street lamp.

In the technical solution provided by the above-mentioned step S302 of the present invention, the first detection state is the current state of the single-lamp controller when performing detection, which is related to the local environment in which it is located. It can be whether the single-lamp controller is detecting It is in the state of being interfered by external interference sources, such as the detection state of a single lamp controller being blocked by an obstruction, the detection state of frequent changes in illuminance value caused by the continuous illumination of the high beam of a vehicle at night, or a fault state, such as illuminance There are no restrictions on the serious distortion of the illuminance value of the sensor.

In this embodiment, when the single-lamp controller of the first street lamp is interfered by an external interference source, the illuminance value of the light source detected by the single-lamp controller will also change greatly, because the single-lamp controller has an adaptive adjustment function , the first detection state of the single lamp controller will also change.

After the first street lamp acquires the first detection state of the single-lamp controller, the first detection state can be sent to the local server through the data acquisition module, and the first detection state can include the control required by the single-lamp controller of the first street lamp The illuminance value of the light source and the operating status of each light source.

Step S304, if the first detection state does not match the target environment state of the target area where the first street lamp is located, determine that the first detection state is an abnormal detection state, and obtain the target adjustment of the single lamp controller of the first street lamp parameter.

In the technical solution provided by the above-mentioned step S304 of the present invention, the local server can judge whether the first detection state matches the target environment state of the target area where the first street lamp is located, if it is judged that the first detection state does not match the target environment state , then the first streetlight can obtain the indication information sent by the server to indicate that the first detection state does not match the target environment state, and then the first streetlight further determines that the first detection state is an abnormal detection state, and the abnormal detection state can be the second When the illuminance sensor of the single-lamp controller of a street light is disturbed or faulty, the target adjustment parameter of the single-lamp controller of the first street lamp can be determined based on the target environment state.

In this embodiment, the first street lamp is in the target area, whether the first detection state matches the target environment state of the target area where the first street lamp is located refers to whether the environment state corresponding to the first detection state matches the target environment state . If the first detection state does not match the target environment state, it is determined that the first detection state is an abnormal detection state, and the abnormal detection state may be a disturbed state or a failure state of the photosensitive element of the single lamp controller of the first street lamp.

In order to avoid the discrepancy between the detection result of the single-lamp controller and the actual environmental state of the target area, causing the single-lamp controller to be in an abnormal control state such as turning on the light or the brightness percentage does not match or turning off the light, the first street light in this embodiment can obtain The server determines the target adjustment parameter of the single lamp controller of the first street lamp based on the target environment state, and the target adjustment parameter may be a dimming parameter used to determine the dimming compensation logic of the single lamp controller, so that The state matches the actual target environment state.

Step S306, adjusting the single-lamp controller according to the target adjustment parameter, so as to adjust the first detection state from the abnormal detection state to the normal detection state.

In the technical solution provided in step S306 of the present invention, after acquiring the target adjustment parameters of the single-lamp controller of the first street lamp, the first street lamp adjusts the single-lamp controller through the target adjustment parameters, so as to change the first detection state from The abnormal detection state is adjusted to the normal detection state.

In this embodiment, the first street lamp may obtain the target adjustment parameter sent by the local server through wireless communication, and may obtain the compensation control instruction carrying the target adjustment parameter sent by the local server. After the single-lamp controller of the first street lamp obtains the target adjustment parameter, the single-lamp controller can adjust based on the target adjustment parameter, and can adjust its electrical state to be the same as that of the surrounding single-lamp controller lamps in the normal detection state. The electrical status is consistent, wherein the normal detection status is the undisturbed or normal working status of the illuminance sensor of the single lamp controller of the first street lamp, so as to avoid the energy waste caused by the lamp being too bright due to interference or failure of the street lamp, or The road lighting environment caused by too dark lights cannot meet the expected goals, and the single-light controller can be repaired in time when it is disturbed or faulty, thereby improving the lighting efficiency of street lights.

As an optional implementation manner, the method further includes: detecting the environment of the target area to obtain a second target environment state of the target area, wherein the target environment state includes the second target environment state.

In this embodiment, the first street lamp can also be used to detect the environmental state of the target area, and the second target environmental state can be detected by the sensing module arranged on the first street lamp. In this embodiment, the target adjustment parameter determined based on the second target environment state may be the second dimming parameter used to adjust the single-lamp controller of the first street lamp, and the second dimming parameter may be combined with the above-mentioned first adjustment parameter. Determine the logic for adjusting the single light controller for the first street light.

In this embodiment, the acoustic port of the first street lamp is configured to allow the sound from the surrounding environment of the housing to be transmitted to the acoustic sensor in the housing for sound pickup, and there may be components for outputting sound waves to the surrounding environment and receiving sound waves, This allows sound waves (including ultrasonic waves) to output through the acoustic port and be reflected back to the acoustic port by obstacles, thereby achieving the purpose of detecting obstacles.

In this embodiment, the change of the sensing parameter due to the change of the meteorological environment may be corrected by other forms of data. An optional ultrasonic sensing element is available for the acoustic port to detect obstacles that may appear near the location of the photosensitive element. In addition to the above-mentioned types of sensors, the target adjustment parameters can also be determined by the second target environmental state determined by other types of sensors, wherein other types of sensors can be temperature and humidity sensing elements, water immersion sensing elements, optical sensing elements, etc. Components (such as cameras) and pressure sensors, etc., for example, when using a camera to monitor images of the area near the first streetlight in real time, can trigger whether to enable the light source of the first streetlight through the brightness of the field of view to improve the shooting effect.

Optionally, in this embodiment, the positioning data may reflect the coordinates of the geographical area where the target area is located, so as to obtain meteorological data of the geographical area from a local or remote server, thereby determining the second target environment state. Wherein, the target adjustment parameter determined based on the second target environment state can be used to precisely control the light source. Optionally, this embodiment may also perform data synchronization with multiple single lamp controllers in other areas through the target adjustment parameters generated based on the second target environment state of the target area.

Optionally, the substrate in this embodiment may include a surface structure for harvesting light energy so that a variable capacitor is formed in the surface structure, and the above-mentioned active structure may be changed by adjusting the target parameters determined based on the second target environmental state s position. Optionally, in response to the air flow and/or pressure input, for example, the air pressure change sensed by the pressure sensing element when the ambient air flow flows into the hollow structure of the first street lamp, or the air flow change trigger is proportional to the air flow input The change in current can then be used to control the circuit to sense environmental conditions such as ambient wind. Optionally, this sensing can also be realized based on the pressure difference or temperature change generated by the collision of cold and hot air. The parameters sensed by the sensing element are used as logic conditions for suppressing the triggering of the photosensitive element not outputting photocurrent due to occlusion and turning on the light source.

Optionally, the photosensitive element of this embodiment may be further configured to respond to and recognize a lower magnitude of change and/or a higher magnitude of change associated with a change in ambient light in the target area. For example, the photosensitive element may be responsive to changes in illuminance greater than, say, 200 up to 700 or more lux, or the photosensitive element may respond to changes outside the range of illuminance at night to measure. Wherein, the photosensitive element of the first street lamp can be different from the photosensitive element of other second street lamps, and the photosensitivity of the photosensitive element blocked by the obstacle is higher than that of the photosensitive element not blocked by the obstacle. Illumination levels on sensors shaded by trees are stronger than on sensors directly exposed to sunlight, so sensors shaded by trees for a long period of time have higher photosensitivity, making them less sensitive to ambient light input (such as low illumination) Respond sensitively, but do not respond to light input of higher luminance, for example, do not respond to flickering changes in lighting fixtures. Here, the photosensitive elements of different street lamps can act in response to different predetermined illuminance changes. Therefore, the corresponding current/voltage signals output by different parts can be rectified and filtered by ASIC chips or processed in other circuits, so as to target different lighting conditions. The single lamp controller outputs or measures different illuminance level detection electrical signals.

Optionally, in this embodiment, under a local uniform lighting environment, the photosensitive element of the first street lamp can obtain the illuminance reference from the photosensitive elements of other street lamps, instead of obtaining the illuminance reference remotely through the local server. Optionally, the photosensitive element of this embodiment may include a piezoelectric trigger for detecting thermal energy radiation of ambient light. Due to the change of ambient light, the substrate of the photosensitive element needs to move mechanically, so as to detect or measure the heat energy collection efficiency of ambient light. Optionally, the photosensitive element of the first street lamp may move according to the orientation of the road vertical and horizontal network.

As an optional implementation manner, when the second detection state of the second street lamp is a normal detection state, the second detection state of the single lamp controller of the second street lamp is acquired, wherein the second street lamp is in the target area ; Determining the environmental state corresponding to the second detection state as the third target environmental state of the target area, wherein the target environmental state includes the third target environmental state.

In this embodiment, if the second street lamp is a street lamp in the target area and close to the first street lamp, and the second street lamp and the first street lamp can be in a local uniform lighting environment, then the single street lamp of the second street lamp can be The second detection state of the lamp controller is used as a reference, and the second detection state is determined as the third target environment state, for example, the illuminance value of the second street light is determined as the illuminance value corresponding to the target environment state, without the need to go through the local server obtained remotely.

In this embodiment, by acquiring the first detection state of the single lamp controller of the first street lamp; in the case that the first detection state does not match the target environment state of the target area where the first street lamp is located, the first detection state is determined The state is abnormal detection state, and determine the target adjustment parameter of the single lamp controller of the first street lamp based on the target environment state; send the target adjustment parameter to the single lamp controller of the first street lamp, wherein, the target adjustment parameter is used to adjust the The single lamp controller is adjusted to adjust the first detection state from an abnormal detection state to a normal detection state. That is to say, when the single-lamp controller is in the abnormal detection state (disturbed or faulty state), the parameters used to adjust the single-lamp controller in the abnormal detection state are determined according to the state of the surrounding environment, so that it is different from the normal single-lamp controller. The state of the lamp controller is consistent, which solves the technical problem of low lighting efficiency caused by the lack of adaptive judgment of the environmental state of the street lamp control system, and achieves the technical effect of the street lamp control system adaptively judging the environmental state and improving the lighting efficiency.

Example 3

The technical solutions of the embodiments of the present invention will be introduced below in combination with preferred embodiments.

Fig. 4 is a schematic diagram of installing multiple street lamps and their light sources in different areas according to an embodiment of the present invention. As shown in Figure 4, it includes: street lamp 100 and its light source 101, photosensitive element 102, photosensitive element 102, acoustic port 104, substrate 105; street lamp 200 and its light source 201, photosensitive element 202, acoustic port 204, substrate 205; street lamp 300 And its light source 301 , photosensitive element 302 , acoustic port 304 , substrate 305 . The street lamp 100, the street lamp 200, and the street lamp 200 are in an environment where the same light S is irradiated.

Fig. 5 is a schematic diagram of a corresponding relationship between a data collection module and various regions according to an embodiment of the present invention. As shown in FIG. 5 , it includes a first region RGN1 , a second region RGN2 and a third region RGN3 . Among them, the first region RGN1 includes single-lamp controllers SN1, SN2, and SN3, which are connected to the data acquisition module D1, and the second area RGN2 includes single-lamp controllers SN4, SN5, and SN6, which are connected to the data acquisition module 2. The region RGN3 includes SN7, which is connected to the data collection module D2, the data collection module D1 and the data collection module D2 are connected to the local server F1, and the local server F1 is connected to the remote server F2.

Fig. 6 is a schematic diagram of a street lamp according to an embodiment of the present invention. As shown in Figure 6, it includes: light source 101, photosensitive element 102, single lamp controller SN1, cover plate 107, extension section 1071 of the cover plate, acoustic port 104, camera 108, temperature and humidity sensing element 109, speaker 1041, lamp Rod 106, electrical box 110.

The photosensitive element 102 and the control circuit can be packaged in the inner cavity of the main frame housing or a suitable load-bearing space. The main frame housing may include a waterproof sealing structure on the top wall or top side wall of the street lamp, for installing the photosensitive element 102 and the control circuit around it. Sometimes in order to collect ambient light efficiently, the photosensitive element 102 can be arranged in the cover plate 107 or the extension section 1071 of the cover plate inclined at a predetermined angle relative to the top edge, or the structure can be fixed in the cover plate and/or the extension section 1071 formed by such a cover plate. Segment formed substrates to form sealed sensing module components.

The above-mentioned FIG. 4 , FIG. 5 , and FIG. 6 will be further introduced below in combination with the method of adaptive street lamp compensation control.

Fig. 7 is a flowchart of a method for adaptive street lamp compensation control according to an embodiment of the present invention. As shown in Figure 7, the method may include:

Step S701, installing a plurality of street lamps and their light sources in different areas, and a single lamp controller coupled with the light sources.

In this embodiment, a plurality of street lamps and their light sources are installed in different areas, as shown in FIG. 4 , and a single lamp controller coupled with the light sources.

In this embodiment, after the power supply module provides power to electronic circuits such as the light source and single lamp controller, the single lamp controller of each street lamp can send a registration request to the data acquisition module. In one example, the registration request includes the geographic location information of the single-lamp controller and the device code corresponding to the single-lamp controller and/or the network address that needs to be obtained, and then, the data acquisition module registers the The request is further uploaded to one or more local servers to form a registration list.

The local server can divide multiple such single-light controllers into such an area (such as determined by a geo-electric fence) according to a preset logic through geographic positioning information, so that a single-light control system network can be formed. Sometimes, the local server may be configured to use the device code indication of each single light controller as an identification of the geolocation information.

In step S702, the local server can obtain and store the illuminance value of the light source controlled by the above-mentioned single lamp controller and the operating status of each light source through several data acquisition modules.

In this embodiment, the device code of each single lamp controller is used to obtain the location of the area where the single lamp controller is located, and then through the registered location information, and then through this registration to query the single lamp controller and its The illuminance value and the operating status of the light source detected by one or more other single lamp controllers around. For example, after turning on the power of each street lamp, the single lamp controller can feedback the running status and transmit the characteristic parameters of the light source controlled by each single lamp controller after several debugging commands issued by the local server. Power, dimming range (such as color temperature, tint, etc.), and/or other sensor parameters may be included. Usually, when the above-mentioned registration is formed on the local server side, a data list can be formed in the storage device, which contains all possible characteristic parameter bits obtained through the registration, and for some street light sources, some Property parameter is null. In this way, when some dimmable light sources need to be replaced, some newly added characteristic parameters can be correspondingly filled. For example, there are still unregistered single-lamp controllers in some areas. In this case, the data acquisition module is configured to establish communication with the single-lamp controller to obtain its specific parameters, and create an account for the single-lamp controller through the local server. Controller's registry list.

After the above registration is completed, the data acquisition module is configured to calculate the actual illuminance value of the light source and the operating state of the light source in the area where the single lamp controller is located. When the illuminance value of the single lamp controller is seriously inconsistent with the actual illuminance value, the local server will send the actual lamp status and close the self-adaptive function to the single lamp controller, so that the lamp status of the single lamp controller is different from that of other single lamps around. The light status of the controller is consistent, and the function of adjusting the light state of the single light controller through the change of the illuminance sensor is turned off, and then the local server temporarily marks the single light controller as a disturbed or faulty state.

If the illuminance value detected by the single-lamp controller returns to normal, the local server will issue an adaptive adjustment function to enable the single-lamp controller to automatically change the illuminance value detected by its own photosensitive element, and move In addition to the operating state of the single lamp controller temporarily marked as disturbed or faulty.

In this embodiment, the storage device may include local and remote storage means, the local storage means may be, for example, a hard drive, flash memory, cache, ROM and/or RAM. Additionally, storage may be local and/or remote storage. For example, a storage device may include an integrated storage medium, a removable storage medium, and the like. The remote storage method may be an open storage space on other remote servers, cloud servers, wireless storage media or any combination thereof. Furthermore, the storage means may store weather data, such as eg systematically classified weather data, user data registered for each or some street lights and any other relevant data.

The data acquisition module of this embodiment may include a signal processor, such as a digital signal processor for real-time processing of digital signals converted from analog signals by the input/output circuits of the single lamp controller. The digital signal may also be converted back to an analog signal after processing of the digital signal is complete.

Fig. 8 is a flow chart of another method for adaptive street lamp compensation control according to an embodiment of the present invention. As shown in Figure 8, the method may include:

Step S801, collecting the running status of several street lamps located in the first area to identify the running status of a single lamp controller in which there is an electrical abnormality.

Figure 4 depicts the network topology for implementing this method in the form of a network of nodes. Areas can be defined by, for example, geofences, signal ranges covered by wireless/wired networks, or end nodes of wiring. In Fig. 5, there are several street lamps in the first region RGN1 and these street lamps are installed in a fixed (sometimes continuous) way. For example, it can be determined that these street lamps are guided by an electronic geofence. are installed equidistantly, however, interference sources appearing in these areas may appear randomly. The built-in single lamp controllers SN1, SN2, SN3, and SN4 of several street lamps can form an operating network through the data acquisition modules adjacent to each other. to the maximum extent). A plurality of data acquisition modules establish communication connections with a local server, so as to realize sending of collected data and receiving of data collection requests. Optionally, the data acquisition module is included in the local server. The local server is connected to the remote server and can be used to implement remote storage.

In this embodiment, when one or more single-lamp controllers SN1 are interfered by external sources, the illuminance value of the street light source detected by the single-lamp controller SN1 will change greatly, due to the self-adaptive Adjustment function, the operating state of the single-lamp controller will also change, and then the single-lamp controller will report the current illuminance value, changed lamp status, and SN number to the local server through wireless transmission.

Step S802, generating a first dimming parameter according to the operating status of one or more single-lamp controllers of street lamps adjacent to the single-lamp controller with electrical abnormality.

Step S803, combining the first dimming parameter with a second dimming parameter to determine dimming compensation logic.

In FIG. 4 , a street lamp 100 has a main frame housing for installing several light sources 101 and sensor modules. Among them, the sensing module includes a photosensitive element 102 for sensing light intensity and its control circuit (the photosensitive element 102 and the control circuit can be packaged in the inner cavity of the main body bracket shell or a suitable load-bearing space), and a sensor element with a combined function , such as water immersion sensors, acoustic sensors, etc. The photosensitive element 102 is a single sensing unit suitable for ambient light illumination sensing and scene atmosphere sensing, and an integrated circuit (such as a dedicated control circuit ASIC) is a single sensing unit suitable for processing and/or filtering the sensed photoelectric signal. chip or chipset. Sometimes, it is necessary to use multiple electrical functions (such as the combination of ambient light sensing and ultrasonic sensing) that can be performed and output by a single sensing element, and the sensing signal is processed by a single control circuit, thereby eliminating the need for a single sensing module to perform sensing. Instead of triggering the single lamp controller alone, a certain function of the single lamp controller is triggered by combining sensing. Sometimes, the street lamp 100 has a photosensitive element (such as a photovoltaic element) for photoelectric replacement to collect electric energy, so as to provide limited power supply to the light source 101 at night.

In addition, the main body bracket shell can also open an acoustic port 104 of suitable size from the top wall extending to the pole position of the street light main body bracket. In some embodiments, the acoustic port 104 can be configured to allow sound from the surrounding environment. Feeds to the acoustic transducer inside the housing for sound pickup. In other embodiments, the acoustic port 104 may be used as an output port (eg, as a speaker) to output sound from the acoustic port 104 to the road surface or the surrounding environment.

In FIG. 4 such an acoustic port 104 is shown simplified in the pole side housing of a street lamp. In other embodiments, the acoustic port 104 may also be mounted in the housing near the bottom side of the light pole. In another embodiment, the acoustic port 104 may have components for outputting sound waves to the surrounding environment and receiving sound waves, which allows sound waves (including ultrasonic waves) to be output through the acoustic port 104 and reflected back into the acoustic port 104 by, for example, obstacles The receiving component is used to determine and measure obstacles, and the photosensitive element 102 can be triggered by the result of the calculation.

In addition, a flood sensing element 103 may be mounted or otherwise integrally coupled to the underside of the street light body to allow ground water level sensing. For example, the water immersion sensing element 103 may be arranged at a predetermined height from the ground or coupled to the above sensing module. In some embodiments, the water immersion sensing element 103 may also include a sensing element arranged in a cavity at the bottom formed by the ground support member of the light pole and an integrated circuit arranged at the top edge of the main body bracket. Here, a hollow structure may be formed in the light pole, wherein the acoustic port 104 and other forms of sensors similar to sensing elements for water level sensing may share the hollow structure, and the top and/or sides of the light pole may be Additional sensing modules are arranged to take full advantage of this hollow structure. Sometimes, in order to facilitate maintenance and replacement of these sensors, the sensing module and its control circuit are usually installed in the electrical box 110 near the ground part of the main support of the street lamp.

In other embodiments, the hollow structure can be divided into a first chamber for installing a control circuit and a second chamber for arranging other sensing modules with less demanding protection requirements. For example, the first chamber can be used as a chamber with reference pressure, temperature and humidity, etc. In some embodiments, it is basically highly sealed (or has only small leaks or vents) relative to the surrounding environment. ). The second chamber may act as a chamber open to the surrounding environment via, eg, the acoustic port 104, the water immersion sensing element 103, and in some embodiments may be electrically isolated or sealed relative to the first chamber.

Optionally, the substrate 105 with the photosensitive element 102 can be used to detect whether to transmit the sensing signal to the control circuit based on the change of ambient light intensity. Sometimes the base plate can be arranged in a movable structure relative to the top of the body support for the purpose of harvesting power. For example, the upper or lower position of the movable structure is electromechanically connected to the main frame through the supporting and rotating members. For example, in the application scenario shown in FIG. 4 , the substrate 205 of the street lamp 200 faces the irradiation angle of sunlight as much as possible, but in FIG. 4 , the offset angles of the substrate 105 of each street lamp are different from each other. In this way, when used as a photoelectric replacement function, the light energy collection efficiency of the photosensitive element 102 is improved.

Changes in sensing parameters, such as changes in the weather environment, can be corrected by other forms of data. The acoustic port 104 sometimes uses an ultrasonic sensing element to detect obstacles that may appear near the position of the photosensitive element 102 to effectively detect obstacles. Sometimes, the acoustic port 104 also includes a speaker 1041 with a display interface arranged on the side wall of the light pole 106 or a microphone device for collecting ambient sound field. In addition, ultrasonic sensing elements can also be used for signal acquisition of meteorological sensors. In addition to these sensing elements, the second dimming parameter can also be sensed by other types of sensors (such as the temperature and humidity sensing element 109 shown in FIG. test judgment. For example, when the camera 108 is used to monitor the images of the vicinity of the street lamp 100 in real time, whether to activate the light source 101 can be triggered by the brightness of the field of view to improve the shooting effect.

In this embodiment, the street lamp 100 also has a positioning module, and the positioning module is used to transmit the positioning data to the single lamp controller, so as to transmit to the data acquisition module corresponding to the region RGN1 including the street lamp 100 shown in FIG. The coordinates of the geographical area where the region RGN1 is located, so as to obtain the meteorological data of the geographical area from the local or remote server. The second dimming parameter represented by the meteorological data acts on precise control of the light source 101 . In another embodiment, there may also be a second region RGN2 formed through the above registration operation, and the local server is configured to send the second dimming parameters generated from the first region RGN1 to multiple Single light controller for data synchronization.

The substrate 105 may include a surface structure for absorbing light energy such that a variable capacitance is formed in the surface structure. In some implementations, the position of the above-mentioned active structure can be changed by a second dimming parameter. In other embodiments, in response to an input of air flow and/or pressure (such as a change in air pressure sensed by a pressure sensing element when ambient air flows into the hollow structure) or a change in air flow triggers an air flow proportional to the air flow input. The change in current can then be used in a control circuit to sense, for example, ambient wind. Sometimes this sensing is also based on pressure differentials or temperature changes created by the collision of hot and cold air. For example, in some implementations, there may be tree branches or obstacles that block the photosensitive element 102 due to strong wind force, and the parameters sensed by the pressure sensing element can be used to suppress the triggering of the photosensitive element 102 due to the occlusion. A logic condition for turning on the light source 101 by outputting a photocurrent.

In the above-listed embodiments, the street lamp 100 may also include a control circuit for processing the photocurrent signal output by the photosensitive element 102 or a plurality of voltage signals of different levels, such as a dedicated control circuit (ASIC) fixedly installed in the housing. chip. An ASIC chip may be mounted to the bottom side 108 of the housing 102 and electrically connected to the photosensitive element 102 by wires. As previously mentioned, the ASIC chip can be used to signal condition and/or process the ambient light signal and the pressure-induced signal output by the photosensitive element 102 for sensing whether the electrical signal output by the single lamp controller of the street lamp 100 should be normally triggered. action command.

In another embodiment, the photosensitive element 102 for sensing ambient light may be further configured to respond to and recognize a lower magnitude of change and/or a higher magnitude of change associated with a change in ambient light. For example, the photosensitive element 102 may be responsive to changes in illuminance greater than, say, 200 up to 700 or more lux, or may measure changes outside of the range of illuminance to which the photosensitive element 102 responds at night. Photosensitive element 102 may be considered to be less sensitive than photosensitive element 202 . For example, the illuminance level of ambient light irradiated on the photosensitive element 202 that has been shaded by trees for a long time is stronger than that of the photosensitive element 102 directly exposed to sunlight, so the photosensitive element 202 has higher photosensitivity, and makes it sensitive to ambient light input. (such as low illumination) to respond sensitively, but does not respond to light input with higher illumination (such as light flickering changes). Here, the photosensitive element 102 and the photosensitive element 202 act in response to different predetermined illuminance changes. Therefore, the corresponding current/voltage signals output by different parts can be rectified and filtered by the ASIC chip or processed in other circuit ways, so as to output or measure different illuminance level detection electrical signals for different single lamp controllers.

In an exemplary embodiment, the photosensitive element 102 outputs a sensing signal to an ASIC chip via a power wire or a suitable power bus, and the photosensitive element 202 outputs a sensing signal to another ASIC chip via another power wire. Each of these sensed signals can then be filtered by the ASIC chip to provide a measured output of ambient light within a given time. Furthermore, in other embodiments, sensing signals corresponding to the entire illuminance range may be output to the ASIC chip on a regular basis (such as daily), and the ASIC chip may process these sensing signals to determine ambient light (such as a low-light environment) and Simultaneous acoustic signal pickup (eg ultrasonic feedback signal).

In addition, in a local uniform lighting environment, the photosensitive element 202 can obtain the illuminance reference from the photosensitive element 102 instead of obtaining it remotely through a local server. In some embodiments, the photosensitive element 202 may include a piezoelectric trigger as previously described for detecting thermal energy radiation from ambient light. In addition, in some embodiments, the substrate of the photosensitive element 202 needs to move mechanically due to the change of ambient light, so as to detect or measure the thermal energy collection efficiency of ambient light. Typically, the photosensitive element 204 for ambient light detection can move according to the orientation of the road cross network.

In some embodiments, the street lamp 100 also has a power supply module, which can be used to supply power to the light source 101 and other components of the street lamp 100 (such as the above-mentioned sensing element and single lamp controller). In some embodiments, the power supply module may be coupled to a power grid, such as a 220VAC power line. In some embodiments, the power supply module may include one or more batteries for powering network routing devices built into the poles of street lights and/or other types of external devices associated with charging facilities. As another example, the power supply module may also be configured to generate electricity from using solar photovoltaic substrates.

Fig. 9 is a schematic diagram of a street lamp control circuit according to an embodiment of the present invention. As shown in Figure 9, the 12V power level of one AC/DC and the 3.3V power level of the other DC/DC. Among them, the data acquisition module is connected with the single-chip control module, the single-chip control module is connected with the light collection module and the wireless communication module, and the wireless communication module is used to send out wireless signals, which are transmitted to the network cloud through the base station, and then communicate with the terminal management platform to communicate. Wherein, the single-chip microcomputer control module is also connected with the data acquisition module through the switch relay control module, and connected with the LED street lamp through the dimming module. Among them, the 12V output terminal can be used as the 3.3V input terminal, one end of the AC/DC input terminal is connected to the data acquisition module, the other end is connected to the grid neutral line N, and the DC/DC output terminal is connected to the control circuit including the ASIC chip, giving the control circuit powered by.

Fig. 10 is a schematic diagram of another control circuit according to an embodiment of the present invention. As shown in Figure 10, the power supply module of the single lamp controller of the street lamp of this embodiment supplies power to the ASIC chip through the L1 (LIN) of the data acquisition module, the L0 (LOUT) pin, the ASIC chip works, and the ASIC chip reads through the UART1 pin The data collected by the data acquisition module; the ASIC chip collects the current illuminance value through the ADC sampling pin, adjusts the illuminance of the light source 101 according to the illuminance value, and sends the data such as the illuminance value and operating status of the light source to the wireless communication module through the UART2 pin. These data are transmitted wirelessly to a local server. For example, the local server can display the status data of each single lamp controller on the operation interface.

Optionally, one end of the relay switch function pin of the switch relay control module can be connected to the data acquisition module, the other end is connected to the grid neutral line N, and the control end is connected to the ASIC chip. In some embodiments, the control circuit also includes a dimming module for modulating the brightness and/or color temperature, color and other factors of the light source 101, one end of the dimming module is coupled to the dimming control lead of the street lamp 100, such as a single Dimming+/Dimming- of the light controller SN1 is coupled to the ASIC chip.

In addition, the control circuit is also coupled to a wireless communication module operable to initiate a wireless communication request, to connect to a communication network established by the network routing device, and/or to one or more local servers or data exchange devices within the communication network Transfer communication data. For example, the communication circuit may support one or more of Wi-Fi (eg, 802.11 protocol), high frequency transceiver, infrared IR, GSM, GSM+EDGE, Lo-Ra or any other communication protocol and/or any of them combination. The wireless communication module of this embodiment can communicate with the ASIC chip, and communicate and transmit dimming data through the UART interface.

Step S804, sending compensation control instructions to several street lamps located in the first area according to the dimming compensation logic.

This embodiment can adjust the light source state of the disturbed or faulty single lamp controller to be the same as that of the surrounding normal operating state of the single lamp controller lamp by calculating the actual ambient light illuminance value around the disturbed or faulty single lamp controller. The state is consistent.

Further, the interference source of the disturbed or faulty single lamp controller is calculated and analyzed through the methods listed in the above embodiments, so that maintenance personnel can provide maintenance services in time.

When the illuminance value detected by other single-lamp controllers adjacent to the single-lamp controller and the state of the street lamp change, the local server sends a status command for controlling the single-lamp controller to make the status of the single-lamp controller Always maintain the same operating status as other single lamp controllers around. When the illuminance value detected by the single-lamp controller changes again, the single-lamp controller reports the current illuminance value to the local server, and the local server calculates the actual normal status based on the operating status of other single-lamp controllers around the single-lamp controller. illuminance value, and compare the two illuminance values to determine the compensation output.

If the illuminance value detected by the single-lamp controller returns to normal, the local server will issue an adaptive adjustment function to enable the single-lamp controller to automatically change the illuminance value detected by its own photosensitive element, and move In addition to the operating state of the single lamp controller temporarily marked as disturbed or faulty.

In other embodiments, if the illuminance value detected by the single-lamp controller returns to normal, and is disturbed or malfunctioned again soon, that is, frequently jumps back and forth between normal and disturbed or faulty states, the local server prompts the management Personnel The single-light controller is frequently disturbed by the outside world, which may be caused by the frequent exposure of the light sensor to the headlights of the car. It is recommended that the maintenance personnel change the installation position of the light sensor.

Optionally, if the single-lamp controller works within a normal range at night and is in a disturbed or faulty state during the day, the local server prompts the administrator that the single-lamp controller is blocked by an obstruction, and advises the maintenance personnel to eliminate the source of interference.

If the single-lamp controller is in the disturbed or faulty state for more than one day, the local server will prompt the management personnel that the illuminance sensor of the single-lamp controller is faulty, and suggest that the maintenance personnel replace the illuminance sensor.

Fig. 11 is a schematic diagram of a partial circuit of a dimming control module and a photosensitive element according to an embodiment of the present invention. As shown in Figure 11, the PWM signal is output through the ASIC chip, filtered by a filter circuit composed of resistors R6, R12, R8, and capacitor C12 to form a periodic voltage of 0-3.3V, and then passed through the operational amplifier U1, resistors R3, R7 , the amplifying circuit composed of R1 amplifies the periodic voltage of 0-10V, and then the output voltage can be connected to the Dimmg+ and Dimmg- ports. For example, the photosensitive resistor R15 can be set, the resistance value changes with the light intensity, so the light signal is converted into a variable voltage signal through R15, R16, R14 and then input to the operational amplifier U1, and then through the resistors R13, R11 , R9, capacitor C11, resistor R4, R2 output to the ADC sampling pin of the ASIC chip.

Other components in FIG. 11 of the embodiment to be explained are only for illustration, and do not limit the solution of the embodiment of the present invention.

When the illuminance sensor of the single-lamp controller in this embodiment is disturbed or faulty, the light status of the disturbed single-lamp controller is controlled through the illuminance value of the surrounding single-lamp controller, thereby avoiding energy waste caused by the lamp being too bright or being too bright. The road lighting environment caused by darkness cannot meet the expected goals, and the single lamp controller is disturbed or faulty, so timely maintenance and treatment should be carried out.

Example 4

The embodiment of the invention also provides a control device for a street lamp control system. It should be noted that the control device of the street lamp control system in this embodiment can be used to implement the control method of the street lamp control system shown in FIG. 2 in the embodiment of the present invention.

Fig. 12 is a schematic diagram of a control device of a street lamp control system according to an embodiment of the present invention. As shown in FIG. 12 , the control device 120 of the street lamp control system may include: a first acquiring unit 121 , a first determining unit 122 and a sending unit 123 .

The first obtaining unit 121 is configured to obtain the first detection state of the single lamp controller of the first street lamp.

The first determination unit 122 is configured to determine that the first detection state is an abnormal detection state when the first detection state does not match the target environment state of the target area where the first street lamp is located, and determine the first detection state based on the target environment state. Target tuning parameters for single lamp controllers for street lamps.

The sending unit 123 is configured to send a target adjustment parameter to the single-lamp controller of the first street lamp, wherein the target adjustment parameter is used to adjust the single-lamp controller of the first street lamp, so as to adjust the first detection state from the abnormal detection state It is in the normal detection state.

The embodiment of the present invention also provides another control device for a street lamp control system. It should be noted that the control device of the street lamp control system in this embodiment can be used to execute the control method of the street lamp control system shown in FIG. 3 in the embodiment of the present invention.

Fig. 13 is a schematic diagram of a control device of a street lamp control system according to an embodiment of the present invention. As shown in FIG. 13 , the control device 130 of the street lamp control system may include: a second acquisition unit 131 , a second determination unit 132 and an adjustment unit 133 .

The second acquisition unit 131 is configured to acquire the first detection state of the single lamp controller of the first street lamp;

The second determining unit 132 is configured to determine that the first detection state is an abnormal detection state when the first detection state does not match the target environment state of the target area where the first street lamp is located, and obtain The target adjustment parameters of the single lamp controller of the first street lamp;

The adjustment unit 133 is configured to adjust the single-lamp controller through the target adjustment parameter, so as to adjust the first detection state from the abnormal detection state to a normal detection state.

In this embodiment, when the single-lamp controller is in the abnormal detection state (disturbed or faulty state), the parameters used to adjust the single-lamp controller in the abnormal detection state are determined through the surrounding environment state, so that it is different from the normal The state of the single lamp controller is consistent, which solves the technical problem of low lighting efficiency caused by the lack of adaptive judgment of the environmental state of the street lamp control system, and achieves the technical effect of the street lamp control system adaptively judging the environmental state and improving lighting efficiency .

Example 5

The embodiment of the present invention also provides a storage medium. The storage medium includes a stored program, wherein when the program is running, the device where the storage medium is located is controlled to execute the control method of the street lamp control system according to the embodiment of the present invention.

Example 6

The embodiment of the invention also provides a processor. The processor is used to run the program, wherein the control method of the street lamp control system according to the embodiment of the present invention is executed when the program is running.

Obviously, those skilled in the art should understand that each module or each step of the above-mentioned present invention can be realized by a general-purpose computing device, and they can be concentrated on a single computing device, or distributed in a network formed by multiple computing devices Optionally, they can be implemented with program codes executable by a computing device, so that they can be stored in a storage device and executed by a computing device, or they can be made into individual integrated circuit modules, or they can be integrated into Multiple modules or steps are fabricated into a single integrated circuit module to realize. As such, the present invention is not limited to any specific combination of hardware and software.

The above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and changes. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention shall be included within the protection scope of the present invention.

Claims (21)

1. a kind of control method of street lamp control system characterized by comprising

Obtain the first detecting state of the single-lamp controller of the first street lamp；

The unmatched situation of target environment state of the target area locating for first detecting state and first street lamp Under, determine that first detecting state is abnormality detection state, and first street lamp is determined based on the target environment state Single-lamp controller target adjustment parameter；

The target adjustment parameter is sent to the single-lamp controller of first street lamp, wherein the target adjustment parameter is used for The single-lamp controller of first street lamp is adjusted, first detecting state is adjusted by the abnormality detection state For normal detecting state.

2. the method according to claim 1, wherein determining that first detecting state is abnormality detection state Before, the method also includes:

Obtain first environment state corresponding with first detecting state；

In the case that difference between the first environment state and the target environment state is greater than targets threshold, institute is determined It states the first detecting state and the target environment state mismatches.

3. the method according to claim 1, wherein the method also includes:

The second detecting state for obtaining the single-lamp controller of multiple second street lamps obtains multiple second detecting states, wherein described Multiple second street lamps are in the target area, and the multiple second detecting state is identical detecting state, and is different from First detecting state；

The first object ambient condition of the target area is determined by the multiple second detecting state, wherein the target Ambient condition includes the first object ambient condition.

4. the method according to claim 1, wherein the method also includes:

Obtain the second target environment state of the target area that the first via lamp inspection measures, wherein the target environment State includes the second target environment state.

5. the method according to claim 1, wherein determining first street lamp based on the target environment state The target adjustment parameter of single-lamp controller include:

Obtain corresponding first illuminance value of first detecting state；

Based on the difference between first illuminance value target illuminance value corresponding with the target environment state, institute is determined State target adjustment parameter.

6. the method according to claim 1, wherein obtaining the first detection shape of the single-lamp controller of the first street lamp State includes:

First detecting state of the single-lamp controller of first street lamp is inquired by the registration information of first street lamp.

7. method as claimed in any of claims 1 to 6, which is characterized in that determining first detecting state After abnormality detection state, the method also includes:

Send first object instruction, wherein the first object instructs the illuminance sensor for forbidding first street lamp The detecting state of first street lamp is adjusted.

8. the method according to the description of claim 7 is characterized in that the method also includes:

First identifier is added to first street lamp, wherein the first identifier is used to indicate single lamp control of first street lamp Device processed is in the abnormality detection state.

9. method as claimed in any of claims 1 to 6, which is characterized in that in single lamp to first street lamp After controller sends the target adjustment parameter, the method also includes:

In the case where detecting that first detecting state is adjusted to the normal detecting state by the abnormality detection state, Send the second target instruction target word, wherein second target instruction target word is for allowing the illuminance sensor of first street lamp to institute The detecting state for stating the first street lamp is adjusted.

10. according to the method described in claim 9, it is characterized in that,

Second identifier is added to first street lamp, wherein the second identifier is used to indicate single lamp control of first street lamp Device processed is in the normal detecting state.

11. method as claimed in any of claims 1 to 6, which is characterized in that

The abnormality detection state is that the photosensitive element of the single-lamp controller of first street lamp is disturbed state or malfunction；

The normal detecting state is the undisturbed state of photosensitive element or normal work of the single-lamp controller of first street lamp Make state.

12. method as claimed in any of claims 1 to 6, which is characterized in that determining first detecting state When for abnormality detection state, the method also includes:

Issue prompt information, wherein it is the abnormality detection state that the prompt information, which is used to indicate first detecting state,.

13. a kind of control method of street lamp control system characterized by comprising

Obtain the first detecting state of the single-lamp controller of the first street lamp；

The unmatched situation of target environment state of the target area locating for first detecting state and first street lamp Under, determine that first detecting state is abnormality detection state, and obtain the target tune of the single-lamp controller of first street lamp Whole parameter；

The single-lamp controller is adjusted by the target adjustment parameter, by first detecting state by described different Normal detecting state is adjusted to normal detecting state.

14. according to the method for claim 13, which is characterized in that the method also includes:

The environment of the target area is detected, obtains the second target environment state of the target area, wherein described Target environment state includes the second target environment state.

15. according to the method for claim 13, which is characterized in that

In the case where the second detecting state of the second street lamp is normal detecting state, the single lamp control of second street lamp is obtained Second detecting state of device, wherein second street lamp is in the target area；

The corresponding ambient condition of second detecting state is determined as to the third target environment state of the target area, In, the target environment state includes the third target environment state.

16. method described in any one of 3 to 15 according to claim 1, which is characterized in that

The abnormality detection state is that the illuminance sensor of the single-lamp controller of first street lamp is disturbed state or failure State；

The normal detecting state is the undisturbed state of illuminance sensor or just of the single-lamp controller of first street lamp Normal working condition.

17. a kind of street lamp control system characterized by comprising server and the first street lamp, wherein

The server, the target adjustment parameter of the single-lamp controller for obtaining first street lamp；

First street lamp, is connected to the server and connects, for by the target adjustment parameter by first street lamp Abnormality detection state is adjusted to normal detecting state.

18. a kind of control device of street lamp control system characterized by comprising

First acquisition unit, the first detecting state of the single-lamp controller for obtaining the first street lamp；

First determination unit, the target environment for the target area locating for first detecting state and first street lamp In the unmatched situation of state, determine that first detecting state is abnormality detection state, and be based on the target environment state Determine the target adjustment parameter of the single-lamp controller of first street lamp；

Transmission unit, for sending the target adjustment parameter to the single-lamp controller of first street lamp, wherein the target Adjusting parameter is for being adjusted the single-lamp controller of first street lamp, by first detecting state by the exception Detecting state is adjusted to normal detecting state.

19. a kind of control device of street lamp control system characterized by comprising

Second acquisition unit, the first detecting state of the single-lamp controller for obtaining the first street lamp；

Second determination unit, the target environment for the target area locating for first detecting state and first street lamp In the unmatched situation of state, determine that first detecting state is abnormality detection state, and obtain the list of first street lamp The target adjustment parameter of lamp controller；

Adjustment unit is examined for being adjusted by the target adjustment parameter to the single-lamp controller by described first Survey state is adjusted to normal detecting state by the abnormality detection state.

20. a kind of storage medium, which is characterized in that the storage medium includes the program of storage, wherein run in described program When control the storage medium where equipment perform claim require any one of 1 to 16 described in method.

21. a kind of processor, which is characterized in that the processor is for running program, wherein right of execution when described program is run Benefit require any one of 1 to 16 described in method.