A Mini LED ambient lighting system

Abstract

This invention discloses a Mini LED environmentally adaptable lighting system, relating to the field of lighting technology. It includes an acquisition module for acquiring the light information required by the product; a first setting module connected to the acquisition module for setting light illumination rules based on the light information corresponding to the Mini LED's illumination time; a second setting module connected to the first setting module for setting the Mini LED's position information based on the light illumination rules; an adjustment module connected to the second setting module; a configuration module connected to the adjustment module for completing the actual setting of the Mini LED based on the target position information; and an evaluation module for collecting the illumination light rules of the Mini LED after the actual setting as the actual illumination light rules. This invention significantly improves the accuracy of position point setting, ensuring that the Mini LED illumination effect better meets the customer's requirements and reducing installation errors.

Description

Technical Field

[0001] This invention relates to the field of lighting technology, and more specifically to a Mini LED environmentally adaptable lighting system. Background Technology

[0002] Mini LED lights consist of a Mini LED pixel array and a driving circuit, with a pixel center-to-center spacing of 0.3-1.5mm. Currently, in product exhibitions or home displays, lights are needed to illuminate products to allow people to appreciate the details. However, due to the diverse shapes of products, the installation of a single light fixture is insufficient to provide adequate illumination and fails to allow people to observe the details, thus affecting the aesthetic appeal. Summary of the Invention

[0003] The purpose of this invention is to provide a Mini LED environmentally adaptable lighting system to address the shortcomings of the prior art.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a Mini LED environmentally adaptable lighting system, comprising:

[0005] The acquisition module is used to acquire the light information required by the product. The light information includes multiple light brightness, multiple light color temperature, multiple light color and the effective range of light illumination.

[0006] The first setting module, connected to the acquisition module, is used to set the light irradiation rules based on the light information corresponding to the irradiation time of the Mini LED. The light irradiation rules are the data parameters of the light information within the irradiation time of the Mini LED.

[0007] The second setting module, connected to the first setting module, is used to set the position information of the Mini LED based on the light illumination rules, simulate the illumination rules of the Mini LED based on the position information as the simulated illumination rules, and obtain the difference data between the simulated illumination rules and the light illumination rules.

[0008] The adjustment module, connected to the second setting module, is used to adjust the position information and illumination rules of the MiniLED based on the difference data that do not meet the preset conditions to obtain the target information;

[0009] The configuration module, connected to the adjustment module, is used to complete the actual setting of the Mini LED based on the target location information;

[0010] The evaluation module, connected to the configuration module, is used to collect the illumination light rules of the Mini LED after actual settings as the actual illumination light rules, calculate the stability index, and maintain the Mini LED lamps based on preset information.

[0011] In a preferred embodiment, the acquisition module includes:

[0012] The information acquisition unit is used to acquire the product's shape information, including its dimensions and shape, and to construct a three-dimensional model of the product based on the shape information.

[0013] The division unit, connected to the information acquisition unit, is used to divide the product's 3D model into multiple division regions based on preset division conditions;

[0014] The feature acquisition unit, connected to the segmentation unit, is used to acquire the shape features of the segmented region, wherein the shape features include product surface shape information and product line shape information;

[0015] The classification unit, connected to the feature acquisition unit, is used to classify multiple division regions of the product based on the division conditions and shape features to obtain multiple illumination regions as the effective range of light illumination.

[0016] The data setting unit, connected to the classification unit, is used to set multiple light brightness, multiple light color temperature and multiple light color based on the effective range of light illumination, and to use the multiple light brightness, multiple light color temperature, multiple light color and the effective range of light illumination as light information.

[0017] In a preferred embodiment, the first setting module includes:

[0018] The data setting unit is used to obtain the illumination time of the Mini LED of the product, and to formulate the data parameters of the light illumination within the effective range of the light illumination based on the illumination time of the Mini LED. The data parameters include the light brightness value, the replacement frequency value and the replacement order, the replacement frequency value and the replacement order of the light color temperature, and the replacement frequency value and the replacement order of the light color.

[0019] The identification unit, connected to the data setting unit, is used to take the data parameters of the light information during the illumination time of the Mini LED as the light illumination rules and mark the light illumination rules in the product's three-dimensional model.

[0020] In a preferred embodiment, the second setting module includes:

[0021] The position setting unit is used to set one-to-one MiniLEDs based on the light illumination rules marked in the product's 3D model and to obtain the position information of the MiniLED settings;

[0022] The simulation unit, connected to the position setting unit, is used to simulate the illumination rules of the MiniLED based on the position information and the three-dimensional model of the product, serving as the simulated illumination rules.

[0023] The difference judgment unit, connected to the simulation unit, is used to acquire the difference data between the simulated illumination rule and the actual illumination rule. The difference data includes the numerical and sequential differences in the brightness, color temperature, and color of multiple light sources within the illumination time of the Mini LED, as well as the range difference data of the effective illumination range.

[0024] In a preferred embodiment, the position setting unit further includes:

[0025] The position acquisition unit is used to acquire the arc-shaped surface around the product at a preset distance, with the product center as the reference point, wherein the arc-shaped surface is the shape of the inner surface of the cylinder;

[0026] The information marking unit, connected to the location acquisition unit, is used to perform gridding on the curved surface to obtain multiple grid regions, mark the grid regions with identities, and mark the dimensions of the lines in the grid regions.

[0027] The position determination unit, connected to the information marking unit, is used to set several position points corresponding to the light illumination rules marked in the 3D model of the product on the curved surface surrounding the product. The position information of the position points is obtained based on the identity markings of the grid area and the size markings of the lines.

[0028] In a preferred embodiment, the adjustment module includes:

[0029] The judgment unit is used to identify the difference data that does not meet the preset conditions as unqualified lighting information, and to adjust the illumination light rules corresponding to the unqualified lighting information to obtain the target illumination light rules.

[0030] The adjustment unit, connected to the judgment unit, is used to adjust the position information of the MiniLED corresponding to the unqualified lighting information based on the grid area to obtain the target position information, and uses the target illumination light rule and the target position information as the target information.

[0031] In a preferred embodiment, the configuration module includes:

[0032] The information marking unit is used to collect the three-dimensional model of the location where the product is to be placed, and to mark the location information in the grid area onto the three-dimensional model to obtain the three-dimensional model after location information marking.

[0033] The configuration unit, connected to the information marking unit, is used to obtain the installation point based on the three-dimensional model after the location information is marked, and to complete the actual setting of the Mini LED.

[0034] In a preferred embodiment, the evaluation module includes:

[0035] The timing unit is used to obtain the actual illumination time of the Mini LED after it has been set.

[0036] The evaluation calculation unit, connected to the timing unit, is used to obtain the illumination light rule of the Mini LED after actual setting, and calculate the stability index based on the actual illumination light rule. The formula for calculating the stability index is as follows:

[0037] ,in, The stability index is the regularity of actual illumination light. For the difference in light intensity values, The frequency of changing the light intensity value for different values. This represents the frequency of change of the average light color temperature. This represents the average frequency of light color changes. For the weights of the light illumination parameters, The effective range of average light illumination varies. Weighted by the range of light illumination. This refers to the illumination time for Mini LEDs.

[0038] The maintenance unit, connected to the evaluation calculation unit, is used to identify Mini LED lamps whose stability index exceeds preset information as those requiring maintenance and to perform maintenance operations on them.

[0039] The technical effects and advantages provided by the present invention in the above technical solution are as follows:

[0040] This invention divides a product's 3D model into multiple regions using preset division conditions; it then acquires the shape features of these regions, including product surface shape information and product line shape information. Based on the division conditions and the shape features, the multiple regions of the product are classified to obtain multiple illumination areas as the effective range for light irradiation. This allows for more accurate and precise adjustment of the Mini LED's position and parameter values, better adapting to ambient lighting conditions. It also enables confirmation of position points, significantly improving the accuracy of position point settings and ensuring that the Mini LED illumination effect better meets customer requirements, while reducing installation errors. Attached Figure Description

[0041] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.

[0042] Figure 1 This is a system block diagram of the present invention. Detailed Implementation

[0043] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0044] Example 1, please refer to Figure 1 As shown in this embodiment, a Mini LED environmentally adaptable lighting system includes:

[0045] The acquisition module is used to acquire the light information required by the product. The light information includes multiple light brightness, multiple light color temperature, multiple light color and the effective range of light illumination.

[0046] The first setting module, connected to the acquisition module, is used to set the light irradiation rules based on the light information corresponding to the irradiation time of the Mini LED. The light irradiation rules are the data parameters of the light information within the irradiation time of the Mini LED.

[0047] The second setting module, connected to the first setting module, is used to set the position information of the Mini LED based on the light illumination rules, simulate the illumination rules of the Mini LED based on the position information as the simulated illumination rules, and obtain the difference data between the simulated illumination rules and the light illumination rules.

[0048] The adjustment module, connected to the second setting module, is used to adjust the position information and illumination rules of the MiniLED based on the difference data that do not meet the preset conditions to obtain the target information;

[0049] The configuration module, connected to the adjustment module, is used to complete the actual setting of the Mini LED based on the target location information;

[0050] The evaluation module, connected to the configuration module, is used to collect the illumination light rules of the Mini LED after actual settings as the actual illumination light rules, calculate the stability index, and maintain the Mini LED lamps based on preset information.

[0051] To further explain, Mini LED luminaires are units composed of Mini LED pixel arrays and driving circuits, with a pixel center-to-center spacing of 0.3-1.5mm. Currently, in product exhibitions or home displays, luminaires are needed to illuminate products to allow people to appreciate the details. However, due to the diverse shapes of products, the installation of a single luminaire is insufficient to provide adequate illumination and fail to allow for observation of product details, thus affecting the viewing experience. This application allows for more accurate and precise adjustment of the position and parameter values ​​of Mini LEDs, better adapting to the ambient lighting. It enables confirmation of the position point, greatly improving the accuracy of position point setting and ensuring that the Mini LED illumination effect better meets the customer's needs, while reducing installation errors.

[0052] In one embodiment, the acquisition module includes:

[0053] The information acquisition unit is used to acquire the product's shape information, including its dimensions and shape, and to construct a three-dimensional model of the product based on the shape information.

[0054] The division unit, connected to the information acquisition unit, is used to divide the product's 3D model into multiple division regions based on preset division conditions;

[0055] The feature acquisition unit, connected to the segmentation unit, is used to acquire the shape features of the segmented region, wherein the shape features include product surface shape information and product line shape information;

[0056] The classification unit, connected to the feature acquisition unit, is used to classify multiple division regions of the product based on the division conditions and shape features to obtain multiple illumination regions as the effective range of light illumination.

[0057] The data setting unit, connected to the classification unit, is used to set multiple light brightness, multiple light color temperature and multiple light color based on the effective range of light illumination, and to use the multiple light brightness, multiple light color temperature, multiple light color and the effective range of light illumination as light information;

[0058] To further explain, Mini LED here refers to lighting fixtures designed for environmental adaptation of a specific product. This product could be a household item requiring illumination, such as a display case or a public display. When providing adaptive lighting for this product, a 3D model of the product needs to be captured. Since the product's shape can be irregular, a single light source cannot be used for adaptive lighting. Therefore, the product's illumination surface needs to be divided into multiple regions. For example, since the product is for display, its entire illumination surface needs to be lit to meet viewers' viewing needs. Next, the shape information of the product's surface and lines within each region needs to be obtained as shape features. The surface shape information includes the curvature of the divided areas, and the line shape information includes the shape of the product's corners. Based on these shape features, the multiple regions are then classified to obtain multiple illumination areas as the effective range of light. Based on the division conditions and different shape features, multiple illumination areas are obtained. The lighting area is divided based on the curvature difference of the product surface shape information of adjacent areas and the angle between connected product lines. Adjacent areas that do not meet the division criteria are further divided into different lighting areas. A maximum illumination range is also set. Even when the curvature difference of the product surface shape information and the angle between connected product lines are met, the maximum illumination range is still exceeded, requiring further division. For example, if one of the illuminated surfaces of a product has a raised and a recessed area, different lighting information needs to be set for these two surfaces to ensure clearer illumination. Thus, multiple lighting areas are set for the entire product as the effective illumination range. Then, corresponding light brightness, light color temperature, and light color are set for the effective illumination range. The light brightness, light color temperature, light color, and the effective illumination range are used as lighting information, enabling segmented management of the product and better adaptive illumination, resulting in a better product display effect.

[0059] In one embodiment, the first setting module includes:

[0060] The data setting unit is used to obtain the illumination time of the Mini LED of the product, and to formulate the data parameters of the light illumination within the effective range of the light illumination based on the illumination time of the Mini LED. The data parameters include the light brightness value, the replacement frequency value and the replacement order, the replacement frequency value and the replacement order of the light color temperature, and the replacement frequency value and the replacement order of the light color.

[0061] The identification unit, connected to the data setting unit, is used to take the data parameters of the light information during the illumination time of the Mini LED as the light illumination rules and mark the light illumination rules in the product's three-dimensional model.

[0062] To further explain, after obtaining multiple effective light irradiation ranges, since each effective light irradiation range corresponds to a specific type of light information, it is necessary to define the corresponding light irradiation data parameters within the effective light irradiation range based on the Mini LED's irradiation time. These data parameters include light brightness values, replacement frequency values ​​and replacement order, light color temperature replacement frequency values ​​and replacement order, and light color replacement frequency values ​​and replacement order. In the acquisition module, multiple light brightness values, multiple light color temperatures, multiple light colors, and effective light irradiation ranges are set. Here, it is necessary to set the light brightness values, replacement frequency values ​​and replacement order, light color temperature replacement frequency values ​​and replacement order, and light color replacement frequency values ​​and replacement order based on the effective light irradiation range. Then, this information is marked into the product's 3D model to obtain a set light irradiation information, which enables clear management of the product's irradiation information.

[0063] In one embodiment, the second setting module includes:

[0064] The position setting unit is used to set one-to-one MiniLEDs based on the light illumination rules marked in the product's 3D model and to obtain the position information of the MiniLED settings;

[0065] The simulation unit, connected to the position setting unit, is used to simulate the illumination rules of the MiniLED based on the position information and the three-dimensional model of the product, serving as the simulated illumination rules.

[0066] The difference judgment unit, connected to the simulation unit, is used to acquire the difference data between the simulated illumination rule and the actual illumination rule. The difference data includes the numerical and sequential differences in the brightness, color temperature, and color of multiple light sources within the illumination time of the Mini LED, as well as the range difference data of the effective illumination range.

[0067] To further explain, after designing the data parameters, a one-to-one Mini LED is set according to the light illumination rules on the product, and the position information of the Mini LED is obtained. The position information is the location point where the Mini LED is placed. Then, the illumination rules of the Mini LED are simulated based on the position information and the product's 3D model. The simulated illumination rules are compared with the actual illumination rules to obtain difference data. The difference data includes the numerical and sequential differences of multiple light brightness, multiple light color temperature, and multiple light color during the Mini LED's illumination time, as well as the range difference of the effective illumination range. Then, the illumination rules are adjusted according to the difference data to obtain the target illumination rules. In addition, the Mini LED position is adjusted to obtain the target position information. Using the target illumination rules and target position information as target information, the Mini LEDs can be accurately and reasonably arranged, which can better illuminate the product and greatly improve the environmental adaptability of the Mini LEDs.

[0068] In one embodiment, the position setting unit further includes:

[0069] The position acquisition unit is used to acquire the arc-shaped surface around the product at a preset distance, with the product center as the reference point, wherein the arc-shaped surface is the shape of the inner surface of the cylinder;

[0070] The information marking unit, connected to the location acquisition unit, is used to perform gridding on the curved surface to obtain multiple grid regions, mark the grid regions with identities, and mark the dimensions of the lines in the grid regions.

[0071] The location determination unit, connected to the information marking unit, is used to set several location points corresponding to the light illumination rules marked in the 3D model of the product on the curved surface surrounding the product. The location information of the location points is obtained based on the identity markings of the grid area and the size markings of the lines.

[0072] To further explain, using the product center as a reference point and a preset distance as the horizontal distance between the arc surface and the reference point, an arc surface surrounding the product is obtained. This arc surface is used to set the Mini LED. The arc surface is equivalent to a virtual cylinder covering the outside of the product. The radius of this virtual cylinder is the preset distance, and the arc surface will not contact or intersect with the product. The arc surface is located outside the product, and there is a certain distance between the outer surface of the product and the arc surface. Then, the arc surface is meshed to obtain multiple mesh areas. The mesh areas are identified and the lines of the mesh areas are dimensioned. After the position points of the light illumination rules marked in the corresponding product 3D model are obtained, the position information of the position points is obtained based on the identification marks of the mesh areas and the dimension marks of the lines. The position information is the identification mark of the position point in the mesh area and the specific position in the mesh area through the line dimensions. For example, if the mesh is equidistant and the line length is denoted as T, and the mesh is attached to the arc surface in an arc shape, the specific position of the center point of the mesh can be represented as ( , , The grid dimensions are marked with 0-T dimensions from left to right on the horizontal lines of the grid and from the bottom of the paper on the vertical lines of the grid. This allows for confirmation of the position points, greatly improving the accuracy of the position point setting, ensuring that the Mini LED illumination effect better meets the customer's requirements, reducing installation errors, and providing a good marking function.

[0073] In one embodiment, the adjustment module includes:

[0074] The judgment unit is used to identify the difference data that does not meet the preset conditions as unqualified lighting information, and to adjust the illumination light rules corresponding to the unqualified lighting information to obtain the target illumination light rules.

[0075] The adjustment unit, connected to the judgment unit, is used to adjust the position information of the MiniLED corresponding to the unqualified lighting information based on the grid area to obtain the target position information, and uses the target illumination light rule and the target position information as the target information;

[0076] To further explain, the differences in the values ​​of multiple light brightness, multiple light color temperature, and multiple light color, as well as the effective range of light illumination, in the preset conditions and illumination light rules are used to identify the differences that do not meet the preset conditions as unqualified lighting information. The illumination light rules corresponding to the unqualified lighting information are then adjusted to obtain the target illumination light rules. Adjustments are made based on the numerical values ​​and the range of differences. Within the range of differences, adjustments are made using the identification and size marks of the grid area, and the adjusted information is used as the target position information. By using the target illumination light rules and the target position information as target information, the position and parameter values ​​of the Mini LED can be adjusted more accurately and subtly, better adapting to the ambient lighting.

[0077] In one embodiment, the configuration module includes:

[0078] The information marking unit is used to collect the three-dimensional model of the location where the product is to be placed, and to mark the location information in the grid area onto the three-dimensional model to obtain the three-dimensional model after location information marking.

[0079] The configuration unit, connected to the information marking unit, is used to obtain the installation point based on the three-dimensional model after the location information is marked, and to complete the actual setting of the Mini LED;

[0080] To further explain, the 3D model of the location where the product is to be placed is collected, and the location information in the grid area is superimposed on the 3D model to obtain the 3D model after the location information is marked. The installation point is obtained based on the 3D model after the location information is marked, and the actual setting of Mini LED is completed. It can simulate first and then install, which can ensure that the installation is completed in one step without the need for later position changes, ensuring the accuracy of Mini LED lamp installation and greatly facilitating people's installation operation.

[0081] In one embodiment, the evaluation module includes:

[0082] The timing unit is used to obtain the actual illumination time of the Mini LED after it has been set.

[0083] The evaluation calculation unit, connected to the timing unit, is used to obtain the illumination light rule of the Mini LED after actual setting, and calculate the stability index based on the actual illumination light rule. The formula for calculating the stability index is as follows:

[0084] ,in, The stability index is the regularity of actual illumination light. For the difference in light intensity values, The frequency of changing the light intensity value for different values. This represents the frequency of change of the average light color temperature. This represents the average frequency of light color changes. For the weights of the light illumination parameters, The effective range of average light illumination varies. Weighted by the range of light illumination. Regarding the illumination time for Mini LEDs, it should be noted that... , , and The larger the value, and The larger the value, the more it represents The higher the value, the worse the performance of MiniLED;

[0085] The maintenance unit, connected to the evaluation calculation unit, is used to identify Mini LED lamps whose stability index exceeds preset information as those to be maintained and to perform maintenance operations on the Mini LED lamps to be maintained.

[0086] To further explain, the illumination time of the Mini LED after its actual settings are obtained, and the illumination light rule of the Mini LED after its actual settings is obtained as the actual illumination light rule. Then, the stability index of the actual illumination light rule can be calculated. The stability index is the regularity of actual illumination light. For the difference in light intensity values, The frequency of changing the light intensity value for different values. This represents the frequency of change of the average light color temperature. This represents the average frequency of light color changes. For the weights of the light illumination parameters, The effective range of average light illumination varies. Weighted by the range of light illumination. Regarding the illumination time for Mini LEDs, it should be noted that... , , and The larger the value, and The larger the value, the more it represents The higher the value, the worse the performance of the Mini LED. The Mini LED lamps that exceed the preset information are identified as those to be maintained and maintenance operations are performed on them. These maintenance operations can include replacing or repairing the lamps, or cleaning the dust off the lamp surfaces. The purpose is to enable the lamps to illuminate better according to the set rules, have better environmental adaptability, and provide better illumination based on the characteristics of the products, making it easier for people to appreciate the displayed products.

[0087] The above description is merely a specific embodiment of this application, but the scope of protection of this application is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this application should be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A Mini LED environmentally adaptable lighting system, characterized in that, include: The acquisition module is used to acquire the light information required by the product. The light information includes multiple light brightness, multiple light color temperature, multiple light color and the effective range of light illumination. The first setting module, connected to the acquisition module, is used to set the light irradiation rules based on the light information corresponding to the irradiation time of the Mini LED. The light irradiation rules are the data parameters of the light information within the irradiation time of the Mini LED. The second setting module, connected to the first setting module, is used to set the position information of the Mini LED based on the light illumination rules, simulate the illumination rules of the Mini LED based on the position information as the simulated illumination rules, and obtain the difference data between the simulated illumination rules and the light illumination rules. The adjustment module, connected to the second setting module, is used to adjust the position information and illumination rules of the Mini LED based on the difference data that do not meet the preset conditions to obtain the target information; The configuration module, connected to the adjustment module, is used to complete the actual setting of the Mini LED based on the target location information; The evaluation module, connected to the configuration module, is used to collect the illumination light rules of the Mini LED after the actual setting of the Mini LED as the actual illumination light rules, calculate the stability index, and maintain the Mini LED lamps based on preset information. The acquisition module includes: The information acquisition unit is used to acquire the product's shape information, including its dimensions and shape, and to construct a three-dimensional model of the product based on the shape information. The division unit, connected to the information acquisition unit, is used to divide the product's 3D model into multiple division regions based on preset division conditions; The feature acquisition unit, connected to the segmentation unit, is used to acquire the shape features of the segmented region, wherein the shape features include product surface shape information and product line shape information; The classification unit, connected to the feature acquisition unit, is used to classify multiple division regions of the product based on the division conditions and shape features to obtain multiple illumination regions as the effective range of light illumination. The data setting unit, connected to the classification unit, is used to set multiple light brightness, multiple light color temperature and multiple light color based on the effective range of light illumination, and to use the multiple light brightness, multiple light color temperature, multiple light color and the effective range of light illumination as light information; The second setting module includes: The position setting unit is used to set one-to-one Mini LEDs based on the light illumination rules marked in the product's 3D model and to obtain the position information of the Mini LEDs. The simulation unit, connected to the position setting unit, is used to simulate the illumination rules of Mini LED based on position information and the three-dimensional model of the product, serving as the simulated illumination rules. The difference judgment unit, connected to the simulation unit, is used to acquire the difference data between the simulated illumination rule and the actual illumination rule. The difference data includes the numerical and sequential differences in the brightness, color temperature, and color of multiple light sources within the illumination time of the Mini LED, as well as the range difference data of the effective illumination range. The adjustment module includes: The judgment unit is used to identify the difference data that does not meet the preset conditions as unqualified lighting information, and to adjust the illumination light rules corresponding to the unqualified lighting information to obtain the target illumination light rules. The adjustment unit, connected to the judgment unit, is used to adjust the position information of the Mini LED corresponding to the unqualified lighting information based on the grid area to obtain the target position information, and to use the target illumination light rule and the target position information as the target information. The evaluation module includes: The timing unit is used to obtain the actual illumination time of the Mini LED after it has been set. The evaluation calculation unit, connected to the timing unit, is used to obtain the illumination light rule of the Mini LED after the actual setting of the Mini LED as the basis for calculating the stability index. The maintenance unit, connected to the evaluation calculation unit, is used to identify MiniLED lamps whose stability index exceeds preset information as those requiring maintenance and to perform maintenance operations on them.

2. The Mini LED environmentally adaptable lighting system according to claim 1, characterized in that: The first setting module includes: The data setting unit is used to obtain the illumination time of the Mini LED of the product, and to formulate the data parameters of the light illumination within the effective range of the light illumination based on the illumination time of the Mini LED. The data parameters include the light brightness value, the replacement frequency value and the replacement order, the replacement frequency value and the replacement order of the light color temperature, and the replacement frequency value and the replacement order of the light color. The identification unit, connected to the data setting unit, is used to take the data parameters of the light information during the illumination time of the Mini LED as the light illumination rules and mark the light illumination rules in the product's three-dimensional model.

3. The Mini LED environmentally adaptable lighting system according to claim 1, characterized in that: The position setting unit further includes: The position acquisition unit is used to acquire the arc-shaped surface around the product at a preset distance, with the product center as the reference point, wherein the arc-shaped surface is the shape of the inner surface of the cylinder; The information marking unit, connected to the location acquisition unit, is used to perform gridding on the curved surface to obtain multiple grid regions, mark the grid regions with identities, and mark the dimensions of the lines in the grid regions. The position determination unit, connected to the information marking unit, is used to set several position points corresponding to the light illumination rules marked in the 3D model of the product on the curved surface surrounding the product. The position information of the position points is obtained based on the identity markings of the grid area and the size markings of the lines.

4. The Mini LED environmentally adaptable lighting system according to claim 1, characterized in that: The configuration module includes: The information marking unit is used to collect the three-dimensional model of the location where the product is to be placed, and to mark the location information in the grid area onto the three-dimensional model to obtain the three-dimensional model after location information marking. The configuration unit, connected to the information marking unit, is used to obtain the installation point based on the three-dimensional model after the location information is marked, and to complete the actual setting of the Mini LED.

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