Customized lighting deployment scheme generation method and system and readable storage medium

Abstract

The invention provides a generation method and system of a customized lighting deployment scheme and a readable storage medium, and the generation method comprises the steps: obtaining customization parameters which comprise environment parameters and lighting parameters; obtaining an optimal spacing range according to the customized parameters and optical structure parameters of a preset light source module; the number of the needed light source modules is calculated according to the optimal distance range and the specification of the preset light source modules; and calculating the number of required driving power supplies and controllers according to the number of the light source modules, and generating a lighting deployment scheme by combining the number of the light source modules. Customized parameters and preset light source module specifications are input through the input unit, the optimal spacing range, number and specification of the light source modules and the number of driving power sources and controllers are calculated through the calculation unit, the processing unit applies and executes the generation method of the customized illumination deployment scheme, and a bill of material and / or a wiring diagram are / is rapidly generated.

Description

Technical Field

[0001] This invention relates to the field of lighting technology, and more particularly to a method, system, and readable storage medium for generating customized lighting deployment schemes. Background Technology

[0002] Currently, commercially available lighting equipment often features a limited range of appearances and has significant limitations in brightness and color temperature adjustment. On-site lighting design is constrained by factors such as equipment appearance, brightness, and power, failing to provide strong technical support for designers' boundless imaginations. Meanwhile, highly customized lighting solutions incur high production costs and extended project implementation cycles.

[0003] Most surface-emitting solutions on the market suffer from long delivery cycles, complex installation, and high deployment barriers. Furthermore, material selection relies on the designer's experience, lacking standardized parameter guidelines, and the overall effect often requires adjustments later. Summary of the Invention

[0004] The purpose of this invention is to provide a method for rapidly deploying customized lighting solutions.

[0005] To achieve the above objectives, the present invention provides a method for generating customized lighting deployment schemes, comprising:

[0006] Obtain customized parameters, including environmental and lighting parameters;

[0007] The optimal spacing range is obtained based on customized parameters and the optical structure parameters of the preset light source module;

[0008] Calculate the required number of light source modules based on the optimal spacing range and the specifications of the preset light source modules;

[0009] Calculate the required number of driving power supplies and controllers based on the number of light source modules, and generate a lighting deployment plan based on the number of light source modules.

[0010] Optional, environmental parameters include the size information of the application site.

[0011] Optionally, lighting parameters include lighting area information and illuminance requirement information.

[0012] Optional optical structural parameters include the lens coefficient, initial luminous flux, lamp film transmittance, and cavity thickness of the preset light source module.

[0013] Optionally, the optimal spacing range can be obtained based on customized parameters and the optical structure parameters of the preset light source module, including:

[0014] The first spacing range that meets the module layout requirements is determined based on the height-to-spacing ratio coefficient and the cavity thickness of the preset light source module.

[0015] The second spacing range that meets the illuminance requirements is determined based on the illuminance parameters and the optical structure parameters of the preset light source module.

[0016] The optimal spacing range is determined based on the first spacing range and the second spacing range.

[0017] Optionally, the first spacing range is r1≤H1*Z, where r1 is the first spacing, H1 is the cavity thickness, and Z is the height-to-spacing ratio coefficient;

[0018] Optionally, the second spacing range is Where r2 is the second spacing, φ is the initial luminous flux of the light source module, K is the lens coefficient, T is the light transmittance of the lamp film, M is the light intensity conversion coefficient, Lx is the illuminance at a height of X meters above the ground, H2 is the distance from the lamp film to the ground, and X is the height of the plane where the illumination area is located above the ground.

[0019] Optionally, the preset specifications of the light source module include: a single light source module and at least two multi-body light source modules, each multi-body light source module being formed by combining multiple single light source modules, and the number of single light source modules in the at least two multi-body light source modules and the spacing between adjacent single light source modules are different.

[0020] Optionally, the required number of light source modules can be calculated based on the optimal spacing range and the specifications of the preset light source modules, including:

[0021] Calculate the required horizontal number X1 of the multi-body light source module, where X1 is an integer value of L / L1;

[0022] Calculate the required vertical number Y1 of the multi-body light source module, where Y1 is the integer value of W / W1;

[0023] Calculate the required horizontal number X2 of a single light source module, where X2 is an integer value of (L-L1*X1) / r0;

[0024] Calculate the required vertical number Y2 of individual light source modules, where Y2 is the integer value of (W-W1*Y1) / r0;

[0025] Where L is the length of the lighting space, W is the width of the lighting space, L1 is the size of the multi-body light source module, W1 is the width of the multi-body light source module, and r0 is the optimal spacing.

[0026] The required number of multi-body light source modules is C1 = X1 * Y1, and the required number of single-body light source modules is C2 = X1 * Y2 * n + X2 * Y1 * n + X2 * Y2, where n is the horizontal / vertical number of single-body light source modules contained in the multi-body light source module.

[0027] Optionally, the number of driving power supplies C3 is calculated based on the number of multi-body light source modules and single-body light source modules, where C3 = (C1*N+C2) / Q1;

[0028] Where N is the number of individual light source modules contained in the multi-body light source module, and Q1 is the number of individual light source modules that can be controlled by one driving power supply.

[0029] Optionally, the number of controllers C4 is calculated based on the number of multi-body light source modules and single-body light source modules, where C4 = (C1*N+C2) / Q2;

[0030] Where N is the number of individual light source modules contained in the multi-body light source module, and Q2 is the number of individual light source modules that a controller can control.

[0031] Optionally, the bill of materials for the lighting deployment solution includes the quantity and specifications of the required light source modules, the quantity of driver power supplies, and the quantity of controllers.

[0032] A system for a customized lighting deployment scheme includes:

[0033] The input unit is used to input customized parameters and the specifications of the preset light source module.

[0034] The calculation unit is used to calculate the optimal spacing range of the required light source modules, the number and specifications of the required light source modules, the number of required drive power supplies, and the number of required controllers;

[0035] The processing unit applies the method for generating the customized lighting deployment scheme described above to generate a bill of materials and / or wiring diagram.

[0036] A readable storage medium storing a program or instructions, which, when executed by a processor, implement the steps of the method for generating the customized lighting deployment scheme described above.

[0037] Compared with the prior art, the technical solution of the present invention has the following beneficial effects:

[0038] This invention allows users to input customized parameters and preset light source module specifications through an input unit. The calculation unit automatically calculates the optimal spacing range, quantity, and specifications of the light source modules, as well as the number of drive power supplies and controllers. The processing unit applies a method for generating customized lighting deployment schemes, generating a bill of materials and / or wiring diagrams. This reduces manual intervention, saves ordering and stocking cycles, and enables rapid on-site installation and debugging based on the wiring diagram, thus improving efficiency. Attached Figure Description

[0039] Figure 1 This is a flowchart of the method for generating the customized lighting deployment scheme of the present invention;

[0040] Figure 2 This is a user interface diagram of the present invention for obtaining customized parameters;

[0041] Figure 3 This is a schematic diagram of a light source module without a base plate;

[0042] Figure 4 This is the layout diagram of the first multi-body light source module;

[0043] Figure 5 This is the layout diagram of the second multi-body light source module;

[0044] Figure 6 This is a layout diagram of the third multi-body light source module;

[0045] Figure 7 This is a wiring diagram of an embodiment of the present invention.

[0046] Figure label:

[0047] Light source module 100, driver power supply 200, controller 300. Detailed Implementation

[0048] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be described in detail below with reference to the accompanying drawings and specific embodiments.

[0049] It should be noted that, in order to avoid obscuring the present invention with unnecessary details, only the structures and / or processing steps closely related to the present invention are shown in the accompanying drawings, while other details that are not closely related to the present invention are omitted.

[0050] Additionally, it should be noted that the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0051] Please see Figure 1 As shown, this invention provides a method for generating a customized lighting deployment scheme, comprising the following steps:

[0052] S1. Obtain customized parameters.

[0053] like Figure 2 As shown, the customized parameters include:

[0054] (1) Environmental parameters

[0055] Environmental parameters include the dimensions of the application site.

[0056] For example: the shape of the lighting space, the length and width of the lighting space, and the height of the space.

[0057] The shape of the lighting space can be square, circular, annular, etc., and this invention does not limit this. Inputting the length, width, and height of the lighting space ensures accurate calculation of the light source layout, avoids blind spots, and ensures that the light can evenly cover the target area.

[0058] (2) Lighting parameters

[0059] Lighting parameters include information on the lighting area and illuminance requirements.

[0060] Users can set different illuminance standards according to the specific needs of different areas (such as work areas, rest areas, and display areas) to ensure that each area can obtain the most suitable lighting environment and improve user comfort.

[0061] S2. Obtain the optimal spacing range based on the customized parameters and the optical structure parameters of the preset light source module 100.

[0062] The optical structure parameters include the lens coefficient, initial luminous flux, lamp film transmittance, and cavity thickness of the preset light source module 100.

[0063] By comprehensively considering environmental, lighting, and optical structural parameters, the system enables customized light source deployment solutions to meet the specific needs of different scenarios. It supports user-defined parameter input, facilitating subsequent adjustments or upgrades based on actual requirements and maintaining the long-term applicability of the lighting system.

[0064] S21. Determine the first spacing range that meets the module layout requirements based on the height-to-spacing ratio coefficient and the cavity thickness of the preset light source module 100.

[0065] The first spacing range is r1≤H1*Z, where r1 is the first spacing, H1 is the cavity thickness, and Z is the height-to-spacing ratio coefficient.

[0066] Step S21 takes into account the limited installation space of the light source module 100, ensuring that there is enough space between the light source modules 100 for heat dissipation and electrical connection, while avoiding mutual interference.

[0067] S22. Determine the second spacing range that meets the illuminance requirements based on the illuminance parameters and the optical structure parameters of the preset light source module 100.

[0068] The second spacing range is Where r2 is the second spacing, φ is the initial luminous flux of the light source module 100, K is the lens coefficient, T is the light transmittance of the lamp film, M is the light intensity conversion coefficient, Lx is the illuminance at a height of X meters above the ground, H2 is the distance from the lamp film to the ground, and X is the height of the plane where the illumination area is located above the ground.

[0069] Step S22 ensures that the light distribution within the illuminated area is uniform and meets the preset standard.

[0070] S23. Determine the optimal spacing range based on the first spacing range and the second spacing range.

[0071] The optimal spacing range must simultaneously satisfy both the first spacing range and the second spacing range. For example, if the first spacing range is r1≤0.195 and the second spacing range is r2≤0.36, then the optimal spacing range is r0≤0.195, and a suitable light source module spacing can be selected within the optimal spacing range.

[0072] It should be noted that the minimum values ​​of both the first and second spacing ranges are not 0, and these minimum values ​​are greater than the width of the lamp.

[0073] S3. Calculate the required number of light source modules 100 based on the optimal spacing range and the specifications of the preset light source module 100.

[0074] The preset light source module 100 specifications include: a single light source module and at least two multi-body light source modules. Each multi-body light source module is formed by combining multiple single light source modules. Furthermore, the number of single light source modules in the at least two multi-body light source modules and the spacing between adjacent single light source modules are different.

[0075] At least two multi-body light source modules include a first multi-body light source module, a second multi-body light source module, and a third multi-body light source module, wherein,

[0076] like Figure 4 As shown, the first multi-body light source module includes 16 individual light source modules, and the 16 individual light source modules are arranged in a 4*4 array with a spacing of 150mm between two adjacent individual light source modules.

[0077] like Figure 5 As shown, the second multi-body light source module includes 25 individual light source modules, and the 25 individual light source modules are arranged in a 5*5 array with a spacing of 120mm between adjacent individual light source modules.

[0078] like Figure 6 As shown, the third multi-body light source module includes 36 individual light source modules, and the 36 individual light source modules are arranged in a 6*6 array with a spacing of 100mm between adjacent individual light source modules.

[0079] For example, if the calculated minimum spacing r is between 100mm and 150mm, then the second and third multi-body light source modules may be candidates. Taking into account the procurement cost, installation cost, operating energy consumption, and maintenance cost of the light source module 100, a cost-benefit analysis is conducted to select the most cost-effective solution, ultimately determining the optimal spacing r0 and specification combination for the light source module 100. This may include the direct use of single light source modules or the combined application of multiple multi-body light source modules to achieve the best lighting effect and economic benefits.

[0080] Furthermore, after the specifications of the light source module 100 are determined, it is installed on the base plate of the light source module 100. The base plate of the light source module 100 can be a baseless plate, a PVC foam board, or a metal plate.

[0081] like Figure 3 As shown, using a baseless design results in relatively low costs and allows for flexible splicing to meet various irregular shapes (e.g., circles, rectangles, and other shapes) of canopy scenes, offering a high degree of freedom. However, installation requires marking and positioning, which impacts installation efficiency. Furthermore, the accuracy of the marking and positioning negatively affects the consistency of the spacing between the light source modules 100. A typical finished light source consists of 10 light source modules 100, with the center spacing 'a' of each module 100 being 100mm, 120mm, or 150mm.

[0082] like Figures 4-6 As shown, when using PVC foam boards, the light source consistency is good, and on-site installation is quick and easy without the need for marking and positioning, thus reducing on-site installation requirements. However, compared to modules without a base plate, the cost is higher. Three different light source spacing modules using PVC foam boards are shown: 4*4 with a 150mm center-to-center spacing, 5*5 with a 120mm center-to-center spacing, and 6*6 with a 100mm center-to-center spacing.

[0083] When using metal plates, the light source consistency is good, and on-site installation is quick and easy without the need for marking or positioning. This reduces on-site installation requirements and provides better luminous effect compared to PVC foam boards. However, the cost is also higher, although heat dissipation is better. Three different light source spacing modules using metal plates are available: 4x4 with a 150mm center-to-center spacing, 5x5 with a 120mm center-to-center spacing, and 6x6 with a 100mm center-to-center spacing.

[0084] S4. Calculate the required number of driving power supplies and controllers based on the number of light source modules, and generate a lighting deployment plan in combination with the number of light source modules.

[0085] S41. Calculate the required horizontal number X1 of the multi-body light source module, where X1 is an integer value of L / L1.

[0086] Calculate the required vertical number Y1 of the multi-body light source module, where Y1 is the integer value of W / W1.

[0087] In some cases, additional individual light source modules may be used to fill in the gaps at the edges of the lighting area or in areas with special shapes.

[0088] S42. Calculate the required horizontal number X2 of the single light source module, where X2 is the integer value of (L-L1*X1) / r0.

[0089] Calculate the required vertical number Y2 of individual light source modules, where Y2 is the integer value of (W-W1*Y1) / r0.

[0090] Where L is the length of the lighting space, W is the width of the lighting space, L1 is the size of the multi-body light source module, W1 is the width of the multi-body light source module, and r0 is the optimal spacing.

[0091] S43. Calculate the required number of multi-body light source modules C1 = X1 * Y1, and the required number of single light source modules C2 = X1 * Y2 * n + X2 * Y1 * n + X2 * Y2, where n is the horizontal / vertical number of single light source modules contained in the multi-body light source module.

[0092] If no additional individual light source modules are involved, the number of individual light source modules C2 should be 0.

[0093] S44. Calculate the number of drive power supplies C3 based on the number of multi-body light source modules and single-body light source modules.

[0094] C3 = (C1*N + C2) / Q1;

[0095] Where N is the number of individual light source modules contained in the multi-body light source module, and Q1 is the number of individual light source modules that can be controlled by one driving power supply 200.

[0096] S45. Calculate the number of controllers C4 based on the number of multi-body light source modules and single-body light source modules, C4 = (C1*N+C2) / Q2;

[0097] Where N is the number of individual light source modules contained in the multi-body light source module, and Q2 is the number of individual light source modules that can be controlled by one controller 300.

[0098] S46. Output bill of materials and / or wiring diagram.

[0099] The bill of materials includes the quantity and specifications of the required light source modules 100, the quantity of the drive power supply 200, and the quantity of the controller 300.

[0100] Users can generate bills of materials and wiring diagrams as needed, or generate only bills of materials, or only wiring diagrams.

[0101] like Figure 7 As shown, once the materials are procured according to the bill of materials, the user can assemble and debug the equipment on-site according to the wiring diagram.

[0102] This invention provides a system for customized lighting deployment schemes, comprising:

[0103] (1) Input unit, used to input customized parameters and preset specifications of light source module 100.

[0104] The input unit has an intuitive and easy-to-use graphical user interface, which supports users to input customized parameters, such as lighting area size and illuminance, through various methods such as drag and drop, selection boxes, and drop-down menus.

[0105] Furthermore, the system can be configured with a parameter validation mechanism to automatically check the validity and rationality of user-inputted customized parameters, such as numerical range and unit consistency, to avoid calculation errors caused by invalid input. The system provides a library of 100 light source module specifications, allowing users to select or search for specific specifications based on project requirements. The system also supports user-defined 100 light source module parameters and saving them as new specifications to suit specific application scenarios.

[0106] (2) Calculation unit, used to calculate the optimal spacing range of the required light source module 100, the number and specifications of the required light source module 100, the number of required drive power supplies 200, and the number of required controllers 300.

[0107] Based on the light effect simulation results obtained from the input unit, the optimal spacing range of the required light source modules 100 is calculated to ensure uniform light distribution without dark areas within the illumination area. Taking into account factors such as lighting effect, energy consumption cost, and ease of maintenance, the optimal quantity and specification combination of the required light source modules 100 are calculated by the calculation unit to maximize cost-effectiveness. The required number of drive power supplies 200 and controllers 300 are automatically calculated based on the total number of light source modules 100 and power requirements.

[0108] (3) The processing unit applies the method for generating the customized lighting deployment scheme described above to generate a bill of materials and / or wiring diagram.

[0109] The processing unit can automatically convert the output of the calculation unit into a detailed bill of materials, including the quantity and specifications of the light source module 100, driver power supply 200, and controller 300. Based on the spatial layout and electrical connection requirements, it can automatically generate a wiring diagram that complies with electrical specifications and construction requirements, including cable routing, connector locations, and power distribution, reducing the workload of on-site installation and commissioning.

[0110] The present invention provides a readable storage medium storing a program or instructions, which, when executed by a processor, implement the steps of the above-described method for generating a customized lighting deployment scheme.

[0111] The following is an embodiment of a method for generating a customized lighting deployment scheme according to the present invention, for the purpose of explaining the generation method, but the present invention is not limited thereto.

[0112] Given: A square canopy of 16 (4*4) square meters, with a floor height of 2 meters, the illuminance required by the project owner for the tabletop (table height 0.75m) is 500lx, the cavity thickness is 0.15m, and the film transmittance is 60%, generate a bill of materials based on the above known conditions.

[0113] S1. Obtain customized parameters.

[0114] Environmental parameters: The shape of the lighting space is square, the length of the lighting space is 4m, the width of the lighting space is 4m, and the height of the space is 2m.

[0115] Lighting parameters: The height of the plane where the lighting area is located is 0.75m, and the illuminance is 500lx.

[0116] S2. Obtain the optimal spacing range based on the customized parameters and the optical structure parameters of the preset light source module 100.

[0117] Optical structural parameters: lens coefficient is 0.95, initial luminous flux is 520 lm, lamp film transmittance is 60%, and cavity thickness is 0.15 m.

[0118] S21. Determine the first spacing range that meets the module layout requirements based on the height-to-spacing ratio coefficient and the cavity thickness of the preset light source module 100.

[0119] The first spacing range is r1≤H1*Z, where r1 is the first spacing, H1 is the cavity thickness, and Z is the height-to-spacing ratio coefficient.

[0120] With a cavity thickness H1 of 0.15m and a height-to-distance ratio Z of 1.3, it can be calculated that r1≤0.195m.

[0121] S22. Determine the second spacing range that meets the illuminance requirements based on the illuminance parameters and the optical structure parameters of the preset light source module 100.

[0122] The second spacing range is Where r2 is the second spacing, φ is the initial luminous flux of the light source module 100, K is the lens coefficient, T is the light transmittance of the lamp film, M is the light intensity conversion coefficient, Lx is the illuminance at a height of X meters above the ground, H2 is the distance from the lamp film to the ground, and X is the height of the plane where the illumination area is located above the ground.

[0123] With an initial luminous flux φ of 520 lm, a lens factor K of 0.95, a lamp film transmittance T of 0.6, a light intensity conversion factor M of 0.3577, an illuminance Lx of 500 lx at a height of 0.75 meters above the ground, a distance H2 from the lamp film to the ground of 2 m, and a height X of the tabletop from the ground of 0.75 m, we can conclude that r2 ≤ 0.36 m.

[0124] S23. Select the minimum value between the first spacing r1 and the second spacing r2 as the optimal spacing range.

[0125] The optimal spacing range is r0≤0.195m.

[0126] At this point, the number of light source modules 100 is minimized, while still meeting lighting requirements, making it the most economical solution.

[0127] S3. Calculate the required number of light source modules 100 based on the optimal spacing range and the specifications of the preset light source module 100.

[0128] The maximum module spacing is 0.195m. Based on the selectable module spacing, a suitable resolution can be chosen to meet the design requirements. The smaller the spacing, the higher the resolution and the better the display effect, but the higher the cost. In this embodiment, we selected the maximum value r0 = 150mm as the optimal module spacing within the range of r0 ≤ 0.195m, i.e., 100mm, 120mm, and 150mm. This satisfies the illumination requirements of the project while ensuring an aesthetically pleasing light source presentation.

[0129] The light source module 100 is selected as a multi-body light source module, which includes 16 individual light source modules. These 16 individual light source modules are arranged in a 4x4 array, with a spacing of 150mm between adjacent individual light source modules. In this embodiment, the multi-body light source module has a size of 0.6*0.6m, and the individual light source module has a size of 0.075*0.075m.

[0130] S4. Calculate the required number of driving power supplies and controllers based on the number of light source modules, and generate a lighting deployment plan in combination with the number of light source modules.

[0131] S41. Calculate the required horizontal number X1 of the multi-body light source module, where X1 is an integer value of L / L1.

[0132] X1 = L / L1 = 4 / 0.6, rounded down to 6.

[0133] Calculate the required vertical number Y1 of the multi-body light source module, where Y1 is the integer value of W / W1.

[0134] Y1 = W / W1 = 4 / 0.6, rounded down to 6.

[0135] S42. Calculate the required horizontal number X2 of the single light source module, where X2 is the integer value of (L-L1*X1) / r0.

[0136] X2 = (L - L1 * X1) / r0 = (4 - 0.6 * 6) / 0.15, rounded down to 2.

[0137] Calculate the required vertical number Y2 of individual light source modules, where Y2 is the integer value of (W-W1*Y1) / r0.

[0138] Y2=(W-W1*Y1) / r0=(4-0.6*6) / 0.15, rounded down to 2.

[0139] Where L is the length of the lighting space, W is the width of the lighting space, L1 is the size of the multi-body light source module, W1 is the width of the multi-body light source module, and r0 is the optimal spacing.

[0140] It should be noted that in the formula of step S42, X2=(L-L1*X1) / r0 is actually X2=(L-L1*X1) / (L2+r0). However, since the length L2 of a single light source module is 0.075, which is too small and smaller than the spacing between each single light source module, it can be ignored. The horizontal number of a single light source module can be obtained by dividing by the spacing between the single light source modules. Similarly, the width of the corresponding single light source module is also omitted when calculating the vertical number Y2 of a single light source module, which will not be elaborated here.

[0141] S43. Calculate the required number of multi-body light source modules: C1 = X1 * Y1 = 6 * 6 = 36.

[0142] The required number of individual light source modules, C2 = X1*Y2*n + X2*Y1*n + X2*Y2 = 6*2*4 + 2*6*4 + 2*2 = 100.

[0143] Where n is the number of individual light source modules in the multi-body light source module, both horizontally and vertically.

[0144] S44. Calculate the number of driving power supplies C3 based on the number of multi-body light source modules and single-body light source modules, C3 = (C1*N+C2) / Q1.

[0145] Where N is the number of individual light source modules contained in the multi-body light source module, and Q1 is the number of individual light source modules that can be controlled by one driving power supply 200.

[0146] C3 = (C1*N + C2) / Q1 = (36*16 + 100) / 60, rounded down to 12.

[0147] S45. Calculate the number of controllers C4 based on the number of multi-body light source modules and single-body light source modules, C4 = (C1*N+C2) / Q2.

[0148] Where N is the number of individual light source modules contained in the multi-body light source module, and Q2 is the number of individual light source modules that can be controlled by one controller 300.

[0149] C4 = (C1*N + C2) / Q2 = (36*16 + 100) / 200, rounded down to 4.

[0150] In other words, this embodiment requires 12 drive power supplies 200 and 4 controllers 300.

[0151] S46. Output bill of materials and / or wiring diagram.

[0152] The bill of materials includes the quantity and specifications of the required light source modules 100, the quantity of the drive power supply 200, and the quantity of the controller 300.

[0153] In the bill of materials of this embodiment, there are 36 multi-body light source modules and 100 single-body light source modules. One multi-body light source module is equal to 16 single-body light source modules. The specifications of the light source module 100 are as follows: the first multi-body light source module (including 16 single-body light source modules, and the 16 single-body light source modules are arranged in a 4*4 array with a spacing of 150mm between two adjacent single-body light source modules), there are 12 driving power supplies 200, and there are 4 controllers 300.

[0154] In summary, this invention allows for the input of customized parameters and preset specifications of the light source module 100 via an input unit. The calculation unit automatically calculates the optimal spacing range, quantity, and specifications of the light source modules 100, as well as the number of drive power supplies 200 and controllers 300. The processing unit applies a method for generating customized lighting deployment schemes, generating a bill of materials and / or wiring diagrams. This reduces manual intervention and improves work efficiency. Based on detailed customized parameters and scientific calculation methods, it can accurately meet users' illuminance requirements and improve lighting effects. After correctly connecting the light source modules 100 according to the wiring diagram, a customized light source device is obtained. Through system control, this customized light source device can display different light effects as needed.

[0155] The above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention.

Claims

1. A method for generating a customized lighting deployment scheme, characterized in that, The method comprises the following steps: obtaining customization parameters, the customization parameters comprising environmental parameters and lighting parameters; obtaining an optimal spacing range according to the customization parameters and optical structure parameters of a preset light source module; calculating the number of required light source modules according to the optimal spacing range and the specifications of the preset light source module; calculating the number of required driving power supplies and controllers according to the number of light source modules, and generating a lighting deployment scheme in combination with the number of light source modules.

2. The method of generating a customized lighting deployment scheme according to claim 1, wherein, The environmental parameters comprise size information of an application site.

3. The method of claim 1, wherein, The lighting parameters comprise lighting area information and illuminance requirement information.

4. The method of claim 1, wherein, The optical structure parameters comprise lens coefficients, initial luminous flux, light film transmittance, and cavity thickness of the preset light source module.

5. The method of generating a customized lighting deployment scheme according to claim 4, wherein, The method of obtaining an optimal spacing range according to the customization parameters and optical structure parameters of a preset light source module comprises the following steps: determining a first spacing range that meets the module layout requirements according to a height-to-spacing ratio coefficient and the cavity thickness of the preset light source module; determining a second spacing range that meets the illuminance requirement according to illuminance parameters and the optical structure parameters of the preset light source module; determining an optimal spacing range according to the first spacing range and the second spacing range.

6. The method of generating a customized lighting deployment scheme according to claim 5, wherein, The first spacing range is r1≤H1*Z, wherein r1 is the first spacing, H1 is the cavity thickness, and Z is the height-to-spacing ratio coefficient.

7. The method of generating a customized lighting deployment scheme according to claim 5, wherein, The second distance range is Wherein, r2 is the second distance, φ is the initial light flux of the light source module, K is the lens coefficient, T is the light transmittance of the lamp film, M is the light intensity conversion coefficient, Lx is the illumination at X meters high from the ground, H2 is the distance from the lamp film to the ground, and X is the height of the lighting area from the ground.

8. The method of claim 1, wherein, The specifications of the preset light source module comprise single light source modules and at least two multi-body light source modules, each of the multi-body light source modules is formed by combining a plurality of single light source modules, the number of single light source modules in at least two multi-body light source modules, and the spacing between adjacent two single light source modules are different.

9. The method of generating a customized lighting deployment scheme according to claim 8, wherein, The method of calculating the number of required light source modules according to the optimal spacing range and the specifications of the preset light source module comprises the following steps: calculating the horizontal number X1 of required multi-body light source modules, X1 being an integer value of L / L1; calculating the vertical number Y1 of required multi-body light source modules, Y1 being an integer value of W / W1; calculating the horizontal number X2 of required single light source modules, X2 being an integer value of (L-L1*X1) / r0; calculating the vertical number Y2 of required single light source modules, Y2 being an integer value of (W-W1*Y1) / r0; wherein L is the length of a lighting space, W is the width of the lighting space, L1 is the length of a multi-body light source module, W1 is the width of the multi-body light source module, and r0 is the optimal spacing; the number C1 of required multi-body light source modules is X1*Y1, and the number C2 of required single light source modules is X1*Y2*n+X2*Y1*n+X2*Y2, wherein n is the horizontal / vertical number of single light source modules contained in a multi-body light source module.

10. The method of claim 9, wherein the number C3 of driving power supplies is calculated according to the number of multi-body light source modules and single light source modules, C3=(C1*N+C2) / Q1. wherein N is the number of single light source modules contained in a multi-body light source module, and Q1 is the number of single light source modules that can be controlled by one driving power supply.

11. The method of claim 9, wherein the number of controllers is calculated according to the number of multi-body light source modules and single light source modules, C4=(C1*N+C2) / Q2. wherein N is the number of single light source modules contained in a multi-body light source module, and Q2 is the number of single light source modules that can be controlled by one controller. The number C4 of the controllers is calculated according to the number of the multi-body light source modules and the number of the single-body light source modules, C4=(C1*N+C2) / Q2; Wherein, N is the number of the single-body light source modules contained in the multi-body light source modules, and Q2 is the number of the single-body light source modules that can be controlled by one controller.

12. The method of claim 1, wherein, The bill of materials of the lighting deployment scheme includes the number and specifications of the required light source modules, the number of the driving power supplies, and the number of the controllers.

13. A system for customizing a lighting deployment scheme, characterized by The method comprises the following steps: An input unit is configured to input customization parameters and specifications of preset light source modules; A calculation unit is configured to calculate an optimal spacing range of the required light source modules, the number and specifications of the required light source modules, the number of the required driving power supplies, and the number of the required controllers; A processing unit is configured to apply the method for generating a customized lighting deployment scheme according to any one of claims 1 to 12 to generate a bill of materials and / or a wiring diagram.

14. A readable storage medium, characterized by, The program or instruction stored on the readable storage medium is executed by the processor to implement the steps of the method for generating a customized lighting deployment scheme according to any one of claims 1 to 12.

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