Method and device for generating honeycomb-shaped adjustable low-carbon anti-dazzle system

Abstract

The invention discloses a method and a device for generating a honeycomb-shaped adjustable low-carbon anti-dazzle system. The method comprises the following steps of: 1, establishing a light-emitting unit library of an LED (light-emitting diode) illuminating lamp; 2, establishing a size library of a honeycomb anti-dazzle device of the LED illuminating lamp; 3, establishing an illumination standard library of illumination of a horizontal working surface of the LED illuminating lamp; step 5, establishing a low-carbon energy efficiency database of the LED lighting lamp provided with the honeycomb anti-dazzle device, wherein a relation database between the illuminance of the horizontal working face before the anti-dazzle device is installed and the illuminance of the horizontal working face after the anti-dazzle device is installed is established. According to the method and device for generating the honeycomb-shaped adjustable low-carbon anti-glare system, the glare phenomenon occurring in the using process of an LED lighting lamp at the present stage is effectively avoided, and meanwhile the purpose of low-carbon lighting of the LED lighting lamp in the using process is achieved.

Description

Technical Field

[0001] The invention relates to the field of optical technology, in particular to a method and a device for generating a low-carbon anti-glare system with an adjustable honeycomb shape. Background Art

[0002] At present, in daily life, LED lighting fixtures are often used to provide lighting for indoor spaces at night to ensure the normal activities of people inside the space. However, such high-power LED lamps often produce "glare" phenomenon, which greatly affects the discomfort of users in the space. "Glare" is an undesirable lighting phenomenon. When the brightness of the light source is extremely high or there is a large difference in brightness between the background and the center of the field of vision, "glare" will be generated. The "glare" phenomenon not only affects viewing, but also affects vision health.

[0003] Existing LED lighting fixtures often produce a lot of "glare". In order to solve this problem, first of all, the brightness of the light is usually reduced to control the generation of "glare", but this method will also dim the field of vision; secondly, anti-glare sheets are often placed at the light source of the lamp. This method reduces the impact of "glare" while reducing the luminous flux value of the lamp, so that the space cannot get enough brightness. At the same time, the anti-glare sheet is placed inside the lamp, and it is not easy to adjust the anti-glare sheet according to lighting needs and personal preferences.

[0004] In addition, the current existing LED lighting fixtures have a relatively complex structure. Regardless of the size of the luminous area of ​​the fixture, the pore size of the anti-glare sheet is the same parameter, and the selection of the anti-glare sheet requires the fixture to be disassembled and assembled. Once the fixture is damaged during the process, it needs to be replaced as a whole, which wastes resources and is not conducive to reducing costs and recycling.

[0005] On the other hand, in recent years, my country has been continuously advocating low-carbon and energy-saving energy usage. The current usage of LED lighting fixtures cannot simultaneously meet the anti-glare and low-carbon energy-saving effects of LED lighting fixtures. Summary of the invention

[0006] The purpose of the present invention is to provide a method and device for generating a low-carbon anti-glare system with an adjustable honeycomb shape, so as to solve the problems of complex lamp structure, high maintenance cost of lamps, discomfort to users, damage to users' eyesight, dimming of vision or insufficient brightness after glare reduction, and inability to take into account both anti-glare and low-carbon energy saving in daily life lighting at this stage.

[0007] To achieve the above-mentioned purpose, the present invention adopts the following technical solution: The present invention provides a method for generating a low-carbon anti-glare system with an adjustable honeycomb shape.

[0008] Step 1: Create a light unit library for LED lighting fixtures:

[0009] Step 2: Establish the size library of honeycomb anti-glare devices for LED lighting fixtures:

[0010] Step 3: Establish a standard library of illumination for horizontal working surfaces of LED lighting fixtures:

[0011] Step 4: Establish a library of the relationship between the illumination attenuation of the horizontal working surface before the anti-glare device is installed on the LED lighting fixture and the illumination attenuation of the horizontal working surface after the anti-glare device is installed:

[0012] Step five: Establish a low-carbon energy efficiency database for LED lighting fixtures equipped with honeycomb anti-glare devices.

[0013] Further, in step 1, the light-emitting unit library includes: establishing a recommended light-emitting unit library of LED lighting fixtures based on the conventional size of the current LED lighting fixtures; establishing a custom light-emitting unit library of LED lighting fixtures based on the special size of the current LED lighting fixtures;

[0014] The conventional size of the LED lighting fixture is the commonly used size of lighting equipment in current building spaces;

[0015] The special size of the LED lighting fixture is the special size of the lighting equipment in the special building space;

[0016] The LED lighting fixture data includes the horizontal working surface illumination before the LED lighting fixture is installed with an anti-glare device, the honeycomb anti-glare device, and the horizontal working surface illumination after the LED lighting fixture is installed with the anti-glare device.

[0017] Furthermore, in step 2, the size library of the honeycomb anti-glare device includes honeycomb aperture sizes of the honeycomb anti-glare device, thickness sizes of the honeycomb anti-glare device, and sizes of relative positions of the honeycomb anti-glare device and the light emitting surface of the light source.

[0018] Furthermore, in step three, the illumination standard library of the horizontal working surface illumination of the LED lighting fixture is established based on the illumination standard requirements for different spaces inside a building in the "Building Lighting Design Standard" GB50034.

[0019] Further, in step 4, the illumination attenuation relationship library includes illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed, relevant data of the honeycomb anti-glare device size library, and illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed;

[0020] The illumination attenuation relationship library is the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed, which is the illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed after being superimposed with the relevant data of the honeycomb anti-glare device size library; the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed is the data value of the illumination data of the horizontal working surface of the benchmark LED lighting fixture before the anti-glare device is installed;

[0021] The horizontal working surface illumination data of the LED lighting fixture after the anti-glare device is installed is the horizontal working surface illumination data of the LED lighting fixture after the illumination is attenuated by the honeycomb anti-glare device and meets the corresponding space illumination standard in the building space.

[0022] Furthermore, in step five, the device automatically adjusts the brightness of the light source of the LED lighting fixture, which is a built-in spatial behavior perception module and a user system custom setting module of the LED lighting fixture; the spatial behavior perception module is a built-in sensing module of the LED lighting fixture, which perceives the user behavior and the number of users in the space, and automatically adjusts the illumination value of the LED lighting fixture on the premise of meeting the spatial illumination standard, thereby reducing the energy consumption of the LED lighting fixture during use and achieving low-carbon lighting; the user system custom setting module is a built-in setting module of the LED lighting fixture, and the user can customize the brightness of the space LED lighting fixture to reduce the energy consumption of the LED lighting fixture during use and achieve low-carbon lighting.

[0023] The present invention also provides a generation device of a low-carbon anti-glare model based on an adjustable honeycomb shape, comprising a building module for building a light-emitting unit library of an LED lighting fixture, wherein the light-emitting unit library of the LED lighting fixture comprises at least a light-emitting unit library of a conventional size and a light-emitting unit library of a special size;

[0024] Determination module 1, used to determine the type of space where the LED lighting fixture to be installed needs to be installed, and correspondingly determine the illumination requirement of the LED lighting fixture in the space;

[0025] An acquisition module, used to acquire relevant size information of the LED lighting fixture determined by the user based on the space type;

[0026] Determination module 2, for generating the low-carbon anti-glare model with adjustable honeycomb shape based on the attribute information of the LED lighting fixture and the established illumination attenuation relationship library;

[0027] The determination module 1 comprises:

[0028] An acquisition unit 1 is used to acquire information about the type of space in which the LED lighting fixture to be installed needs to be installed, and to acquire information about the required size of the LED lighting fixture to be installed;

[0029] A determination unit 1, configured to determine, based on the acquired corresponding attribute information, whether the size requirements of the building space and the LED lighting fixture meet the preset requirements;

[0030] The acquisition module comprises:

[0031] Determining unit 2, used to determine the installation environment and required size of the required LED lighting fixture;

[0032] The second determining module comprises:

[0033] Determine subunit 1, for corresponding to the "Architectural Lighting Design Standard" based on the installation environment of the LED lighting fixture

[0034] GB50034, determine the brightness data requirements of the building space, and generate the low-carbon anti-glare model with adjustable honeycomb shape;

[0035] Determining subunit 2, for determining the coverage area information of the honeycomb-shaped adjustable anti-glare net based on the size information of the LED lighting fixture, and generating the low-carbon anti-glare model with adjustable honeycomb shape;

[0036] Determine subunit 3, for determining relevant size data and installation position data of the honeycomb-shaped adjustable anti-glare net based on the illumination information of the horizontal working surface of the LED lighting fixture and according to the illumination attenuation relationship law, and generate the honeycomb-shaped adjustable low-carbon anti-glare model;

[0037] Determine subunit 4, which is used to determine the relevant size information of the honeycomb-shaped adjustable anti-glare net based on the information of the installation environment of the LED lighting fixture, corresponding to the illumination requirement of the space, and combining the law of illumination attenuation relationship, including determining the honeycomb aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size information of the relative position of the honeycomb anti-glare device and the light-emitting surface of the light source, to generate the low-carbon anti-glare model with adjustable honeycomb shape.

[0038] The present invention also provides a generation system comprising a generation device of the low-carbon anti-glare model with adjustable honeycomb shape.

[0039] The beneficial effects of the present invention are embodied in:

[0040] 1. The present invention provides a method and device for generating a low-carbon anti-glare system with an adjustable honeycomb shape, which effectively solves the glare phenomenon that occurs during the use of LED lighting fixtures at this stage, and at the same time meets the purpose of low-carbon lighting during the use of LED lighting fixtures.

[0041] 2. The present invention provides a method and device for generating a low-carbon anti-glare system with an adjustable honeycomb shape, which meets the requirements of low-carbon and energy-saving energy. The use of LED lighting fixtures can achieve the effects of anti-glare and low-carbon energy saving at the same time.

[0042] Other features and advantages of the present invention will be described in the following description, and partly become obvious from the description, or be understood by practicing the present invention. The main purpose and other advantages of the present invention can be realized and obtained by the schemes particularly pointed out in the description. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] The present invention will be further described in detail below in conjunction with the accompanying drawings.

[0044] Figure 1 It is a schematic flow chart of a method for generating a low-carbon anti-glare system with an adjustable honeycomb shape provided by an embodiment of the present invention;

[0045] Figure 2 It is a schematic diagram of a process for establishing a light-emitting unit library of an LED lighting fixture based on a low-carbon anti-glare model with an adjustable honeycomb shape provided by an embodiment of the present invention;

[0046] Figure 3 It is a schematic diagram of a flow chart of establishing a honeycomb glare device size library based on a low-carbon anti-glare model with adjustable honeycomb shape provided by an embodiment of the present invention;

[0047] Figure 4 It is a schematic diagram of a process for establishing a standard library of illumination of a horizontal working surface of an LED lighting fixture based on a low-carbon anti-glare model with an adjustable honeycomb shape provided by an embodiment of the present invention;

[0048] Figure 5 It is a schematic diagram of a flow chart of establishing an illumination attenuation relationship library based on a low-carbon anti-glare model with adjustable honeycomb shape provided by an embodiment of the present invention;

[0049] Figure 6 It is a schematic diagram of a low-carbon energy efficiency database establishment process of an LED lighting fixture superimposed with a honeycomb anti-glare device based on a low-carbon anti-glare model with an adjustable honeycomb shape provided by an embodiment of the present invention;

[0050] Figure 7 It is a schematic structural diagram of a generating device of a low-carbon anti-glare model based on an adjustable honeycomb shape provided by an embodiment of the present invention;

[0051] Figure 8 The lighting environment and energy consumption data of the space before the renovation;

[0052] Fig. 9 It is the lighting environment and energy consumption data of the space after transformation. DETAILED DESCRIPTION

[0053] The present invention provides a method for generating a low-carbon anti-glare system with an adjustable honeycomb shape.

[0054] Step 1, establishing a light-emitting unit library of LED lighting fixtures: wherein the light-emitting unit library includes establishing a recommended light-emitting unit library of LED lighting fixtures based on the conventional size of the current LED lighting fixtures; establishing a custom light-emitting unit library of LED lighting fixtures based on the special size of the current LED lighting fixtures;

[0055] The conventional size of the LED lighting fixture is the commonly used size of lighting equipment in current building spaces;

[0056] The special size of the LED lighting fixture is the special size of the lighting equipment in the special building space;

[0057] The LED lighting fixture data includes the horizontal working surface illumination before the LED lighting fixture is installed with an anti-glare device, the honeycomb anti-glare device, and the horizontal working surface illumination after the LED lighting fixture is installed with the anti-glare device.

[0058] Step 2, establishing a size library of honeycomb anti-glare devices for LED lighting fixtures: In step 2, the size library of honeycomb anti-glare devices includes the honeycomb aperture size of the honeycomb anti-glare devices, the thickness size of the honeycomb anti-glare devices, and the size of the relative position of the honeycomb anti-glare devices and the light-emitting surface of the light source.

[0059] Step three, establishing an illumination standard library for the horizontal working surface illumination of LED lighting fixtures: In step three, the illumination standard library for the horizontal working surface illumination of LED lighting fixtures is established based on the illumination standard requirements for different spaces inside buildings in the "Building Lighting Design Standard" GB50034.

[0060] Step 4: Establish a library of the relationship between the illumination of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed and the illumination attenuation of the horizontal working surface after the anti-glare device is installed: wherein the illumination attenuation library includes the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed, the relevant data of the honeycomb anti-glare device size library, and the illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed;

[0061] The illumination attenuation relationship library is the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed, which is the illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed after being superimposed with the relevant data of the honeycomb anti-glare device size library; the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed is the data value of the illumination data of the horizontal working surface of the benchmark LED lighting fixture before the anti-glare device is installed;

[0062] The horizontal working surface illumination data of the LED lighting fixture after the anti-glare device is installed is the horizontal working surface illumination data of the LED lighting fixture after the illumination is attenuated by the honeycomb anti-glare device and meets the corresponding space illumination standard in the building space.

[0063] Step 5: Establish a low-carbon energy efficiency database for LED lighting fixtures equipped with honeycomb anti-glare devices. In step 5, the device automatically adjusts the brightness of the light source of the LED lighting fixture, which is a built-in spatial behavior perception module and a user system custom setting module of the LED lighting fixture; the spatial behavior perception module is a built-in sensing module of the LED lighting fixture, which perceives the user behavior and the number of users in the space, and automatically adjusts the illumination value of the LED lighting fixture on the premise of meeting the spatial illumination standard, thereby reducing the energy consumption of the LED lighting fixture during use and achieving low-carbon lighting; the user system custom setting module is a built-in setting module of the LED lighting fixture, and the user can customize the brightness of the space LED lighting fixture to reduce the energy consumption of the LED lighting fixture during use and achieve low-carbon lighting.

[0064] The present invention also provides a generation device of a low-carbon anti-glare model based on an adjustable honeycomb shape, comprising a building module for building a light-emitting unit library of an LED lighting fixture, wherein the light-emitting unit library of the LED lighting fixture comprises at least a light-emitting unit library of a conventional size and a light-emitting unit library of a special size;

[0065] Determination module 1, used to determine the type of space where the LED lighting fixture to be installed needs to be installed, and correspondingly determine the illumination requirement of the LED lighting fixture in the space;

[0066] An acquisition module, used to acquire relevant size information of the LED lighting fixture determined by the user based on the space type;

[0067] Determination module 2, for generating the low-carbon anti-glare model with adjustable honeycomb shape based on the attribute information of the LED lighting fixture and the established illumination attenuation relationship library;

[0068] The determination module 1 comprises:

[0069] An acquisition unit 1 is used to acquire information about the type of space in which the LED lighting fixture to be installed needs to be installed, and to acquire information about the required size of the LED lighting fixture to be installed;

[0070] A determination unit 1, configured to determine, based on the acquired corresponding attribute information, whether the size requirements of the building space and the LED lighting fixture meet the preset requirements;

[0071] The acquisition module comprises:

[0072] Determining unit 2, used to determine the installation environment and required size of the required LED lighting fixture;

[0073] The second determining module comprises:

[0074] Determine subunit 1, for corresponding to the "Architectural Lighting Design Standard" based on the installation environment of the LED lighting fixture

[0075] GB50034, determine the brightness data requirements of the building space, and generate the low-carbon anti-glare model with adjustable honeycomb shape;

[0076] Determining subunit 2, for determining the coverage area information of the honeycomb-shaped adjustable anti-glare net based on the size information of the LED lighting fixture, and generating the low-carbon anti-glare model with adjustable honeycomb shape;

[0077] Determine subunit 3, for determining relevant size data and installation position data of the honeycomb-shaped adjustable anti-glare net based on the illumination information of the horizontal working surface of the LED lighting fixture and according to the illumination attenuation relationship law, and generate the honeycomb-shaped adjustable low-carbon anti-glare model;

[0078] Determine subunit 4, for determining relevant size information of the honeycomb-shaped adjustable anti-glare net based on the information of the installation environment of the LED lighting fixture, corresponding to the illumination requirement of the space, and combining the law of illumination attenuation relationship, including determining the honeycomb aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size information of the relative position between the honeycomb anti-glare device and the light-emitting surface of the light source, and generating the low-carbon anti-glare model with adjustable honeycomb shape;

[0079] The present invention also provides a generation system comprising a generation device of the low-carbon anti-glare model with adjustable honeycomb shape.

[0080] Example:

[0081] See also Figure 1-Figure 6 , Figure 1 A schematic flow chart of a method for generating a low-carbon anti-glare system with an adjustable honeycomb shape provided by an embodiment of the present invention, the generating method comprising:

[0082] S1. The LED lighting fixture light-emitting unit library established in this embodiment, wherein the LED lighting fixture light-emitting unit library includes a common size library of LED lighting fixtures and a special size library of LED lighting fixtures;

[0083] S11. The LED lighting fixture light unit library established in this embodiment contains all the optical information of the LED lighting fixture, allowing the luminous intensity and size of the light source to be fine-tuned within a certain range, and the change of the luminous intensity and size of the light source causes other optical parameters of the LED lighting fixture to change, such as the color temperature, spectrum, stroboscopic and other data information of the LED lighting fixture;

[0084] Among them, fine-tuning within a certain range means that the above parameters can be slightly adjusted as needed. If there is a parameter range that does not meet the production and realization range of LED lighting manufacturers, the generation process will stop the setting and realization of the parameter;

[0085] S12. Specifically, the lamp information of the LED lighting fixture includes three parts: illumination data of the horizontal working surface before the LED lighting fixture is installed with an anti-glare device, the honeycomb anti-glare device, and illumination data of the horizontal working surface after the LED lighting fixture is installed with the anti-glare device. In this embodiment, the relevant dimensions and data of the LED lighting fixture will also be carried out around these three parts of the LED lighting fixture;

[0086] S13. Specifically, the commonly used size library of LED lighting fixtures refers to the size information of commonly used lighting fixtures formed by current lighting fixture manufacturers based on building space, lamp performance, and usage requirements. The common frequency of the size information is more than 98%. The system will collect and summarize the above conventional data of LED lighting fixtures to form a commonly used size library of LED lighting fixtures;

[0087] Specifically, the special size library of LED lighting fixtures refers to the size information of special lighting fixtures formed by current lighting fixture manufacturers based on building space, lamp performance, and usage requirements. The common frequency of the size information shown is no more than 2%. The system will collect and summarize the above special size data of LED lighting fixtures to form a special size library of LED lighting fixtures;

[0088] S2. The honeycomb glare device size library of the LED lighting fixture established in this embodiment contains all the optical information of the corresponding LED lighting fixture, and allows the size data in the honeycomb glare device size library to be fine-tuned according to the size of the LED lighting fixture;

[0089] S21, the size information of the honeycomb glare device size library may correspond to the size information in S13 in the LED lighting fixture light unit library established in S1;

[0090] S22, the size information of the honeycomb anti-glare device size library, including the aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size information of the relative position of the honeycomb anti-glare device and the light-emitting surface;

[0091] Specifically, the honeycomb anti-glare device is a metal mesh composed of regular hexagonal honeycomb grids, which is placed between the light-emitting surface of the LED lighting fixture and the light-emitting surface of the LED lighting fixture to reduce the glare effect of the LED lighting fixture;

[0092] Specifically, the aperture size of the honeycomb anti-glare device is the side length of the regular hexagonal honeycomb grid. In view of the moderate light-emitting surface area of ​​lamps used in architectural spaces with anti-glare requirements, the aperture size of the honeycomb anti-glare device is calculated in mm or cm.

[0093] Specifically, the thickness dimension of the honeycomb anti-glare device is the longitudinal thickness dimension of the metal mesh composed of regular hexagonal honeycomb grids. In view of the moderate light-emitting surface area of ​​the lamps used in the current architectural space with anti-glare requirements, and the close distance between the light source light-emitting surface of the LED lighting fixture and the light-emitting surface of the LED lighting fixture, the thickness dimension of the honeycomb anti-glare device is calculated in mm.

[0094] Specifically, the size of the relative position of the honeycomb anti-glare device and the light-emitting surface is the distance size information of the relative position between the honeycomb anti-glare device and the light-emitting surface of the LED lighting fixture and the light-emitting surface of the LED lighting fixture. In view of the fact that the distance between the light-emitting surface of the LED lighting fixture and the light-emitting surface of the LED lighting fixture is relatively close, the distance size unit of the relative position of the honeycomb anti-glare device and the light-emitting surface is calculated in mm;

[0095] Specifically, the size of the relative position of the honeycomb anti-glare device and the light-emitting surface is that, in view of the close distance between the light source light-emitting surface of the LED lighting fixture and the light-emitting surface of the LED lighting fixture, the honeycomb anti-glare device is moved along the longitudinal axis of the light-emitting surface with an amplitude of 1 mm during the position adjustment;

[0096] S3. The illumination standard library of the horizontal working surface of LED lighting fixtures established in this embodiment is a library that summarizes the illumination requirements of lighting equipment in different building spaces in accordance with the "Architectural Lighting Design Standard" GB50034;

[0097] S31, the different building spaces are building spaces that have LED lighting fixture installation requirements, and are summarized according to space types;

[0098] Specifically, the building space types (as shown in Table 1) include but are not limited to:

[0099] Table 1 Summary of building space types

[0100]

[0101] S32. The illumination requirements of lighting equipment are the standard illumination requirements for building lighting equipment in different building spaces and with different usage requirements;

[0102] Specifically, the illumination standard requirement value of the lighting equipment is the requirement of the "Architectural Lighting Design Standard" GB50034 for the illumination standard of lighting equipment in different building spaces;

[0103] Specifically, the illumination standard requirement values ​​of different building spaces are summarized, and the illumination standard value summary includes but is not limited to the following:

[0104] Table 2 Summary of illumination standard values ​​for different building spaces

[0105]

[0106] S4, the illumination attenuation relationship library of the LED lighting fixture superimposed on the honeycomb glare device established in this embodiment, wherein the illumination attenuation relationship library is a set of reduction relationships of the honeycomb glare device on the illumination of the horizontal working surface of the LED lighting fixture;

[0107] S41, the LED lighting fixture illumination includes the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed, and the illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed;

[0108] S42, the illumination attenuation relationship library is a relationship model obtained based on multiple simulations and experiments, the linear regression analysis results are shown in Table 3, and the obtained data set establishes an illumination attenuation relationship library;

[0109] Table 1 Linear regression analysis results

[0110]

[0111]

[0112] Dependent variable: Final illuminance

[0113] S42, the illumination attenuation relationship model is established based on the linear regression analysis results in Table 3, as shown in Formula 1:

[0114] E 最终 =-10.034+0.986×E 初始 -0.40×L 孔隙 -0.176×L 厚度 -0.169×L 距离 (1)

[0115] Among them, E 最终 Indicates the final illumination, unit: lx;

[0116] E初始 Indicates the initial illumination, unit: lx;

[0117] L 孔隙 Indicates the honeycomb side length, unit: mm;

[0118] L 厚度 Indicates the honeycomb height, unit: mm;

[0119] L 距离 Indicates the relative position of the anti-glare device, unit: mm;

[0120] S5. The low-carbon energy efficiency database of the LED lighting fixture superimposed with the honeycomb anti-glare device established in this embodiment is a collection of low-carbon energy efficiency values ​​of the device automatically adjusting the light source brightness of the LED lighting fixture when the LED lighting fixture meets the spatial illumination and anti-glare requirements;

[0121] S51, the device automatically adjusts the brightness of the light source of the LED lighting fixture, which is a built-in spatial behavior perception module and a user system custom setting module of the LED lighting fixture;

[0122] S52, the space behavior perception module is a built-in sensing module of the LED lighting fixture, which perceives the user behavior and the number of users in the space, and automatically adjusts the illumination value of the LED lighting fixture on the premise of meeting the space illumination standard, thereby reducing the energy consumption of the LED lighting fixture during use and achieving low-carbon lighting;

[0123] S53, the user system custom setting module is a built-in setting module of the LED lighting fixture, and the user can customize the brightness of the space LED lighting fixture to reduce the energy consumption of the LED lighting fixture during use and achieve low-carbon lighting;

[0124] Based on the above-mentioned embodiment of a method for generating a low-carbon anti-glare model based on an adjustable honeycomb shape, the present invention also provides a device for generating a low-carbon anti-glare model based on an adjustable honeycomb shape, such as Figure 7 As shown;

[0125] Establishing module M11, used to establish a light-emitting unit library of LED lighting fixtures, wherein the light-emitting unit library of LED lighting fixtures at least includes a light-emitting unit library of regular sizes and a light-emitting unit library of special sizes;

[0126] The determination module 1M12 is used to determine the type of space where the LED lighting fixture to be installed needs to be installed, and correspondingly determine the brightness requirement of the LED lighting fixture in the space;

[0127] An acquisition module M13 is used to acquire relevant size information of the LED lighting fixture determined by the user based on the space type;

[0128] A determination module 2M14, configured to generate the low-carbon anti-glare model with an adjustable honeycomb shape based on the attribute information of the LED lighting fixture and the established brightness attenuation relationship library;

[0129] The determination module 1M12 includes:

[0130] The acquisition unit 1M121 is used to acquire information about the type of space in which the LED lighting fixture to be installed needs to be installed, and acquire information about the required size of the LED lighting fixture to be installed;

[0131] A determination unit 1M122, configured to determine, based on the acquired corresponding attribute information, whether the size requirements of the building space and the LED lighting fixture meet the preset requirements;

[0132] The acquisition module M13 includes:

[0133] Determination unit 2M131, used to determine the installation environment and required size of the required LED lighting fixture;

[0134] The determination module 2M14 includes:

[0135] Determine subunit 1M141, which is used to determine the illumination data requirements of the building space based on the installation environment of the LED lighting fixture, corresponding to the "Architectural Lighting Design Standard" GB50034, and generate the low-carbon anti-glare model with adjustable honeycomb shape;

[0136] Determine subunit 2M142, for determining coverage area information of the honeycomb-shaped adjustable anti-glare net based on the size information of the LED lighting fixture, and generating the honeycomb-shaped adjustable low-carbon anti-glare model;

[0137] Determine subunit 3M143, for determining relevant size data and installation position data of the honeycomb-shaped adjustable anti-glare net based on the illumination information of the LED lighting fixture and according to the illumination attenuation relationship law, and generate the honeycomb-shaped adjustable low-carbon anti-glare model;

[0138] Determine subunit 4M144, which is used to determine the relevant size information of the honeycomb-shaped adjustable anti-glare net based on the information of the installation environment of the LED lighting fixture, corresponding to the illumination demand of the space, and combining the law of illumination attenuation relationship, including determining the honeycomb aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size information of the relative position between the honeycomb anti-glare device and the light-emitting surface of the light source, and generate the low-carbon anti-glare model with adjustable honeycomb shape;

[0139] A generation system of a low-carbon anti-glare model based on an adjustable honeycomb shape includes any one of the above-mentioned generation devices of a low-carbon anti-glare model with an adjustable honeycomb shape. The working principle thereof can be found in the above-mentioned method embodiment, and will not be described again;

[0140] This embodiment provides a method, device and system for generating a low-carbon anti-glare system based on an adjustable honeycomb shape. The generation method first establishes a light-emitting unit library of LED lighting fixtures, and the light-emitting unit library of LED lighting fixtures includes a library of commonly used sizes of LED lighting fixtures and a library of special sizes of LED lighting fixtures. Then, according to the type of building space, user usage requirements and other contents, a honeycomb glare device size library of LED lighting fixtures, a standard library of illumination of light-emitting units of LED lighting fixtures, a library of illumination attenuation relationships of honeycomb glare devices, and a low-carbon energy efficiency library of LED lighting fixtures are successively established, and a low-carbon anti-glare model based on an adjustable honeycomb shape is generated. It can be seen that the embodiment of the present invention provides a method, device and system for generating a low-carbon anti-glare system based on an adjustable honeycomb shape, which can combine anti-glare and low-carbon lighting in the design of LED lighting fixtures.

[0141] See also Figure 8 Space lighting environment and energy consumption data before renovation Fig. 9 The lighting environment and energy consumption data of the space after the renovation are shown in the simulation data results of the lighting calculation software DIAlux evo. After using the illuminance attenuation relationship model:

[0142] E 最终 =-10.034+0.986×E 初始 -0.40×L 孔隙 -0.176×L 厚度 -0.169×L 距离 (1)

[0143] Among them, E 最终 Indicates the final illumination, unit: lx;

[0144] E 初始 Indicates the initial illumination, unit: lx;

[0145] L 孔隙 Indicates the honeycomb side length, unit: mm;

[0146] L 厚度 Indicates the honeycomb height, unit: mm;

[0147] L 距离 Indicates the relative position of the anti-glare device, unit: mm;

[0148] Firstly, after the luminaires were equipped with honeycomb anti-glare devices, the lighting environment of the classroom space was greatly improved, which had a significant effect in improving the comfort of the lighting environment;

[0149] Secondly, the lighting environment in the building space has been significantly improved after the use of the honeycomb anti-glare device made based on the illumination attenuation relationship model. Figure 8 and Fig. 9 As shown in the figure, the illuminance value of the lighting fixtures on the test surface has not only been significantly improved, but also good lighting uniformity has been shown in the building space;

[0150] According to energy consumption data, the energy consumption of building space has been reduced after the lighting fixtures used honeycomb-shaped adjustable low-carbon anti-glare devices.

[0151] The present invention provides a size library for establishing LED lighting fixtures, and the size library includes a conventional size library for LED lighting fixtures and a special size library for LED lighting fixtures. Then, according to the illumination attenuation relationship of the horizontal working surface of the LED lighting fixture superimposed with a honeycomb anti-glare device, and in accordance with the illumination requirements for LED lighting fixtures in different building spaces in the "Architectural Lighting Design Standard" GB50034, the relevant size information of the honeycomb-shaped adjustable anti-glare net is determined, including the honeycomb aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size information of the relative position of the honeycomb anti-glare device and the light-emitting surface of the light source, and the low-carbon anti-glare model with adjustable honeycomb shape is generated. The present invention enables LED lighting fixtures to meet the anti-glare requirements and illumination standards while also greatly reducing energy consumption in the lighting process, thereby achieving low-carbon lighting.

[0152] In summary, a method, device and system for generating a low-carbon anti-glare system based on an adjustable honeycomb shape can improve the lighting environment of a building space, optimize the comfort of the lighting environment, and significantly reduce the operating energy consumption and carbon emissions of the building space.

[0153] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any changes or substitutions that a technician familiar with the technical field can think of within the technical scope disclosed in the present invention should be covered within the protection scope of the present invention.

Claims

1. A method for generating a low-carbon anti-glare system with adjustable honeycomb shape, Features: Step 1: Create a light unit library for LED lighting fixtures: Step 2: Establish the size library of honeycomb anti-glare devices for LED lighting fixtures: Step 3: Establish a standard library of illumination for horizontal working surfaces of LED lighting fixtures: Step 4: Establish a library of the relationship between the illumination attenuation of the horizontal working surface before the anti-glare device is installed on the LED lighting fixture and the illumination attenuation of the horizontal working surface after the anti-glare device is installed: Step five: Establish a low-carbon energy efficiency database for LED lighting fixtures equipped with honeycomb anti-glare devices.

2. The generation method according to claim 1, It is characterized in that In step 1, the light-emitting unit library includes: establishing a recommended light-emitting unit library of LED lighting fixtures based on the conventional size of the current LED lighting fixtures; establishing a custom light-emitting unit library of LED lighting fixtures based on the special size of the current LED lighting fixtures; The conventional size of LED lighting fixtures is the common size of lighting equipment in current building spaces; Special dimensions of LED lighting fixtures, which are special dimensions of lighting equipment in special building spaces; The data of LED lighting fixtures include the horizontal working surface illumination before the LED lighting fixture is installed with the anti-glare device, the honeycomb anti-glare device, and the horizontal working surface illumination after the LED lighting fixture is installed with the anti-glare device.

3. The generation method according to claim 1, It is characterized in that In step 2, the size library of the honeycomb anti-glare device includes the honeycomb aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size of the relative position between the honeycomb anti-glare device and the light emitting surface of the light source.

4. The generation method according to claim 1, It is characterized in that In step three, the illumination standard library of the horizontal working surface illumination of LED lighting fixtures is established based on the illumination standard requirements for different spaces inside buildings in the "Building Lighting Design Standard" GB50034.

5. The generation method according to claim 1, It is characterized in that In step 4, the illumination attenuation relationship library includes the illumination data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed, the relevant data of the honeycomb anti-glare device size library, and the illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed; The illuminance attenuation relationship library is the illuminance data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed. After being superimposed with the relevant data of the honeycomb anti-glare device size library, the illuminance data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed; the illuminance data of the horizontal working surface of the LED lighting fixture before the anti-glare device is installed is the data value of the illuminance data of the horizontal working surface of the benchmark LED lighting fixture before the anti-glare device is installed; The illumination data of the horizontal working surface of the LED lighting fixture after the anti-glare device is installed is the illumination data of the horizontal working surface of the LED lighting fixture after the illumination is attenuated by the honeycomb anti-glare device and meets the corresponding space illumination standard in the building space.

6. The generation method according to claim 1, It is characterized in that In step five, the device automatically adjusts the brightness of the light source of the LED lighting fixture, which is a built-in spatial behavior perception module and a user system custom setting module of the LED lighting fixture; the spatial behavior perception module is a built-in sensing module of the LED lighting fixture, which perceives the user behavior and the number of users in the space, and automatically adjusts the illumination value of the LED lighting fixture on the premise of meeting the spatial illumination standard, thereby reducing the energy consumption of the LED lighting fixture during use and achieving low-carbon lighting; the user system custom setting module is a built-in setting module of the LED lighting fixture, and the user can customize the brightness of the space LED lighting fixture to reduce the energy consumption of the LED lighting fixture during use and achieve low-carbon lighting.

7. A device for generating a low-carbon anti-glare model based on an adjustable honeycomb shape, It is characterized in that It includes a building module for building a light-emitting unit library of LED lighting fixtures, and the light-emitting unit library of LED lighting fixtures includes at least a light-emitting unit library of conventional sizes and a light-emitting unit library of special sizes; Determination module 1, used to determine the type of space where the LED lighting fixture to be installed needs to be installed, and correspondingly determine the illumination requirement of the LED lighting fixture in the space; An acquisition module is used to acquire relevant size information of LED lighting fixtures determined by the user based on the space type; Determine module 2, for generating a low-carbon anti-glare model with an adjustable honeycomb shape based on the attribute information of the LED lighting fixture and the established illumination attenuation relationship library; Determine module 1 includes: An acquisition unit 1 is used to acquire information about the type of space in which the LED lighting fixture to be installed needs to be installed, and to acquire information about the required size of the LED lighting fixture to be installed; A determination unit 1, configured to determine the size requirements of the building space and the LED lighting fixtures in accordance with the preset requirements based on the corresponding attribute information obtained; The acquisition modules include: Determining unit 2, used to determine the installation environment and required size of the required LED lighting fixture; The second determination module includes: Determine subunit 1, which is used to determine the brightness data requirements of the building space based on the installation environment of the LED lighting fixture, corresponding to the "Architectural Lighting Design Standard" GB50034, and generate a low-carbon anti-glare model with an adjustable honeycomb shape; Determine subunit 2, for determining the coverage area information of the honeycomb-shaped adjustable anti-glare net based on the size information of the LED lighting fixture, and generating a low-carbon anti-glare model with an adjustable honeycomb shape; Determine subunit 3, which is used to determine the relevant size data and installation position data of the honeycomb-shaped adjustable anti-glare net based on the illumination information of the horizontal working surface of the LED lighting fixture and the illumination attenuation relationship law, and generate a low-carbon anti-glare model with an adjustable honeycomb shape; Determine subunit 4, which is used to determine the relevant size information of the honeycomb-shaped adjustable anti-glare net based on the information of the installation environment of the LED lighting fixture, corresponding to the illumination demand of the space, and combining the law of illumination attenuation relationship, including determining the honeycomb aperture size of the honeycomb anti-glare device, the thickness size of the honeycomb anti-glare device, and the size information of the relative position of the honeycomb anti-glare device and the light-emitting surface of the light source, to generate a low-carbon anti-glare model with an adjustable honeycomb shape.

8. A generating system comprising the generating device of the low-carbon anti-glare pattern with adjustable honeycomb shape as claimed in claim 7.

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