Device and design method of low-carbon anti-dazzle system for LED lighting lamp

Abstract

The invention discloses a device of a low-carbon anti-dazzle system for an LED lighting lamp and a design method. The device comprises the LED lighting lamp used for lighting, a honeycomb anti-dazzle device used for improving the comfort degree of a lighting environment and achieving low-carbon lighting, a behavior sensing device used for achieving intelligence and a user system user-defined setting module used for meeting flexible lighting requirements. The LED lighting lamp comprises an LED lighting lamp transparent lampshade, an LED lighting lamp shell, an LED lighting lamp light-emitting source lamp set and an LED lighting lamp power-on base arranged at the bottom. Wherein the transparent lampshade of the LED illuminating lamp is arranged at the front end of the LED illuminating lamp, and the transparent lampshade of the LED illuminating lamp is made of a high-light-transmittance material. The honeycomb anti-dazzle mesh can be adjusted according to the size of the light-emitting area of the LED lighting lamp, and the side length and the thickness size of the regular hexagon units forming the honeycomb anti-dazzle mesh can be adjusted according to the size of the light-emitting area of the LED lighting lamp.

Description

Technical Field

[0001] The present invention relates to the field of optical technology, and in particular to a device and a design method for a low-carbon anti-glare system for an LED lighting fixture. Background Art

[0002] In daily life, LED lighting equipment is often used to provide lighting for indoor spaces at night to ensure the normal behavior and activities of people inside the space. However, this kind of high-power LED lamps often produce "glare" phenomenon, affecting the vision of some users in the space and causing discomfort.

[0003] "Glare" is an adverse 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 occur. The "glare" phenomenon not only affects viewing, but also has an impact on vision health.

[0004] Existing LED lights often produce a lot of "glare" phenomenon. 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 make the visual field environment darker and reduce the human eye's recognition of the environment in the space; secondly, in order to prevent the generation of "glare" phenomenon, anti-glare sheets are often placed at the front end of the light source of the lamp. This method effectively reduces the occurrence of "glare" effect of LED lighting fixtures, but it also reduces the illumination value of LED lighting fixtures, so that the space cannot get enough brightness. At the same time, the anti-glare device is usually placed inside the lampshade of the lamp, and it is not easy to flexibly adjust the anti-glare sheet according to the lighting needs and personal preferences.

[0005] 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 aperture size of the anti-glare device is the same parameter, and the replacement of the anti-glare device requires the disassembly of the fixture. Once the anti-glare device is damaged during use, it needs to be replaced as a whole, which not only wastes resources, but is also not conducive to the construction of an environmentally friendly society.

[0006] 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

[0007] The purpose of the present invention is to provide a device and design method for a low-carbon anti-glare system for LED lighting fixtures, which solves the problem of uncomfortable space lighting caused by the current LED lighting fixtures being too bright and without appropriate anti-glare measures. In addition, according to the installation requirements and usage requirements of different types of spaces of LED lighting fixtures, the device can flexibly adjust the honeycomb anti-glare device on the basis of automatically adjusting the brightness of the LED lamps to meet the various lighting needs of space users, ultimately achieving the purpose of making LED lighting fixtures low-carbon and anti-glare.

[0008] To achieve the above-mentioned purpose, the present invention adopts the following technical solution: The present invention provides a device including a low-carbon anti-glare system for LED lighting fixtures, including an LED lighting fixture for lighting, a honeycomb anti-glare device for improving the comfort of the lighting environment and realizing low-carbon lighting, a behavior perception device for realizing intelligence, and a user system custom setting module for flexible lighting needs;

[0009] The LED lighting fixture comprises a transparent lampshade, a housing, a light source lamp group and a power connection base arranged at the bottom;

[0010] Among them, the transparent lampshade of the LED lighting fixture is placed at the front end of the LED lighting fixture, and the transparent lampshade of the LED lighting fixture is made of high-light-transmitting material.

[0011] Furthermore, the highly light-transmitting material is glass, acrylic or polycarbonate.

[0012] Furthermore, the transparent lampshade of the LED lighting fixture has threads on the inner side thereof corresponding to the threads on the front section of the wall of the LED lighting fixture. The transparent lampshade of the LED lighting fixture is connected to the wall of the LED lighting fixture by a rotational connection, which facilitates replacement and repair of the LED lighting fixture during use.

[0013] Furthermore, the LED lighting fixture housing has a rotating threaded sleeve on the outer side of the upper end of the LED lighting fixture housing, which is convenient for the installation and removal of the transparent lampshade of the LED lighting fixture; the inner side of the lower end of the LED lighting fixture housing has a rotating threaded sleeve on the inner side, which is convenient for the installation and removal of the power connection base of the LED lighting fixture.

[0014] Furthermore, the LED lighting fixture light source lamp group adopts a light emitting device placed in the LED lighting fixture housing.

[0015] Furthermore, the LED lighting fixture light source lamp group is composed of an LED light-emitting device, an electric connecting wire, and a buckle.

[0016] Furthermore, the LED light-emitting device is formed by a light-emitting surface formed by LED lighting beads, and the shape, size and number of the light-emitting surface are determined by the size and shape of the LED lighting fixture.

[0017] Furthermore, the power connection wire is a reserved hole for the conductive connection wire behind the light-emitting surface of the LED lighting fixture, which facilitates the power supply and light emission of the LED lighting fixture;

[0018] Furthermore, the buckle is a connecting buckle between the light source lamp group of the LED lighting fixture and the LED lighting fixture housing, which facilitates the installation and removal of the light source lamp group of the LED lighting fixture.

[0019] Furthermore, the honeycomb anti-glare device includes a honeycomb anti-glare mesh, a honeycomb anti-glare mesh telescopic copper sheet, a honeycomb anti-glare mesh manual adjustment paddle and a honeycomb anti-glare mesh electric adjustment paddle.

[0020] Furthermore, the honeycomb anti-glare mesh is a honeycomb anti-glare mesh formed by a combination of regular hexagons, and the material of the honeycomb anti-glare mesh is made of a metal material with strong durability and soft texture.

[0021] Furthermore, the regular hexagons are combined to form a honeycomb anti-glare mesh, the side length of which ranges from 5 mm to 10 mm, and the side length is determined according to the size of the LED lighting fixture.

[0022] Furthermore, the telescopic copper sheet of the honeycomb anti-glare mesh is a telescopic copper sheet that pulls the honeycomb anti-glare mesh to open and close. The front end of the telescopic copper sheet is connected to the open end of the honeycomb anti-glare mesh, and the rear end of the telescopic copper sheet is combined with the manual adjustment paddle of the honeycomb anti-glare mesh.

[0023] Furthermore, the honeycomb anti-glare mesh is opened and closed. In order to flexibly select the blocking area of ​​the honeycomb anti-glare mesh, the honeycomb anti-glare mesh is evenly divided into four parts. The bottom edge of each part is connected to the frame of the honeycomb anti-glare mesh, and the top corner of each part is connected to the front end of the telescopic copper sheet. When the telescopic copper sheet moves, it can pull the honeycomb anti-glare mesh to open and close.

[0024] Furthermore, the manual adjustment paddle of the honeycomb anti-glare net is an adjustment device connected to the telescopic copper sheet. The manual adjustment paddle of the honeycomb anti-glare is placed in the middle of the LED lighting fixture housing to facilitate adjustment of the shielding area of ​​the honeycomb anti-glare device from the outside of the LED lighting fixture.

[0025] Furthermore, the electric adjustment paddle of the honeycomb anti-glare net is an electric device that connects the manual adjustment paddle of the honeycomb anti-glare net and the telescopic copper sheet of the honeycomb anti-glare net. One end of the electric adjustment paddle of the honeycomb anti-glare net is connected to the telescopic copper sheet of the honeycomb anti-glare net, and the other end is connected to a behavior sensing device for realizing intelligent low-carbon lighting.

[0026] Furthermore, the behavior sensing device is a sensing device placed on the outer shell of the LED lighting fixture. The sensing device mainly obtains space-related data information, including: space brightness, number of people in the space and other information.

[0027] Furthermore, the behavior sensing device summarizes and analyzes the spatial information collected by the sensing equipment, and flexibly adjusts the illumination, brightness and opening and closing forms of the honeycomb anti-glare net of the LED lighting equipment, ensuring that the LED lighting fixtures can be flexibly adjusted to achieve low-carbon lighting while meeting the lighting needs of the space.

[0028] Furthermore, the user system custom setting module is a custom setting module installed inside the LED lighting fixture and connected to the behavior sensing device.

[0029] Furthermore, the user system custom setting module is a user setting level, where space users can customize the brightness, illumination and opening and closing modes of the LED lighting fixtures as well as the honeycomb anti-glare mesh according to their own needs, so as to facilitate the flexible use of the LED lighting fixtures.

[0030] The present invention also provides a design method for a low-carbon anti-glare system for an LED lighting fixture, comprising the following steps:

[0031] Step 1: Establish a standard library of illumination for horizontal working surfaces of LED lighting fixtures:

[0032] Step 2: Establish a relative position relationship library between the honeycomb anti-glare device and the light-emitting surface of the LED lighting fixture:

[0033] Step 3: Establish the illumination attenuation relationship library of the honeycomb anti-glare device:

[0034] Step 4: Establish a low-carbon energy efficiency database for LED lighting fixtures equipped with honeycomb anti-glare devices.

[0035] Furthermore, in step one, the illumination standard library of the horizontal working surface illumination of LED lighting fixtures is summarized and established based on the illumination standard requirements for different spaces inside buildings in the "Building Lighting Design Standard" GB50034.

[0036] Furthermore, in step 2, the relative position relationship library is a collection library of distance changes between the installation position of the honeycomb anti-glare device and the LED lighting fixture; the installation position of the honeycomb anti-glare device is the position of the gap between the light-emitting surface of the LED lighting fixture and the glass cover of the fixture.

[0037] Further, in step three, the honeycomb anti-glare device illumination attenuation relationship library includes illumination data of the horizontal working surface of the LED lighting fixture before the honeycomb anti-glare device is installed, data related to the size of the honeycomb anti-glare device, and illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed;

[0038] The illumination data of the horizontal working surface before the anti-glare device is installed on the LED lighting fixture is the data value of the illumination data of the horizontal working surface before the anti-glare device is installed on the benchmark LED lighting fixture;

[0039] The illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed is the illumination data value of the horizontal working surface of the LED lighting fixture after the illumination is attenuated by the honeycomb anti-glare device and meets the illumination standard required in the building space.

[0040] Further, in step 4, the low-carbon device of the LED lighting fixture is a space behavior sensing device installed in the LED lighting fixture and a user system custom setting module;

[0041] The low-carbon device of LED lighting fixtures can automatically or customise the relative position data of the honeycomb anti-glare device in the LED fixture and the shielding form of the honeycomb anti-glare device according to the built-in sensing device and the system custom setting module, so as to flexibly meet the space usage and the user's anti-glare usage needs;

[0042] The spatial behavior sensing device is a built-in sensing module of the LED lighting fixture. It senses the user behavior and 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;

[0043] The user system custom setting module is a built-in setting module for LED lighting fixtures. Users can customize the brightness of space LED lighting fixtures to reduce the energy consumption of LED lighting fixtures during use and achieve low-carbon lighting.

[0044] The beneficial effects of the present invention are embodied in:

[0045] 1. The LED lighting fixture provided by the present invention is provided with a honeycomb anti-glare mesh, and the honeycomb anti-glare mesh can be adjusted according to the size of the light-emitting area of ​​the LED lighting fixture, wherein the side length and thickness of the regular hexagonal units constituting the honeycomb anti-glare mesh can be adjusted according to the size of the light-emitting area of ​​the LED lighting fixture, and the side length and thickness of the regular hexagonal units of the honeycomb anti-glare mesh are the main measures to reduce the glare phenomenon of the LED lighting fixture.

[0046] 2. The honeycomb anti-glare mesh of the LED lighting fixture of the present invention can be adjusted in the form of opening and closing according to user needs and spatial light environment requirements. The overall honeycomb anti-glare mesh is divided into four adjustable parts, where one end of each part of the mesh is connected to the telescopic copper sheet, which drives the opening and closing of the honeycomb anti-glare mesh to flexibly adapt to user needs and spatial lighting needs.

[0047] 3. The behavior sensing device and user-defined setting module of the LED lighting fixture of the present invention can automatically identify the illumination, brightness and other information of the spatial light environment, and adjust the LED lighting fixture based on this, so as to make the spatial light environment comfortable while meeting the spatial light environment use standards, so as to achieve the goal of low-carbon energy saving during the use of the LED lighting fixture.

[0048] 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

[0049] The present invention will be further described in detail below in conjunction with the accompanying drawings.

[0050] Figure 1 It is a schematic diagram of the overall three-dimensional structure of the present invention;

[0051] Figure 2 It is a schematic diagram of the decomposed structure of each part of the present invention;

[0052] Figure 3 This is a schematic diagram of the structure of the honeycomb anti-glare mesh of the present invention;

[0053] Figure 4 This is a schematic diagram of the structure of the honeycomb anti-glare mesh of the present invention when it is closed;

[0054] Figure 5 This is a schematic diagram of the structure of the honeycomb anti-glare mesh of the present invention when it is opened;

[0055] Figure 6 It is a schematic diagram of the cross-sectional structure of line AA of the present invention;

[0056] Figure 7 It is a schematic diagram of the cross-sectional three-dimensional structure of the honeycomb layer of the LED lighting fixture of the present invention;

[0057] Figure 8 A flow chart of a design method of a low-carbon anti-glare system for LED lighting fixtures of the present invention;

[0058] Reference numerals:

[0059] 1-LED lighting fixture transparent lampshade, 101-LED lighting fixture lampshade shell, 102-translucent glass,

[0060] 2-LED lighting housing,

[0061] 3-honeycomb anti-glare mesh, 301-honeycomb anti-glare mesh mobile end, 302-honeycomb anti-glare mesh fixed end,

[0062] 4-LED lighting fixture light source lamp group, 401-LED lighting fixture light unit installation buckle,

[0063] 5-LED lighting fixture power connection base, 6-honeycomb anti-glare mesh manual adjustment paddle, 7-telescopic copper sheet, 8-LED lighting fixture housing rotating thread 1, 9-LED lighting fixture transparent lampshade rotating thread,

[0064] 10-LED lighting lamps and lanterns

[0065] 11-LED lighting fixture installation nut, 1101-LED lighting fixture installation nut reserved hole,

[0066] 12-LED lighting fixture power base rotating thread, 13-LED lighting fixture housing rotating thread, 14-honeycomb anti-glare mesh electric adjustment paddle,

[0067] 15-LED lighting fixture spatial behavior perception device, 1501-sensing probe, 1502-first information processing device, 1503-sensing probe reserved hole,

[0068] 16-user customized setting module, 1601-first information receiving device, 1602-second information processing device. DETAILED DESCRIPTION

[0069] The present invention provides a device of a low-carbon anti-glare system for LED lighting fixtures, including an LED lighting fixture for lighting, a honeycomb anti-glare device for improving the comfort of the lighting environment and realizing low-carbon lighting, a behavior perception device for realizing intelligence, and a user system custom setting module for flexible lighting needs;

[0070] The LED lighting fixture includes a transparent lampshade, a housing, a light source lamp group and a power connection base arranged at the bottom; the transparent lampshade is arranged at the front end of the LED lighting fixture, and the transparent lampshade is made of high light-transmitting material.

[0071] The highly light-transmitting material is glass, acrylic or polycarbonate. The transparent lampshade of the LED lighting fixture has a thread corresponding to the thread on the front section of the wall of the LED lighting fixture on the inner side of the lampshade. The transparent lampshade of the LED lighting fixture is connected to the wall of the LED lighting fixture by a rotating connection, which is convenient for replacement and repair of the LED lighting fixture during use.

[0072] The LED lighting fixture housing has a rotating thread sleeve on the outer side of the upper end of the LED lighting fixture housing, which is convenient for the installation and removal of the transparent lampshade of the LED lighting fixture; the LED lighting fixture housing has a rotating thread sleeve on the inner side of the lower end, which is convenient for the installation and removal of the power connection base of the LED lighting fixture.

[0073] The LED lighting fixture light source lamp group adopts a light emitting device placed in the LED lighting fixture shell.

[0074] The LED lighting fixture light source lamp group is composed of an LED light-emitting device, an electric connecting wire, and a buckle.

[0075] The LED light-emitting device is formed by a light-emitting surface formed by LED lighting beads. The shape, size and number of LED lighting beads of the light-emitting surface are determined by the size and shape of the LED lighting fixture.

[0076] The power connection wire is a reserved hole for the conductive connection wire behind the light-emitting surface of the LED lighting fixture, which is convenient for the power supply and light emission of the LED lighting fixture;

[0077] The buckle is a connecting buckle between the light source lamp group of the LED lighting fixture and the LED lighting fixture housing, which facilitates the installation and removal of the light source lamp group of the LED lighting fixture.

[0078] Among them, the honeycomb anti-glare device includes a honeycomb anti-glare mesh, a honeycomb anti-glare mesh telescopic copper sheet, a honeycomb anti-glare mesh manual adjustment paddle and a honeycomb anti-glare mesh electric adjustment paddle. The honeycomb anti-glare mesh is a honeycomb anti-glare mesh formed by a combination of regular hexagons. The material of the honeycomb anti-glare mesh is made of a durable and soft metal material. The honeycomb anti-glare mesh is formed by a combination of regular hexagons. The side length size ranges from 5mm to 10mm, and the side length size is determined according to the size of the LED lighting fixture. The honeycomb anti-glare mesh telescopic copper sheet is a telescopic copper sheet that pulls the honeycomb anti-glare mesh open and closed. The front end of the telescopic copper sheet is connected to the open end of the honeycomb anti-glare mesh, and the rear end of the telescopic copper sheet is combined with the honeycomb anti-glare mesh manual adjustment paddle. The honeycomb anti-glare mesh is opened and closed. In order to flexibly select the blocking area of ​​the honeycomb anti-glare mesh, the honeycomb anti-glare mesh is evenly divided into four parts. The bottom edge of each part is connected to the frame of the honeycomb anti-glare mesh, and the top corner of each part is connected to the front end of the telescopic copper sheet. When the telescopic copper sheet moves, it can pull the honeycomb anti-glare mesh to open and close.

[0079] The manual adjustment paddle of the honeycomb anti-glare net is an adjustment device connected to the telescopic copper sheet. The manual adjustment paddle of the honeycomb anti-glare is placed in the middle of the LED lighting fixture housing to facilitate adjustment of the shielding area of ​​the honeycomb anti-glare device from the outside of the LED lighting fixture.

[0080] The electric adjustment paddle of the honeycomb anti-glare net is an electric device that connects the manual adjustment paddle of the honeycomb anti-glare net and the telescopic copper sheet of the honeycomb anti-glare net. One end of the electric adjustment paddle of the honeycomb anti-glare net is connected to the telescopic copper sheet of the honeycomb anti-glare net, and the other end is connected to a behavior sensing device for realizing intelligent low-carbon lighting.

[0081] The behavior sensing device is a sensing device placed on the outer shell of the LED lighting fixture. The sensing device mainly obtains space-related data information, including: space brightness, number of people in the space and other information.

[0082] The behavior sensing device summarizes and analyzes the spatial information collected by the sensing equipment, and flexibly adjusts the illumination, brightness and opening and closing forms of the honeycomb anti-glare net of the LED lighting equipment, ensuring that the LED lighting fixtures can be flexibly adjusted to achieve low-carbon lighting while meeting the lighting needs of the space.

[0083] The user system custom setting module is a custom setting module installed inside the LED lighting fixture and connected to the behavior sensing device.

[0084] The user system custom setting module is a user setting level. Space users can customize the brightness, illumination and opening and closing modes of the honeycomb anti-glare mesh of LED lighting fixtures according to their own needs, so as to meet the needs of flexible use of LED lighting fixtures.

[0085] The present invention also provides a design method for a low-carbon anti-glare system for an LED lighting fixture, comprising the following steps:

[0086] Step 1: Establish a standard library of illumination for horizontal working surfaces of LED lighting fixtures:

[0087] Step 2: Establish a relative position relationship library between the honeycomb anti-glare device and the light-emitting surface of the LED lighting fixture:

[0088] Step 3: Establish the illumination attenuation relationship library of the honeycomb anti-glare device:

[0089] Step 4: Establish a low-carbon energy efficiency database for LED lighting fixtures equipped with honeycomb anti-glare devices.

[0090] Furthermore, in step one, the illumination standard library of the horizontal working surface illumination of LED lighting fixtures is summarized and established based on the illumination standard requirements for different spaces inside buildings in the "Building Lighting Design Standard" GB50034.

[0091] Furthermore, in step 2, the relative position relationship library is a collection library of distance changes between the installation position of the honeycomb anti-glare device and the LED lighting fixture; the installation position of the honeycomb anti-glare device is the position of the gap between the light-emitting surface of the LED lighting fixture and the glass cover of the fixture.

[0092] Further, in step three, the honeycomb anti-glare device illumination attenuation relationship library includes illumination data of the horizontal working surface of the LED lighting fixture before the honeycomb anti-glare device is installed, data related to the size of the honeycomb anti-glare device, and illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed;

[0093] The illumination data of the horizontal working surface before the anti-glare device is installed on the LED lighting fixture is the data value of the illumination data of the horizontal working surface before the anti-glare device is installed on the benchmark LED lighting fixture;

[0094] The illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed is the illumination data value of the horizontal working surface of the LED lighting fixture after the illumination is attenuated by the honeycomb anti-glare device and meets the illumination standard required in the building space.

[0095] Further, in step 4, the low-carbon device of the LED lighting fixture is a space behavior sensing device installed in the LED lighting fixture and a user system custom setting module;

[0096] The low-carbon device of LED lighting fixtures can automatically or customise the relative position data of the honeycomb anti-glare device in the LED fixture and the shielding form of the honeycomb anti-glare device according to the built-in sensing device and the system custom setting module, so as to flexibly meet the space usage and the user's anti-glare usage needs;

[0097] The spatial behavior sensing device is a built-in sensing module of the LED lighting fixture. It senses the user behavior and 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;

[0098] The user system custom setting module is a built-in setting module for LED lighting fixtures. Users can customize the brightness of space LED lighting fixtures to reduce the energy consumption of LED lighting fixtures during use and achieve low-carbon lighting.

[0099] Example 1

[0100] See also Figure 1As shown, a low-carbon anti-glare system device for LED lighting fixtures, the overall three-dimensional structural schematic diagram consists of a transparent lampshade 1 for LED lighting fixtures, a housing 2 for LED lighting fixtures, a manual adjustment paddle 6 for honeycomb anti-glare mesh, a honeycomb anti-glare mesh 3, a light source lamp group 4 for LED lighting fixtures, and a power connection base 5 for LED lighting fixtures. For further information, see Figure 6 , a schematic diagram of the cross-sectional structure of the present invention along line AA; the honeycomb anti-glare mesh 3 is arranged directly below the light-transmitting glass 102. A gap is left between the light-emitting lamp beads 10 of the LED lighting fixture and the light-transmitting glass 102. The sensing probe 1501 and the first information receiving device 1601 are arranged between the light-emitting lamp beads 10 of the LED lighting fixture.

[0101] See also Figure 2 As shown, the transparent lampshade 1 of the LED lighting fixture is composed of an LED lighting fixture lampshade shell 101 and a transparent glass 102, and an LED lighting fixture transparent lampshade rotating thread 9 is provided at the inner outer end of the LED lighting fixture lampshade shell. During the installation process, the LED lighting fixture transparent lampshade rotating thread 9 is rotationally connected with the LED lighting fixture shell rotating thread at the outer upper end of the LED lighting fixture shell 2.

[0102] See also Figure 2 As shown, the interior of the LED lighting fixture housing 2 is composed of a honeycomb anti-glare mesh 3, a honeycomb anti-glare mesh manual adjustment paddle 6, a honeycomb anti-glare mesh electric adjustment paddle 14, and a telescopic copper sheet 7;

[0103] Specifically, the honeycomb anti-glare mesh 3 is divided into four parts, each of which is connected to the telescopic copper sheet 7 and the honeycomb anti-glare mesh manual adjustment paddle 6 exposed on the LED lighting fixture housing 2;

[0104] Specifically, the front end of the telescopic copper sheet 7 is connected to the mobile end 301 of the honeycomb anti-glare mesh, which is responsible for pulling the opening and closing of the honeycomb anti-glare mesh of the connected part, and the end of the telescopic copper sheet 7 is connected to the manual adjustment paddle 6 of the honeycomb anti-glare mesh, which is exposed through the reserved hole on the LED lighting fixture housing 2, and the opening and closing form of the honeycomb anti-glare mesh 3 can be adjusted outside the lamp;

[0105] See also Figure 2 As shown, the LED lighting fixture power base 5 is composed of an LED lighting fixture light source lamp group 4, an LED lighting fixture mounting nut 11, and an LED lighting fixture mounting nut reserved hole 1101;

[0106] Specifically, the LED lighting fixture light source lamp group 4 is composed of a plurality of LED lighting fixture light beads 10, and the specific number of the light beads is adjusted according to the light emitting area of ​​the LED lighting fixture;

[0107] Specifically, the bottom of the LED lighting fixture light source lamp group 4 is provided with a plurality of mounting buckles 401, which facilitate the connection between the LED lighting fixture light source lamp group 4 and the LED lighting fixture power connection base 5;

[0108] Specifically, the LED lighting fixture mounting nut reserved holes 1101 are four reserved holes on the LED lighting fixture power connection base 5, and the LED lighting fixture mounting nuts 11 are installed and connected to the wall through the LED lighting fixture mounting nut reserved holes 1101;

[0109] Specifically, the outer lower edge surface of the LED lighting fixture power base 5 is provided with an LED lighting fixture power base rotating thread 12, which is correspondingly rotatably connected with the LED lighting fixture housing rotating thread 13 at the lower end of the LED lighting fixture housing 2, so as to facilitate the installation and removal of the LED lighting fixture housing 2 and the power base 5;

[0110] See also Figure 3 As shown, the honeycomb anti-glare mesh 3 is composed of multiple groups of regular hexagons, and the material is made of durable and soft metal material. The side length and thickness of the regular hexagon are suitably adjusted according to the size of the light-emitting surface of the LED lighting fixture. According to the simulation results of the DIALux evo lighting simulation software, the suitability adjustment range of the side length L of the regular hexagon is 5mm-10mm, and the suitability adjustment range of the thickness H of the regular hexagon is 1mm-5mm.

[0111] Specifically, the honeycomb anti-glare mesh 3 is divided into 4 parts, each of which has a honeycomb anti-glare mesh movable end 301 connected to the telescopic copper sheet 7, and a honeycomb anti-glare mesh fixed end 302 connected to the inside of the LED lighting fixture housing 2;

[0112] See also Figure 4 , Figure 5 and Figure 7 , the opening and closing of the honeycomb anti-glare mesh of the LED lighting fixture is to manually adjust the paddle 6 of the honeycomb anti-glare mesh installed on the housing of the LED lighting fixture, and move it from the paddle position 1 to the paddle position 2. The manual adjustment paddle 6 of the honeycomb anti-glare mesh pulls the telescopic copper sheet 7 connected thereto, and drives the connected honeycomb anti-glare mesh moving end 301 to move from the mesh position 1 to the mesh position 2, so as to realize the opening of the honeycomb anti-glare mesh;

[0113] See also Figure 6The LED lighting fixture spatial behavior perception device 15 includes a sensing probe 1501 and a first information processing device 1502. During the installation process, the sensing probe 1501 is installed in the sensing probe reserved hole 1503 on the light-emitting surface of the LED lighting fixture light source lamp group 4, and the first information processing device 1502 is installed in the cavity of the LED lighting fixture power connection base 5. During use, the sensing probe 1501 collects ambient brightness information, temperature information, applicable number of people information, etc. in the space, and transmits the relevant information to the first information processing device 1502. The information processing device summarizes the current space information and the numerical value of the lighting design standard of this type of space for verification, and finally adjusts the brightness, color temperature, etc. of the LED lighting fixture, so that the LED lighting fixture can reduce energy consumption to the minimum during operation while meeting the requirements of the architectural space lighting design standard.

[0114] Specifically, the user-defined setting module 16 includes a first information receiving device 1601 and a second information processing device 1602, and during the installation process, the first information receiving device 1601 and the second information processing device 1602 are both installed in the cavity of the LED lighting fixture power connection base 5. During use, the user transmits the setting information to the first information receiving device 1601, and after being processed by the second information processing device 1602, the brightness, color temperature, etc. of the LED lighting fixture are adjusted, so that the LED lighting fixture can meet the requirements of the architectural space lighting design standard during operation and reduce energy consumption to the minimum;

[0115] See also Figure 8 The first information processing device 1502 performs data processing and analysis based on the design method of the low-carbon anti-glare system with adjustable honeycomb shape. The design method of the system includes: establishing an illumination standard library S1 for the illumination of the horizontal working surface of LED lighting fixtures, establishing a relative position relationship library S2 between the honeycomb anti-glare device and the light-emitting surface of the LED lighting fixture, establishing an illumination attenuation relationship library S3 for the honeycomb anti-glare device, and establishing a low-carbon energy efficiency database S4 for installing the honeycomb anti-glare device on LED lighting fixtures;

[0116] Specifically, the illumination standard library S1 for the illumination of the horizontal working surface of LED lighting fixtures is compiled and established based on the illumination standard requirements for different spaces inside buildings in the "Architectural Lighting Design Standard" GB50034;

[0117] Specifically, the different spaces of buildings in the "Architectural Lighting Design Standard" GB50034 include:

[0118] Table 1 Summary of building space types

[0119]

[0120] Specifically, the illumination standard requirements in the "Architectural Lighting Design Standard" GB50034 are summarized as follows (for the required values ​​of the overall architectural space illumination, please refer to the "Architectural Lighting Design Standard" GB50034):

[0121] Table 2 Summary of illumination standard values ​​for different building spaces

[0122]

[0123]

[0124] Specifically, the relative position relationship library S2 of the honeycomb anti-glare device and the light-emitting surface of the LED lighting fixture is a collection library of distance changes between the installation position of the honeycomb anti-glare device and the LED lighting fixture. The installation position of the honeycomb anti-glare device is the position of the gap between the light-emitting surface of the LED lighting fixture and the glass cover of the fixture.

[0125] Specifically, the honeycomb anti-glare device illumination attenuation relationship library S3 includes illumination data of the horizontal working surface of the LED lighting fixture before the honeycomb anti-glare device is installed, data related to the size of the honeycomb anti-glare device, and illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed;

[0126] Specifically, the illumination data of the horizontal working surface before the anti-glare device is installed on the LED lighting fixture is the data value of the illumination data of the horizontal working surface before the anti-glare device is installed on the benchmark LED lighting fixture;

[0127] Specifically, the illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed is the illumination data value of the horizontal working surface of the LED lighting fixture after the illumination of the honeycomb anti-glare device is attenuated and meets the illumination standard required in the building space;

[0128] Specifically, the illumination attenuation relationship library is a relationship model obtained based on multiple simulations and experiments, and the linear regression analysis results are shown in Table 3. The obtained data set establishes an illumination attenuation relationship library;

[0129] Table 3 Linear regression analysis results

[0130]

[0131] Dependent variable: Final illuminance

[0132] Specifically, the illumination attenuation relationship model is established based on the linear regression analysis results in Table 3, as shown in Formula 1:

[0133] 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)

[0134] Among them, E 最终 Indicates the final illumination, unit: lx;

[0135] E 初始 Indicates the initial illumination, unit: lx;

[0136] L 孔隙 Indicates the honeycomb side length, unit: mm;

[0137] L 厚度 Indicates the honeycomb height, unit: mm;

[0138] L 距离 Indicates the relative position of the anti-glare device, unit: mm;

[0139] Specifically, the LED lighting fixtures are equipped with honeycomb anti-glare devices, and the low-carbon energy efficiency database S4 is a collection of data on energy efficiency reduction of LED lighting fixtures by low-carbon devices of LED lighting fixtures. The low-carbon devices of LED lighting fixtures are space behavior perception devices installed in LED lighting fixtures and user system custom setting modules;

[0140] The low-carbon device of LED lighting fixtures can automatically or customise the relative position data of the honeycomb anti-glare device in the LED fixture and the shielding form of the honeycomb anti-glare device according to the built-in sensing device and the system custom setting module, so as to flexibly meet the space usage and the user's anti-glare usage needs;

[0141] The spatial behavior sensing device is a built-in sensing module of the LED lighting fixture. It senses the user behavior and 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;

[0142] The user system custom setting module is a built-in setting module for LED lighting fixtures. Users can customize the brightness of space LED lighting fixtures to reduce the energy consumption of LED lighting fixtures during use and achieve low-carbon lighting;

[0143] In summary, the embodiments of the present invention provide a design method and device for a low-carbon anti-glare system for LED lighting fixtures. The design method and device for a low-carbon anti-glare system based on an adjustable honeycomb shape can adaptively adjust the LED lighting fixtures according to the changes and needs of the light environment of the building space, and under the premise of meeting the "Architectural Lighting Design Standard" (GB50034), reduce the operating energy consumption of the LED lighting fixtures to achieve low-carbon energy saving.

[0144] The above description of the disclosed embodiments enables one skilled in the art to implement or use the present invention. Various modifications to these embodiments will be apparent to one skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention will not be limited to the embodiments shown herein, but rather to the widest scope consistent with the principles and novel features disclosed herein.

[0145] 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 low-carbon anti-glare system for LED lighting fixtures, characterized in that: It includes LED lighting fixtures for lighting, honeycomb anti-glare devices for improving lighting environment comfort and achieving low-carbon lighting, behavioral sensing devices for achieving intelligence, and user system custom setting modules for flexible lighting needs; The LED lighting fixture comprises a transparent lampshade, a housing, a light source lamp group and a power connection base arranged at the bottom; Among them, the transparent lampshade of the LED lighting fixture is placed at the front end of the LED lighting fixture, and the transparent lampshade of the LED lighting fixture is made of high-light-transmitting material.

2. The device according to claim 1, characterized in that The transparent lampshade of the LED lighting fixture has a thread on the inner side thereof corresponding to the thread on the front section of the wall of the LED lighting fixture. The transparent lampshade of the LED lighting fixture is connected to the wall of the LED lighting fixture by a rotating connection, so as to facilitate the replacement and repair of the LED lighting fixture during use.

3. The device according to claim 1, characterized in that The LED lighting fixture housing has a rotating thread sleeve on the outer side of the upper end of the LED lighting fixture housing, which is convenient for the installation and removal of the transparent lampshade of the LED lighting fixture; the LED lighting fixture housing has a rotating thread sleeve on the inner side of the lower end, which is convenient for the installation and removal of the power connection base of the LED lighting fixture.

4. The device according to claim 1, characterized in that The honeycomb anti-glare device comprises a honeycomb anti-glare mesh, a honeycomb anti-glare mesh telescopic copper sheet, a honeycomb anti-glare mesh manual adjustment paddle and a honeycomb anti-glare mesh electric adjustment paddle.

5. The device according to claim 1, characterized in that The user system custom setting module is a user setting level. Space users can customize the brightness, illumination and opening and closing modes of the honeycomb anti-glare mesh of LED lighting fixtures according to their own needs, so as to meet the needs of flexible use of LED lighting fixtures.

6. A design method for a low-carbon anti-glare system for LED lighting fixtures, characterized in that: The steps include: Step 1: Establish a standard library of illumination for horizontal working surfaces of LED lighting fixtures: Step 2: Establish a relative position relationship library between the honeycomb anti-glare device and the light-emitting surface of the LED lighting fixture: Step 3: Establish the illumination attenuation relationship library of the honeycomb anti-glare device: Step 4: Establish a low-carbon energy efficiency database for LED lighting fixtures equipped with honeycomb anti-glare devices.

7. The design method according to claim 6, characterized in that: In step one, the illumination standard library of the horizontal working surface illumination of LED lighting fixtures is summarized and established based on the illumination standard requirements for different spaces inside buildings in the "Building Lighting Design Standard" GB50034.

8. The design method according to claim 6, characterized in that: In step 2, the relative position relationship library is a collection library of distance changes between the installation position of the honeycomb anti-glare device and the LED lighting fixture; the installation position of the honeycomb anti-glare device is the position of the gap between the light-emitting surface of the LED lighting fixture and the glass cover of the fixture.

9. The design method according to claim 6, characterized in that: In step 3, the honeycomb anti-glare device illumination attenuation relationship library includes the illumination data of the horizontal working surface of the LED lighting fixture before the honeycomb anti-glare device is installed, the relevant data of the size of the honeycomb anti-glare device, and the illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed; The illumination data of the horizontal working surface before the anti-glare device is installed on the LED lighting fixture is the data value of the illumination data of the horizontal working surface before the anti-glare device is installed on the benchmark LED lighting fixture; The illumination data of the horizontal working surface of the LED lighting fixture after the honeycomb anti-glare device is installed is the illumination data value of the horizontal working surface of the LED lighting fixture after the illumination is attenuated by the honeycomb anti-glare device and meets the illumination standard required in the building space.

10. The design method according to claim 6, characterized in that: In step 4, the low-carbon device of the LED lighting fixture is a space behavior sensing device installed in the LED lighting fixture and a user system custom setting module; The low-carbon device of LED lighting fixtures can automatically or customise the relative position data of the honeycomb anti-glare device in the LED fixture and the shielding form of the honeycomb anti-glare device according to the built-in sensing device and the system custom setting module, so as to flexibly meet the space usage and the user's anti-glare usage needs; The spatial behavior sensing device is a built-in sensing module of the LED lighting fixture. It senses the user behavior and 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 for LED lighting fixtures. Users can customize the brightness of space LED lighting fixtures to reduce the energy consumption of LED lighting fixtures during use and achieve low-carbon lighting.

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