Intelligent control system to achieve constant illumination

Abstract

The present invention relates to an intelligent control system for realizing constant illumination, including: a power prediction mechanism, which adopts a numerical prediction model to intelligently predict the output power required to be set for the target street lamp to reach the set constant illumination value at the next moment of the current moment based on a set constant illumination value, a set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each ambient light quantity corresponding to each moment before the next moment of the current moment; and a lamp body control mechanism, which configures the output power in advance to the next moment of the current moment. Through the present invention, it is possible to intelligently predict the output power required for the lighting equipment to achieve constant illumination at the future moment according to various basic data obtained by the customized screening mechanism and using an artificial intelligence model with a targeted structural design before the future moment arrives, thereby ensuring the implementation effect of the constant illumination.

Description

Technical Field

[0001] The present invention relates to the field of intelligent lighting, and in particular to an intelligent control system for achieving constant illumination. Background Art

[0002] Intelligent lighting refers to a distributed wireless telemetry, remote control, and telecommunication control system that uses computers, wireless communication data transmission, spread spectrum power carrier communication technology, computer intelligent information processing, and energy-saving electrical appliance control. It has functions such as light brightness adjustment, light soft start, timing control, scene setting, and achieves predetermined characteristics. As the core subsystem of a smart city, the urban intelligent lighting system uses wireless Zigbee, WiFi, GPRS and other Internet of Things and IT technologies to achieve remote single light switching, dimming, detection and other control functions, laying a solid foundation for the construction of a smart city, especially the application of constant illumination technology, which improves the unmanned and intelligent management level of a smart city.

[0003] However, the main technical problem of the current constant illumination technology is that the light conditions of the surrounding environment of the lighting lamp are constantly changing at different times, and this change is not caused by the influence of one factor, but by the combined effect of multiple factors. For example, the intensity of sunlight is one factor, and the obstruction of surrounding objects is also a factor. As a result, the output power of the lamp required to achieve the constant illumination effect in the future can only be analyzed and obtained when the future moment arrives. Obviously, this processing mode is lagging. At the same time, if a rough estimation mode is used to numerically estimate the output power of the lamp required to achieve the constant illumination effect in the future, it is actually impossible to achieve a true constant illumination effect in the future. Summary of the invention

[0004] In order to solve the technical problems in related fields, the present invention provides an intelligent control system for achieving constant illumination. Before the future moment arrives, the artificial intelligence model with targeted structural design can be used to intelligently predict the output power that the lighting equipment needs to adopt to achieve constant illumination at the future moment according to the light quantity values ​​at each moment before the future moment, the on-site image data at the moment before the future moment, and various configuration parameters. Therefore, the output power of the lighting equipment can be extracted and configured before the future moment arrives, thereby truly achieving the constant illumination effect at each moment.

[0005] According to the present invention, an intelligent control system for achieving constant illumination is provided, the system comprising:

[0006] A light quantity capturing device is used to obtain the ambient light quantity values ​​corresponding to each moment of the target street lamp before the next moment of the current moment, and each moment before the next moment of the current moment is evenly spaced on the time axis;

[0007] An upward shooting imaging device is arranged on the top of the lamp body protective cover of the target street lamp, and is used to perform an upward shooting process on the top of the target street lamp with its back facing the top of the lamp body protective cover to obtain an upward shooting imaging picture corresponding to the current moment;

[0008] A model building device, used for performing a set number of trainings on the deep neural network to obtain a deep neural network after each training, and outputting the deep neural network as a numerical prediction model, wherein the value of the set number is positively correlated with the total number of pixels of the overhead imaging picture;

[0009] A power prediction mechanism is connected to the light quantity capturing device, the overhead imaging device and the model building device respectively, and is used to adopt the numerical prediction model to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment of the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp and the respective ambient light values ​​corresponding to each moment before the next moment of the current moment of the target street lamp, and output it as the predicted power value;

[0010] A lamp body control mechanism, connected to the power prediction mechanism, configured to configure the predicted power value to the next moment of the current moment in advance before the next moment of the current moment arrives;

[0011] Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment before the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each portion of ambient light corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, including: the set constant illumination value is a fixed value at which the illumination obtained by the set horizontal section as the illuminated surface when the target street lamp illuminates the set horizontal section directly below it is constant;

[0012] Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment before the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each portion of ambient light corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, and it also includes: the color component value of each pixel point of the overhead imaging picture is the value of each color component of the pixel point in the CMYK color space;

[0013] Among them, the set constant illuminance value is a fixed value at which the illuminance obtained by the set horizontal section as the illuminated surface when the target street lamp illuminates the set horizontal section directly below it is kept constant, including: the distance from the set horizontal section to the light-emitting surface of the target street lamp is equal to the set distance value.

[0014] The present invention has at least the following three important inventive features:

[0015] Important invention point 1: In order to make the target street lamp adapt to the surrounding environment at a future moment and illuminate the set horizontal section directly below it, the set horizontal section as the illuminated surface has a constant fixed value of illumination, the specific value of the output power that the target street lamp needs to adopt in the future moment to achieve the constant illumination effect is predicted based on the artificial intelligence model, so as to facilitate the subsequent extraction and configuration of power parameters at future moments, so as to achieve the intelligent lighting control effect of constant illumination;

[0016] Important invention point 2: The artificial intelligence model used is a deep neural network after each training. The number of training times of the deep neural network is positively correlated with the total number of pixels of the overhead imaging picture output by the overhead imaging device. The overhead imaging device is arranged at the top of the lamp body protective cover of the target street lamp, so that artificial intelligence models with different structures are selected for different target street lamp configurations;

[0017] Important invention point three: Targeted screening of various basic data for intelligent prediction of the specific value of the output power that the target street lamp needs to adopt in the future to achieve a constant illumination effect, so as to ensure the reliability and stability of the intelligent prediction results, the targeted screening of various basic data include a set constant illumination value, a set distance value, the color component value of each pixel point of the overhead imaging screen, the maximum output power of the target street lamp, the minimum output power of the target street lamp and the ambient light values ​​corresponding to each moment before the next moment of the current moment of the target street lamp. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The embodiments of the present invention will be described below with reference to the accompanying drawings, wherein:

[0019] Figure 1 Schematic diagram of the internal structure of an intelligent control system for achieving constant illumination according to implementation A of the present invention.

[0020] Figure 2 Schematic diagram of the internal structure of an intelligent control system for achieving constant illumination according to implementation B of the present invention.

[0021] Figure 3 Schematic diagram of the internal structure of an intelligent control system for achieving constant illumination according to implementation scheme C of the present invention. DETAILED DESCRIPTION

[0022] The implementation scheme of the intelligent control system for achieving constant illumination of the present invention will be described in detail below with reference to the accompanying drawings.

[0023] Figure 1 This is a schematic diagram of the internal structure of an intelligent control system for achieving constant illumination according to Embodiment A of the present invention, wherein the system comprises:

[0024] A light quantity capturing device is used to obtain the ambient light quantity values ​​corresponding to each moment before the next moment of the current moment of the target street lamp, and each moment before the next moment of the current moment and the next moment of the current moment are evenly spaced on the time axis;

[0025] For example, the ambient light values ​​corresponding to the target street lamp at each moment before the next moment of the current moment are obtained, and the next moment of the current moment and each moment before the next moment of the current moment are evenly spaced on the time axis, including: the current moment is 12 noon, the next moment of the current moment is 12:01 pm, and each moment before the next moment of the current moment is 12:02 pm, 12:03 pm, 12:04 pm, 12:05 pm, 12:06 pm, 12:07 pm, 12:08 pm, 12:09 pm and 12:10 pm;

[0026] An upward shooting imaging device is arranged on the top of the lamp body protective cover of the target street lamp, and is used to perform an upward shooting process on the top of the target street lamp with its back facing the top of the lamp body protective cover to obtain an upward shooting imaging picture corresponding to the current moment;

[0027] Specifically, the upward shooting imaging device is arranged on the top of the lamp body protective cover of the target street lamp, and is used to perform an upward shooting process on the top of the target street lamp with its back to the top of the lamp body protective cover to obtain an upward shooting imaging picture corresponding to the current moment, including: the upward shooting imaging device has a built-in CCD sensor and a timing service unit;

[0028] A model building device, used for performing a set number of trainings on the deep neural network to obtain a deep neural network after each training, and outputting the deep neural network as a numerical prediction model, wherein the value of the set number is positively correlated with the total number of pixels of the overhead imaging picture;

[0029] A power prediction mechanism is connected to the light quantity capturing device, the overhead imaging device and the model building device respectively, and is used to adopt the numerical prediction model to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment of the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp and the respective ambient light values ​​corresponding to each moment before the next moment of the current moment of the target street lamp, and output it as the predicted power value;

[0030] A lamp body control mechanism, connected to the power prediction mechanism, configured to configure the predicted power value to the next moment of the current moment in advance before the next moment of the current moment arrives;

[0031] Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment before the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each portion of ambient light corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, including: the set constant illumination value is a fixed value at which the illumination obtained by the set horizontal section as the illuminated surface when the target street lamp illuminates the set horizontal section directly below it is constant;

[0032] Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment before the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each portion of ambient light corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, and it also includes: the color component value of each pixel point of the overhead imaging picture is the value of each color component of the pixel point in the CMYK color space;

[0033] The set constant illuminance value is a fixed value at which the illuminance obtained by the set horizontal section as the illuminated surface when the target street lamp illuminates the set horizontal section directly below it is constant, including: the distance from the set horizontal section to the light-emitting surface of the target street lamp is equal to the set distance value;

[0034] Wherein, obtaining the ambient light values ​​corresponding to each moment before the next moment of the target street lamp at the current moment, and the next moment of the current moment and each moment before the next moment of the current moment are evenly spaced on the time axis includes: each moment before the next moment of the current moment includes the current moment;

[0035] Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment after the current moment based on the set constant illumination value, the set distance value, the color component values ​​of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the ambient light values ​​corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, which also includes: inputting the set constant illumination value, the color component values ​​of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the ambient light values ​​corresponding to each moment before the next moment of the current moment into the numerical prediction model in parallel.

[0036] Figure 2 Schematic diagram of the internal structure of an intelligent control system for achieving constant illumination according to implementation B of the present invention.

[0037] Compared with implementation A, the intelligent control system for achieving constant illumination shown in implementation B may also include the following components:

[0038] A voltage measuring mechanism, connected to the light capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism, respectively, for measuring the current real-time voltage values ​​of the light capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively;

[0039] For example, a programmable logic device may be selected to implement the voltage measurement mechanism, which is used to measure the current real-time voltage values ​​of the light quantity capture device, the model building device, the power prediction mechanism, and the lamp body control mechanism respectively;

[0040] Wherein, the voltage measuring mechanism is respectively connected with the light quantity capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism, and is used to respectively measure the current real-time voltage values ​​of the light quantity capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism, including: the voltage measuring mechanism includes a plurality of voltage measuring units, which are respectively connected with the light quantity capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism, so as to complete the respective measurement of the current real-time voltage values ​​of the light quantity capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism;

[0041] Wherein, the voltage measurement mechanism includes a plurality of voltage measurement units, which are respectively connected to the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism to complete the respective measurement of the current real-time voltage values ​​of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, including: the plurality of voltage measurement units are a plurality of voltage sensing circuits, which are respectively connected to the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism to complete the respective measurement of the current real-time voltage values ​​of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism;

[0042] Wherein, the multiple voltage measurement units are multiple voltage sensing circuits, which are used to be connected to the light quantity capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively, so as to complete the measurement of the current real-time voltage values ​​of the light quantity capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively, including: the structures of the multiple voltage sensing circuits are the same;

[0043] Among them, the multiple voltage measurement units are multiple voltage sensing circuits, which are used to be connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively, so as to complete the separate measurement of the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively, and also include: the multiple voltage sensing circuits have the same voltage measurement upper limit value and voltage measurement lower limit value.

[0044] Figure 3 Schematic diagram of the internal structure of an intelligent control system for achieving constant illumination according to implementation scheme C of the present invention.

[0045] Compared with implementation A, the intelligent control system for achieving constant illumination shown in implementation C may also include the following components:

[0046] A field configuration interface, connected to the light quantity capture device, the model building device, the power prediction mechanism and the multiple voltage sensing circuits of the lamp body control mechanism, respectively, for real-time configuration of the operation configuration parameters of the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism;

[0047] Wherein, the field configuration interface is respectively connected to the light quantity capture device, the model building device, the power prediction mechanism and the multiple voltage sensing circuits of the lamp body control mechanism, and is used for real-time configuration of the operation configuration parameters of the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, including: the field configuration interface is a serial configuration interface;

[0048] And wherein, the field configuration interface is respectively connected to the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, and is used to configure the operating configuration parameters of the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism in real time. The embodiment includes: for the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, the field configuration interface uses different configuration addresses to configure the operating configuration parameters of the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism in real time.

[0049] In addition, in the intelligent control system for realizing constant illumination, the numerical prediction model is used to intelligently predict the output power that needs to be set for the target street lamp to reach the set constant illumination value at the next moment after the current moment based on the set constant illumination value, the set distance value, the color component values ​​of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each ambient light amount corresponding to each moment before the next moment after the current moment, and output it as a predicted power value, including: executing the numerical prediction model to obtain the output power that needs to be set for the target street lamp to reach the set constant illumination value at the next moment after the current moment output by the numerical prediction model.

[0050] The intelligent control system for achieving constant illumination of the present invention can solve the technical problem in the prior art that the constant illumination effect of lighting equipment at future moments is difficult to truly implement. Before the future moment arrives, the intelligent control system can use an artificial intelligence model with a targeted structure design to intelligently predict the output power that the lighting equipment needs to use to achieve constant illumination at future moments based on various basic data obtained by a customized screening mechanism, thereby ensuring the implementation effect of the constant illumination.

[0051] The above is only a specific implementation of the embodiment of the present application, but the protection scope of the embodiment of the present application is not limited thereto, and any changes or replacements within the technical scope disclosed in the embodiment of the present application should be included in the protection scope of the embodiment of the present application. Therefore, the protection scope of the embodiment of the present application should be based on the protection scope of the claims.

Claims

1. An intelligent control system for achieving constant illumination, characterized in that: The system comprises: A light quantity capturing device is used to obtain the ambient light quantity values ​​corresponding to each moment before the next moment of the current moment of the target street lamp, and each moment before the next moment of the current moment and the next moment of the current moment are evenly spaced on the time axis; An upward shooting imaging device is arranged on the top of the lamp body protective cover of the target street lamp, and is used to perform an upward shooting process on the top of the target street lamp with its back facing the top of the lamp body protective cover to obtain an upward shooting imaging picture corresponding to the current moment; A model building device, used for performing a set number of trainings on the deep neural network to obtain a deep neural network after each training, and outputting the deep neural network as a numerical prediction model, wherein the value of the set number is positively correlated with the total number of pixels of the overhead imaging picture; A power prediction mechanism is connected to the light quantity capturing device, the overhead imaging device and the model building device respectively, and is used to adopt the numerical prediction model to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment of the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp and the respective ambient light values ​​corresponding to each moment before the next moment of the current moment of the target street lamp, and output it as the predicted power value; A lamp body control mechanism, connected to the power prediction mechanism, configured to configure the predicted power value to the next moment of the current moment in advance before the next moment of the current moment arrives; Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment before the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each portion of ambient light corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, including: the set constant illumination value is a fixed value at which the illumination obtained by the set horizontal section as the illuminated surface when the target street lamp illuminates the set horizontal section directly below it is constant; Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment before the current moment based on the set constant illumination value, the set distance value, the color component value of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the values ​​of each portion of ambient light corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, and it also includes: the color component value of each pixel point of the overhead imaging picture is the value of each color component of the pixel point in the CMYK color space; Among them, the set constant illuminance value is a fixed value at which the illuminance obtained by the set horizontal section as the illuminated surface when the target street lamp illuminates the set horizontal section directly below it is kept constant, including: the distance from the set horizontal section to the light-emitting surface of the target street lamp is equal to the set distance value.

2. The intelligent control system for achieving constant illumination as claimed in claim 1, characterized in that: Acquire the ambient light values ​​of the target street lamp corresponding to each moment before the next moment of the current moment, wherein the next moment of the current moment and each moment before the next moment of the current moment are evenly spaced on the time axis, including: each moment before the next moment of the current moment includes the current moment; Among them, the numerical prediction model is used to intelligently predict the output power of the target street lamp that needs to be set to reach the set constant illumination value at the next moment after the current moment based on the set constant illumination value, the set distance value, the color component values ​​of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the ambient light values ​​corresponding to each moment before the next moment of the current moment, and output it as a predicted power value, which also includes: inputting the set constant illumination value, the color component values ​​of each pixel point of the overhead imaging picture, the maximum output power of the target street lamp, the minimum output power of the target street lamp, and the ambient light values ​​corresponding to each moment before the next moment of the current moment into the numerical prediction model in parallel.

3. The intelligent control system for achieving constant illumination as claimed in claim 2, characterized in that: The system further comprises: A voltage measuring mechanism, connected to the light capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism, respectively, for measuring the current real-time voltage values ​​of the light capturing device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively; Among them, the voltage measuring mechanism is respectively connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, and is used to respectively measure the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism. The voltage measuring mechanism includes multiple voltage measuring units, which are respectively connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism to complete the respective measurements of the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism.

4. The intelligent control system for achieving constant illumination as claimed in claim 3, characterized in that: The voltage measuring mechanism includes a plurality of voltage measuring units, which are used to be respectively connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism to complete the respective measurements of the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism. The plurality of voltage measuring units are a plurality of voltage sensing circuits, which are used to be respectively connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism to complete the respective measurements of the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism.

5. The intelligent control system for achieving constant illumination as claimed in claim 4, characterized in that: The multiple voltage measurement units are multiple voltage sensing circuits, which are used to be connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively, so as to complete the respective measurements of the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, including: the structures of the multiple voltage sensing circuits are the same.

6. The intelligent control system for achieving constant illumination as claimed in claim 5, characterized in that: The multiple voltage measurement units are multiple voltage sensing circuits, which are used to be connected to the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism respectively, so as to complete the respective measurements of the current real-time voltage values ​​of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, and also include: the multiple voltage sensing circuits have the same voltage measurement upper limit value and voltage measurement lower limit value.

7. The intelligent control system for achieving constant illumination as claimed in any one of claims 3 to 6, characterized in that: The system further comprises: The field configuration interface is respectively connected to the light quantity capture device, the model building device, the power prediction mechanism and the multiple voltage sensing circuits of the lamp body control mechanism, and is used for real-time configuration of the operating configuration parameters of the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism.

8. The intelligent control system for achieving constant illumination as claimed in claim 7, characterized in that: The field configuration interface is respectively connected to the light quantity capture device, the model building device, the power prediction mechanism and the multiple voltage sensing circuits of the lamp body control mechanism, and is used for real-time configuration of the operating configuration parameters of the multiple voltage sensing circuits of the light quantity capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, including: the field configuration interface is a serial configuration interface.

9. The intelligent control system for achieving constant illumination as claimed in claim 7, characterized in that: A field configuration interface is respectively connected to the multiple voltage sensing circuits of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, and is used for real-time configuration of the operating configuration parameters of the multiple voltage sensing circuits of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism. The field configuration interface includes: for the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism, the field configuration interface uses different configuration addresses to real-time configure the operating configuration parameters of the multiple voltage sensing circuits of the light capture device, the model building device, the power prediction mechanism and the lamp body control mechanism.

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